Grossman PPAP Database

Polycyclic polyprenylated acylphloroglucinols (bicyclo[3.3.1]nonane derivatives).
Compiled by Prof. Robert B. Grossman, University of Kentucky.

Showing 1467 compounds in 434 structures.  |  Alphabetical index  |  Footnotes  |  All references

Structure and Index	R and X group(s)	Common Name	Source [a]	[α]D (°) [b]	Reference(s)
1
1.1	R1 = i-Pr R2 = H R3 = H R4 = prenyl R5 = geranyl	prolifenone B	H. prolificum	−0.58 (c 1.30, m)	Henry 2006
1.2	R1 = i-Pr R2 = H R3 = prenyl R4 = prenyl R5 = prenyl	hyperevolutin A	H. revolutum Vahl	+84.4 (0.5, m)	Decosterd 1989
1.3	R1 = i-Pr R2 = prenyl R3 = H R4 = prenyl R5 = prenyl	olympiforin B[c]	H. olympicum L.	+9.8 (0.116, m)	Ilieva 2023
1.4	R1 = i-Pr R2 = prenyl R3 = Me R4 = prenyl R5 = prenyl	hyperibine J, a.k.a. adhyperfirin, a.k.a. hyperpolyphyllirin	H. maculatum Crantz, H. perforatum, H. polyphyllum, H. triquetrifolium	+7.2 (1, m), OMe: +7 (0.10, m)	Tatsis 2007, Porzel 2014, Mitsopoulou 2015, Nedialkov 2015
1.5	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	secohyperforin	H. perforatum	NR	Charchoglyan 2007, Sparling 2015
1.6	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = prenyl	hyperforin[c]	H. perforatum, H. attenuatum	+41 (5, e)	Gurevich 1971 (includes translation), Bystrov 1975, Bystrov 1978, Bystrov 1978 (translation), D. Li 2015a
1.7	R1 = i-Pr R2 = prenyl R3 = CH2CH2CMe2OH R4 = prenyl R5 = H	garcinielliptone A	G. subelliptica	−33 (0.6)	Weng 2003a
1.8	R1 = i-Bu R2 = H R3 = geranyl R4 = prenyl R5 = H	garcicosin	G. verrucosa	−10 (0.3)	Rajaonarivelo 2016
1.9	R1 = s-Bu R2 = H R3 = H R4 = prenyl R5 = geranyl	prolifenone A[e]	H. prolificum	+13.3 (0.145, m)	Henry 2006
1.10	R1 = s-Bu R2 = H R3 = prenyl R4 = prenyl R5 = prenyl	hyperevolutin B[e]	H. revolutum Vahl	NR	Decosterd 1989
1.11	R1 = (S)-s-Bu R2 = prenyl R3 = Me R4 = prenyl R5 = prenyl	olympiforin A[c]	H. olympicum L.	+20.97 (0.102, m)	Ilieva 2023
1.12	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	adsecohyperforin[e]	H. perforatum	NR	Charchoglyan 2007
1.13	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = prenyl R5 = prenyl	adhyperforin[e]	H. perforatum	NR	Maisenbacher 1992
1.14	R1 = s-Bu R2 = CH2CH2CMe2OH R3 = prenyl R4 = prenyl R5 = H	garcinielliptone D[e]	G. subelliptica	−22 (0.1)	Weng 2003a
1.15	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	nemorosone[d]	Cuban propolis, C. rosea, C. grandiflora, C. insignis, C. nemorosa	+113 (0.1); OMe: +150 (0.8, m) and +49 (1.4)	de Oliveira 1996, de Oliveira 1999, Lokvam 2000, Cuesta-Rubio 2001a, Sparling 2015
1.16	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl R5 = prenyl	bzhyperforin[c]	H. forestii	−66 (0.2, m)	W.-J. Lu 2020
1.17	R1 = Ph R2 = prenyl R3 = lavandulyl R4 = prenyl R5 = H	chamone I[e]	C. grandiflora	NR	Lokvam 2000
1.18	R1 = 3-hydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	hydroxynemorosone	C. nemorosa	OMe: +143 (0.7, m)	de Oliveira 1996, Ciochina 2006
1.19	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = (S)-isolavandulyl[g] R5 = H	garcinialiptone D	G. subelliptica	−79.1 (7.83, m)	L.-J. Zhang 2010
2
2.1	R1 = i-Pr R2 = prenyl R3 = prenyl	7-epi-secohyperforin[d]	H. sampsonii	NR	Ernst 2024
2.2	R1 = i-Pr R2 = geranyl R3 = prenyl	no common name	H. sampsonii	NR	Ernst 2024
2.3	R1 = Ph R2 = prenyl R3 = prenyl	plukenetione D, a.k.a. 7-epi-nemorosone[d]	C. nemorosa, C. plukenetii, H. sampsonii	OAc: +34.5 (0.03), −37.6 (0.1); OMe: +10.7 (3.1)	Henry 1999, de Oliveira 1999, Grossman 2000, X.-W. Yang 2017a, Ernst 2024
2.4	R1 = Ph R2 = prenyl R3 = (E)-4-acetoxyprenyl	insignone	C. insignis	OMe: +92.7 (1.6)	Porto 2000
2.5	R1 = Ph R2 = geranyl R3 = prenyl	nemosampsone[d]	H. sampsonii	NR	Ernst 2024
3		hyperfirin	H. perforatum	NR	Tatsis 2007
4
4.1	R1 = i-Pr R2 = CH2CH2COMe R3 = prenyl	hyphenone A	H. henryi	+13 (0.22, m)	Jiang 2019
4.2	R1 = i-Pr R2 = (E)-CH2CH=CMeCHO R3 = prenyl	hypseudone C[c]	H. pseudohenryi	+25.5 (0.157, m)	Jiang 2025
4.3	R1 = i-Pr R2 = (E)-CH2CH=CMeCH(OMe)2 R3 = prenyl	hypseudone D[c]	H. pseudohenryi	+31.2 (0.078, m)	Jiang 2025
4.4	R1 = i-Pr R2 = prenyl R3 = (E)-CH2CH=CMeCHO	hyperkouytone B[c]	H. kouytchense	+41.2 (0.23, m)	H.-Y. Lou 2024
4.5	R1 = s-Bu R2 = (E)-CH2CH=CMeCHO R3 = prenyl	hypseudone B[c][e]	H. pseudohenryi	+34.9 (0.094, m)	Jiang 2025
5		hyperkouytone C[c]	H. kouytchense	−96.0 (0.5, m)	H.-Y. Lou 2024
6		dorstenpictanone	Dorstenia picta	NR	Hussain 2011
7
7.1	R1 = i-Pr R2 = prenyl R3 = X1 = H R4 = X2 = H	deoxyfurohyperforin A	H. perforatum	+42 (0.018, mc)	Vajs 2003
7.2	R1 = i-Pr R2 = prenyl R3 = X1 = OH/H R4 = X2 = H/OH	furohyperforin A, mixture of epimers	H. perforatum	NR	Trifunovi&#263 1998, Vajs 2003
7.3	R1 = i-Pr R2 = prenyl R3 = X1 = OMe R4 = X2 = H	hyperwilsone B[c]	H. wilsonii	+114.1 (0.2, acn)	Y. Duan 2021c
7.4	R1 = i-Pr R2 = prenyl R3 = X1 = H R4 = X2 = OMe	hyperwilsone A[c]	H. wilsonii	+25.7 (0.2, acn)	Y. Duan 2021c
7.5	R1 = (S)-s-Bu R2 = prenyl R3 = X1 = H R4 = X2 = OMe	lancasteroid F[c]	H. lancasteri	+5.8 (0.3, m)	J.-Q. You 2025
7.6	R1 = (S)-s-Bu R2 = prenyl R3 = X1 = OMe R4 = X2 = H	lancasteroid E[c]	H. lancasteri	+115.7 (0.3, m)	J.-Q. You 2025
7.7	R1 = Ph R2 = H R3 = X1 = H R4 = X2 = H	hyperscabrone B[c]	H. scabrum	−39 (0.1, m)	W. Gao 2016a
7.8	R1 = Ph R2 = H R3 = X1 = H R4 = X2 = OMe	lancasteroid G[c]	H. lancasteri	−62.1 (0.3, m)	J.-Q. You 2025
7.9	R1 = Ph R2 = H R3 = X1 = OMe R4 = X2 = H	lancasteroid H[c]	H. lancasteri	+1.7 (0.3, m)	J.-Q. You 2025
7.10	R1 = Ph R2 = prenyl R3 = X1 = H R4 = X2 = H	hyphenrone X[c]	H. henryi H. Lév & Vaniot	−23 (0.18, m)	Liao 2016
7.11	R1 = Ph R2 = prenyl R3 = X1 = OMe R4 = X2 = H	hypseudohenrin F[c]	H. pseudohenryi	+22.2 (0.86, m)	H. Sun 2021b
7.12	R1 = Ph R2 = prenyl R3 = X1 = H R4 = X2 = OMe	hypseudohenrin G[c]	H. pseudohenryi	−14.0 (0.57, m)	H. Sun 2021b
8
8.1	R1 = Me R2 = prenyl R3 = prenyl R4 = prenyl X = OH	hyperforatin F[c]	H. perforatum	+52 (0.4, m)	Y. Guo 2017
8.2	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = H X = OH	garsubellin A	G. subelliptica	−21 (e, 1.1)	Fukuyama 1997, Fukuyama 1998
8.3	R1 = i-Pr R2 = prenyl R3 = (S)-CH2CHOHCMe2OH R4 = H X = OH	hyperhimatin G[c]	H. himalaicum	+48.4 (0.5, m)	H. Cheng 2022b
8.4	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl X = H	hypercohin G	H. cohaerens	+42.4 (0.20, m)	X. Liu 2013a
8.5	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl X = OH	furohyperforin	H. perforatum, H. attenuatum	+62.4 (0.9), +81.9 (0.9, m), +68 (0.2)	Trifunovi&#263 1998, Verotta 1999, D. Li 2015a
8.6	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl X = OOH	33-deoxy-33-hydroperoxyfurohyperforin	H. perforatum	+75 (1.2)	Verotta 2000
8.7	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl X = acetonyl	hyperpatuone J[c]	H. patulum	−15.00 (0.3, m)	F. Zhang 2026
8.8	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe2OH X = OH	scabrumione F, a.k.a. hyperioxide F[c]	H. scabrum, H. perforatum	+38.7 (0.04, m), +7.2 (0.1, m)	Z.-B. Zhou 2022a, X.-G. Pan 2025
8.9	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe2OOH X = OH	hyperkouytone H, a.k.a. hyperioxide E[c]	H. kouytchense, H. perforatum	+62.7 (0.3, m), +8.1 (0.1, m)	H.-Y. Lou 2024, X.-G. Pan 2025
8.10	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (R)-2,3-epoxy-3-methylbutyl X = OH	hyperkouytone J	H. kouytchense	+33.92 (0.25, m)	H.-Y. Lou 2024
8.11	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (R)-CH2CHOHCMe=CH2 X = OH	hyperforatin E[c]	H. perforatum	+66 (0.3, m)	Y. Guo 2017
8.12	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (S)-CH2CHOHCMe=CH2 X = OH	32-epi-hyperforatin E[c]	H. perforatum	+81 (0.3, m)	Y. Guo 2017
8.13	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = CH2C(=O)CHMe2 X = OH	hyperforatin G[c]	H. perforatum	+48 (0.6, m)	Y. Guo 2017
8.14	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = CH2C(=O)CMe=CH2 X = OH	hyperioxide D[c]	H. perforatum	+15.3 (0.1, m)	X.-G. Pan 2025
8.15	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (R)-CH2CHOHCMe2OH X = OH	17R,18-dihydroxyfurohyperforin	H. perforatum, H. scabrum	+26.6 (0.25, m)	R.-D. Liu 2014, Bridi 2018, Xiao 2018
8.16	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (S)-CH2CHOHCMe2OH X = OH	attenuatumione G[c]	H. attenuatum	+40.5 (0.19)	Z.-B. Zhou 2016a
8.17	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (R)-CH2CHOHCMe2OMe X = OH	hyperfol G, a.k.a. curvisepalumione A[c]	H. curvisepalum, H. perforatum	+117.0 (0.3, m)	Lou 2020b, Z.-B. Zhou 2022b
8.18	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (S)-CH2CHOHCMe2OMe X = OH	curvisepalumione B[c]	H. curvisepalum	+78.8 (0.17, m)	Z.-B. Zhou 2022b
8.19	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (S)-CH2CHOHCMe2OEt X = OH	hyperioxide C[c]	H. perforatum	+6.6 (0.1, m)	X.-G. Pan 2025
8.20	R1 = i-Pr R2 = prenyl R3 = (R)-CH2CHOHCMe=CH2 R4 = prenyl X = OH	hyperforatin Q[c]	H. perforatum	+87.7 (0.6, m)	Y. Guo 2019b
8.21	R1 = i-Pr R2 = prenyl R3 = (E)-CH=CHCMe2OH R4 = prenyl X = OH	hyperformitin I[c]	H. perforatum	+59 (0.2, m)	Y. Guo 2021a
8.22	R1 = i-Pr R2 = prenyl R3 = (E)-CH=CHCMe2OOH R4 = prenyl X = OH	hyperkouytone G	H. kouytchense	+47.38 (0.3, m)	H.-Y. Lou 2024
8.23	R1 = i-Pr R2 = prenyl R3 = (R)-CH2CHOHCMe2OH R4 = prenyl X = OH	hyperioxide B[c]	H. perforatum	+60.0 (0.02, m)	X.-G. Pan 2025
8.24	R1 = i-Pr R2 = prenyl R3 = (S)-CH2CHOHCMe2OH R4 = prenyl X = OH	no common name	H. himalaicum	+88.4 (0.2, m)	G.-H. Liu 2025
8.25	R1 = i-Pr R2 = (E)-CH2CH=C(Me)CHO R3 = prenyl R4 = prenyl X = OH	hyperhookerione E[c]	H. hookerianum	+140.2 (0.5, m)	Z. Guo 2025
8.26	R1 = i-Pr R2 = (R)-CH2CHOHCMe=CH2 R3 = prenyl R4 = prenyl X = OH	hyperforatin S[c]	H. perforatum	+62.2 (0.6, m)	Y. Guo 2019b
8.27	R1 = i-Pr R2 = (S)-CH2CHOHCMe=CH2 R3 = prenyl R4 = prenyl X = OH	hypericumoxide J	H. scabrum	+3.4 (0.06, m)	R. Liu 2017, Y. Guo 2019b
8.28	R1 = i-Pr R2 = (E)-CH=CHCMe2OH R3 = prenyl R4 = prenyl X = OH	hyperfol F[c]	H. perforatum	+31.35 (0.17, m)	Lou 2020b
8.29	R1 = i-Pr R2 = (E)-CH=CHCMe2OOH R3 = prenyl R4 = prenyl X = OH	hyperkouytone I	H. kouytchense	+28.38 (0.17, m)	H.-Y. Lou 2024
8.30	R1 = i-Pr (18R,39R)-R2 = R3 = prenyl R4 = prenyl X = OH	hyperforatone B[c]	H. perforatum	+53.0 (0.5, m)	Y. Guo 2018
8.31	R1 = i-Pr (18R,39S)-R2 = R3 = prenyl R4 = prenyl X = OH	hypercohin D	H. cohaerens	+81.5 (0.10, m)	X. Liu 2013a
8.32	R1 = i-Pr (18S,39R)-R2 = R3 = prenyl R4 = prenyl X = OH	hypercohin B[c]	H. cohaerens	+30.8 (0.15, m)	X. Liu 2013a
8.33	R1 = i-Pr (18S,39S)-R2 = R3 = prenyl R4 = prenyl X = OH	hyperforatone A[c] (one of two by that name)	H. perforatum	+31.8 (0.3, m)	Y. Guo 2018, W.-Y. Liu 2025a
8.34	R1 = i-Pr (18S,39R)-R2 = R3 = prenyl R4 = prenyl X = OOH	hyperforatone D[c]	H. perforatum	+26.1 (0.4, m)	Y. Guo 2018
8.35	R1 = i-Pr (27R,37R)-R2 = R3 = prenyl R4 = prenyl X = OH	hypericumoxide K	H. scabrum	+65.2 (0.07, m)	R. Liu 2017
8.36	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = H X = OH	garsubellin B[d][e]	G. subelliptica	−36 (0.6, e)	Fukuyama 1998, Y. Ma 2022b
8.37	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = H X = OH	hyperacmosin S[c][e] (enantiomer)	G. acmosepalum	+32.3 (0.52, e); +92.3 (0.05, m)	Y. Ma 2022b
8.38	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = prenyl X = H	hyperforcinol J, a.k.a. hyperiforin A[c][e]	H. forrestii	+70 (0.4, m), +77.3 (0.1, m)	W.-J. Lu 2021, Zong 2021
8.39	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = prenyl X = OH	furoadhyperforin[e]	H. perforatum	NR	Vugdelija 2000
8.40	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = prenyl X = OOH	hyperichoisin A[e]	H. choisianum	+45.78 (0.075, m)	H.-B. Zhang 2021
8.41	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = prenyl X = acetonyl	hyperpatuone K[c][e]	H. patulum	−35 (0.3, m)	F. Zhang 2026
8.42	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = (R)-CH2CHOHCMe=CH2 X = OH	hyperforatin T[c][e]	H. perforatum	+45.5 (c 0.2, m)	Y. Guo 2019b
8.43	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = (S)-CH2CHOHCMe=CH2 X = OH	hyperforatin U[c][e]	H. perforatum	+57.3 (0.3, m)	Y. Guo 2019b
8.44	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = (S)-CH2CHOHCMe2OH X = OH	uralione P[c][e]	H. uralum	+27.2 (0.1, m)	X. Li 2017
8.45	R1 = s-Bu R2 = prenyl R3 = (R)-CH2CHOHCMe=CH2 R4 = prenyl X = OH	hyperforatin R[c][e]	H. perforatum	+36.0 (0.3, m)	Y. Guo 2019b
8.46	R1 = s-Bu R2 = prenyl R3 = (S)-CH2CHOHCMe2OH R4 = H X = OH	hyperhimatin H[c][e]	H. himalaicum	+44.0 (0.5, m)	H. Cheng 2022b
8.47	R1 = s-Bu R2 = CH(Pr)CH2CO2H R3 = prenyl R4 = H X = OH	sundaicumone B[e]	Calophyllum sundaicum	+48 (0.1, e)	S. Cao 2006
8.48	R1 = s-Bu R2 = CH(Pr)CH2CO2H R3 = CH2CHOHCMe2OH R4 = H X = OH	sundaicumone A[e]	Calophyllum sundaicum	+52 (0.2, e)	S. Cao 2006
8.49	R1 = s-Bu (18R,39S)-R2 = R3 = prenyl R4 = prenyl X = OH	hypericumoxide L[e]	H. scabrum	+28.6 (0.02, m)	R. Liu 2017
8.50	R1 = s-Bu (18S,39R)-R2 = R3 = prenyl R4 = prenyl X = OH	hyperforatone C[c][e]	H. perforatum	+21.5 (0.5, m)	Y. Guo 2018
8.51	R1 = Ph R2 = prenyl R3 = prenyl R4 = H X = OH	hyperibone G	H. scabrum	−29.3 (0.9)	Matsuhisa 2002
8.52	R1 = Ph R2 = prenyl R3 = prenyl R4 = H X = OH	propolone D (enantiomer)	Cuban propolis	+48.5 (0.7)	Hernandez 2005
8.53	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl X = H	hypercohin H	H. cohaerens	−19.0 (0.11, m)	X. Liu 2013a
8.54	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl X = OH	uraloidin A, a.k.a. uralodin A	H. henryi subsp. uraloides	−55.0 (0.10, m)	N. Guo 2008, X.-Q. Chen 2010
8.55	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl X = OOH	hyperforcinol H, a.k.a. hyperiforin B[c]	H. forrestii	−20 (0.1, m), −7.3 (0.1, m)	W.-J. Lu 2021, Zong 2021
8.56	R1 = Ph R2 = prenyl R3 = prenyl R4 = (R)-CH2CH(OH)CMe=CH2 X = OH	hyperpatulone B[c]	H. patulum	+41.7 (1.0, m)	Z.-N. Wu 2019
8.57	R1 = Ph R2 = prenyl R3 = prenyl R4 = (S)-CH2CH(OH)CMe=CH2 X = OH	hyperpatulone A[c]	H. patulum	+39.6 (1.0, m)	Z.-N. Wu 2019
8.58	R1 = Ph R2 = prenyl R3 = prenyl R4 = (R)-CH2CH(OH)CMe2OH X = OH	hyperpatulone D[c] (one of two by that name)	H. patulum	+51.8 (1.0, m)	Z.-N. Wu 2019
8.59	R1 = Ph R2 = prenyl R3 = prenyl R4 = (S)-CH2CH(OH)CMe2OH X = OH	hyperpatulone C[c] (one of two by that name)	H. patulum	+56.6 (1.0)	Z.-N. Wu 2019
8.60	R1 = Ph R2 = prenyl R3 = prenyl R4 = (E)-CH2CH=CMeCHO X = OH	hyperpatuone L[c]	H. patulum	+11.67 (0.3, m)	F. Zhang 2026
8.61	R1 = Ph R2 = prenyl R3 = (E)-CH=CHCMe2OH R4 = (E)-CH=CHCMe2OH X = OH	kiiacylphnol F[c]	H. przewalskii Maxim	−12 (0.3, m)	Y. Duan 2022a
8.62	R1 = Ph R2 = prenyl R3 = prenyl R4 = geranyl X = OH	kiiacylphnol E[c]	H. przewalskii Maxim	+2 (0.2, m)	Y. Duan 2022a
8.63	R1 = Ph R2 = prenyl R3 = geranyl R4 = H X = OOH	trijapin E	Triadenum japonicum	−150 (0.2, m)	Oya 2015
8.64	R1 = Ph R2 = CH2CHOHCMe=CH2 R3 = prenyl R4 = H X = OH	hyperibone D[e]	H. scabrum	−61.9 (0.7)	Matsuhisa 2002
8.65	R1 = Ph (18S,39R)-R2 = R3 = prenyl R4 = prenyl X = OH	hypercohin C	H. cohaerens	−43.6 (0.10, m)	X. Liu 2013a
8.66	R1 = Ph R2 = CH2COCHMe2 R3 = prenyl R4 = prenyl X = OH	kiiacylphnol D[c]	H. przewalskii Maxim	−9 (0.2, m)	Y. Duan 2022a
9
9.1	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl X = OH	hypercohin E	H. cohaerens	+17.9 (0.10, m)	X. Liu 2013a
9.2	R1 = i-Pr R2 = CH2CH2CMe2OH R3 = prenyl R4 = H X = OH	garcinielliptone C	G. subelliptica	−40 (0.2)	Weng 2003a
9.3	R1 = i-Pr R2 = prenyl R3 = (S)-CH2CHOHCMe2OH R4 = H X = OH	hyperhimatin F[c]	H. himalaicum	−14.0 (0.5, m);	H. Cheng 2022b
9.4	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = prenyl X = OH	hypercohin F[e]	H. cohaerens	+18.6 (0.15, m)	X. Liu 2013a
9.5	R1 = Ph R2 = prenyl R3 = prenyl R4 = H X = OH	hyperscabrone M[c]	H. scabrum	−29.0 (0.1, m)	W. Gao 2016a
9.6	R1 = Ph R2 = prenyl R3 = prenyl R4 = H X = OOH	hyperscabrone A[c]	H. scabrum	−37 (0.1, m)	W. Gao 2016a
9.7	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl X = OH	uralione E	H. uralum	−30 (0.2)	Z.-B. Zhou 2016b
9.8	R1 = Ph R2 = prenyl R3 = prenyl R4 = (R)-CH2CHOHCMe2OH X = OH	uralione Q[c]	H. uralum	−23.4 (0.1, m)	X. Li 2017
9.9	R1 = Ph R2 = prenyl R3 = prenyl R4 = (S)-CH2CHOHCMe2OH X = OH	uralione R[c]	H. uralum	−32.0 (0.1, m)	X. Li 2017
10		hypseudohenrin L[c]	H. pseudohenryi	+22.4 (0.71, m)	Y.-h. Ma 2022
11
11.1	R1 = i-Pr R2 = prenyl R3 = CMe2OH R4 = prenyl R5 = H	hyperacmosin J[n]	H. acmosepalum	−122 (0.18, m)	X. Wang 2020b
11.2	R1 = i-Pr R2 = prenyl R3 = CMe2OH R4 = (R)-CH2CHOHCMe2OH R5 = H	hyperhimatin J[c]	H. himalaicum	+116.7 (0.5, m)	H. Cheng 2022b
11.3	R1 = i-Pr R2 = prenyl R3 = CMe2OH R4 = (R)-CH2CHOHCMe2OH R5 = prenyl	hyperioxide A[c]	H. perforatum	+70.0 (0.02, m)	X.-G. Pan 2025
11.4	R1 = i-Pr R2 = prenyl R3 = (2R)-5-oxo-2-methyltetrahydrofuran-2-yl R4 = prenyl R5 = H	hyperhookerione F[d]	H. hookerianum	−128.8 (0.5, m)	Z. Guo 2025
11.5	R1 = i-Pr R2 = prenyl R3 = (2S)-5-oxo-2-methyltetrahydrofuran-2-yl R4 = prenyl R5 = H	hyperhookerione G[d]	H. hookerianum	−146.2 (0.5, m)	Z. Guo 2025
11.6	R1 = i-Pr R2 = prenyl R3 = (R)-2-hydroxy-6-methyl-5-hepten-2-yl R4 = (R)-CH2CH(OH)CMe2OH R5 = H	no common name	H. himalaicum	−32.0 (0.1, m)	G.-H. Liu 2025
11.7	R1 = i-Pr R2 = geranyl R3 = CMe2OH R4 = prenyl R5 = H	hyperacmosin B[c]	H. acmosepalum	−53.0 (0.502, m)	J. Wang 2019, J. Wang 2022
11.8	R1 = s-Bu R2 = prenyl R3 = CMe2OH R4 = (R)-CH2CHOHCMe2OH R5 = H	hyperhimatin L[c]	H. himalaicum	+71.3 (0.5, m)	H. Cheng 2022b
11.9	R1 = Ph R2 = prenyl R3 = H R4 = prenyl R5 = H	hypersampsone R, a.k.a. hyperattenin B[d] (one of two by the first name)	H. attenuatum Choisy, H. sampsonii	+22.0 (0.3), +43.9 (0.19)	W.-J. Tian 2014c, D. Li 2015a
11.10	R1 = Ph R2 = prenyl R3 = OH R4 = prenyl R5 = H	hyperattenin A[d]	H. attenuatum Choisy	+38.3 (0.92)	D. Li 2015a
11.11	R1 = Ph R2 = prenyl R3 = C(=O)Me R4 = prenyl R5 = H	hypersampsonone I[d]	H. sampsonii	+17.5 (1.0, m)	Y. Li 2023
11.12	R1 = Ph R2 = prenyl R3 = CMe2OH R4 = prenyl R5 = H	sampsonione L	H. sampsonii	+55 (0.06)	L.-H. Hu 2000
11.13	R1 = Ph R2 = prenyl R3 = CMe2OH R4 = (E)-CH=CHCMe2OH R5 = H	hyperibone F	H. scabrum	−31.0 (0.2)	Matsuhisa 2002, Ciochina 2006
11.14	R1 = Ph R2 = prenyl R3 = (S)-2-hydroxy-6-methyl-5-hepten-2-yl R4 = prenyl R5 = H	sampsonione K	H. sampsonii	−5.6 (1.1)	L.-H. Hu 2000, Z.-B. Zhou 2014
11.15	R1 = Ph R2 = prenyl R3 = (R)-2-hydroxy-6-methyl-5-hepten-2-yl R4 = prenyl R5 = H	attenuatumione C	H. attenuatum	+20.9 (0.15)	Z.-B. Zhou 2014
11.16	R1 = Ph R2 = prenyl R3 = (R)-2-hydroxy-6-methyl-5-hepten-2-yl R4 = (S)-CH2CH(OH)CMe2OH R5 = H	no common name	H. himalaicum	+37.3 (0.1, m)	G.-H. Liu 2025
11.17	R1 = Ph R2 = prenyl R3 = (R)-5-oxo-2-methyltetrahydrofuran-2-yl R4 = prenyl R5 = H	hyperisampsin I[d]	H. sampsonii	+42 (0.2)	Zhu 2015b
11.18	R1 = Ph R2 = prenyl R3 = (S)-5-oxo-2-methyltetrahydrofuran-2-yl R4 = prenyl R5 = H	hyperisampsin H[d]	H. sampsonii	+4 (0.2)	Zhu 2015b
11.19	R1 = Ph R2 = prenyl (3R,6S)-R3 = R4 = prenyl R5 = H X = OH	hyperisampsin J[d]	H. sampsonii	+21 (0.3, m)	Zhu 2015b
11.20	R1 = Ph R2 = prenyl (3R,6S)-R3 = R4 = prenyl R5 = H X = OOH	hyperisampsin K[d]	H. sampsonii	+12 (0.4)	Zhu 2015b
11.21	R1 = Ph R2 = prenyl (3S,6R)-R3 = R4 = prenyl R5 = H X = OH	hyperisampsin M[d]	H. sampsonii	+47 (0.1)	Zhu 2015b
11.22	R1 = Ph R2 = prenyl (3S,6R)-R3 = R4 = prenyl R5 = H X = OOH	hyperisampsin L[d]	H. sampsonii	+9 (0.1, m)	Zhu 2015b
11.23	R1 = Ph R2 = CH2CHOHCMe=CH2 R3 = CMe2OH R4 = (E)-CH=CHCMe2OH R5 = H	hyperibone E[e]	H. scabrum	−56.0 (0.2)	Matsuhisa 2002, Ciochina 2006
12
12.1	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl	hyperscabin H[d]	H. scabrum	+21.5 (0.11, mc)	J. Ma 2021b
12.2	R1 = i-Pr R2 = prenyl R3 = (R)-CH2CHOHCMe2OH R4 = H	hyperhimatin I[c]	H. himalaicum	+40.2 (0.5, m)	H. Cheng 2022b
12.3	R1 = i-Pr R2 = CH2CO2H R3 = prenyl R4 = H	hyperhimatin D[c]	H. himalaicum	+6.2 (0.5, m)	H. Cheng 2022b
12.4	R1 = i-Pr R2 = geranyl R3 = prenyl R4 = H	hyperacmosin A[c]	H. acmosepalum	+87.8 (0.337, m)	J. Wang 2019, J. Wang 2022
12.5	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = prenyl	hyperscabin I[d][e]	H. scabrum	+23.1 (0.10, mc)	J. Ma 2021b
12.6	R1 = s-Bu R2 = prenyl R3 = (R)-CH2CHOHCMe2OH R4 = H	hyperhimatin K[c][e]	H. himalaicum	+37.7 (0.5, m)	H. Cheng 2022b
12.7	R1 = s-Bu R2 = CH2CO2H R3 = prenyl R4 = H	hyperhimatin E[c][e]	H. himalaicum	+20.0 (c 0.5, m)	H. Cheng 2022b
13		otogirinin E[e]	H. erectum Thunb.	NR	Ishida 2010
14
14.1	R = i-Pr	hyperwilsone J[c]	H. wilsonii	−44.8 (0.4, m)	Y. Duan 2021c
14.2	R = s-Bu	hyperwilsone K[c][e]	H. wilsonii	−6.96 (0.4, m)	Y. Duan 2021c
15
15.1	R = i-Pr	kiiacylphnol A[c]	H. przewalskii Maxim	+13 (0.1, m)	Y. Duan 2022a
15.2	R = s-Bu	kiiacylphnol B[c][e]	H. przewalskii Maxim	+22 (0.6, m)	Y. Duan 2022a
16
16.1	R1 = i-Pr R2 = CMe2OH R3 = Me R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	hypermongone D[c]	H. monogynum	+69 (0.3, m)	W.-J. Xu 2015
16.2	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = H R6 = X1 = H R7 = X2 = H	garcinielliptone L[d]	G. subelliptica	−41 (0.3)	Weng 2004, X.-W. Yang 2017a, Y. Guo 2021a
16.3	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = H R6 = X1 = H R7 = X2 = H	hyperformitin L[c] (enantiomer)	H. perforatum	+60 (0.2, m)	Y. Guo 2021a
16.4	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	furohyperforin isomer 2, a.k.a. attenuatumione E[c]	H. attenuatum, H. perforatum	+39.7 (0.13)	Lee 2006, C. Hashida 2008, Z.-B. Zhou 2014, X.-W. Yang 2018, Qiu 2023
16.5	R1 = i-Pr R2 = CMe=CH2 R3 = prenyl R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	hypertum H[c]	H. perforatum	+85.7 (0.05, m)	W.-Y. Liu 2025b
16.6	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = prenyl R6 = X1 = OH R7 = X2 = H	hyperforatin B[c]	H. perforatum	+106 (0.3, m)	Y. Guo 2017
16.7	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (E)-CH=CHCMe2OH R6 = X1 = H R7 = X2 = H	hyperformitin E, a.k.a. scabrumione D[c]	H. perforatum, H. scabrum	+63 (0.6, m), +61.5 (0.1, m)	Y. Guo 2021a, Z.-B. Zhou 2022a, Qiu 2023
16.8	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (E)-CH=CHCMe2OMe R6 = X1 = H R7 = X2 = H	15-epi-hyperforatin D[c]	H. perforatum	+54 (0.6, m)	Y. Guo 2017
16.9	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (R)-CH2CH(OH)CMe=CH2 R6 = X1 = H R7 = X2 = H	32-epi-hyperforatin A[c]	H. perforatum	+78 (0.6, m)	Y. Guo 2017
16.10	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (S)-CH2CH(OH)CMe=CH2 R6 = X1 = H R7 = X2 = H	hyperforatin A[c]	H. perforatum	+84 (0.5, m)	Y. Guo 2017
16.11	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (R)-CH2CH(OH)CMe2OH R6 = X1 = H R7 = X2 = H	curvisepalumione C[c]	H. himalaicum, H. curvisepalum N. Robson	+37.1 (0.1, m), +32.1 (0.5, m)	G.-H. Liu 2025, M.-M. Cao 2025
16.12	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (S)-CH2CH(OH)CMe2OH R6 = X1 = H R7 = X2 = H	no common name	H. himalaicum	+36.7 (0.1, m)	G.-H. Liu 2025
16.13	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (R)-CH2CH(OH)CMe2OH R6 = X1 = H R7 = X2 = OH	hyperuraline B[c]	H. uralum	+14.1 (0.10)	J. Hu 2025
16.14	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (3R)-2,3-epoxy-3-methylbutyl R6 = X1 = H R7 = X2 = OH	hypersampine A[c]	H. sampsonii	+20.9 (NR, m)	X.-P. Wang 2024
16.15	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = (E)-CH=CHCMe2OH R5 = prenyl R6 = X1 = H R7 = X2 = H	hyperformitin A, a.k.a. scabrumione A[c]	H. perforatum, H. scabrum	+162 (0.3, m), +147.6 (0.1, m)	Y. Guo 2021a, Z.-B. Zhou 2022a, Qiu 2023
16.16	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = (R)-CH2CHOHCMe=CH2 R5 = prenyl R6 = X1 = H R7 = X2 = H	hyperforatin O[c]	H. perforatum	+57.5 (0.3, m)	Y. Guo 2019b
16.17	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = (S)-CH2CHOHCMe=CH2 R5 = prenyl R6 = X1 = H R7 = X2 = H	hyperforatin P[c]	H. perforatum	+14.2 (0.1, m)	Y. Guo 2019b
16.18	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = (R)-CH2CHOHCMe2OH R5 = prenyl R6 = X1 = H R7 = X2 = H	uralione O[c]	H. uralum	+28.6 (0.1, m)	X. Li 2017, Qiu 2023
16.19	R1 = i-Pr R2 = CMe2OH R3 = (E)-CH=CHCMe2OH R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	hyperformitin C, a.k.a. scabrumione C[c]	H. perforatum, H. scabrum	+94 (0.5, m), +103.0 (0.1, m)	Y. Guo 2021a, Z.-B. Zhou 2022a, Qiu 2023
16.20	R1 = i-Pr R2 = CMe2OH R3 = CH2CH(OH)CMe2OH R4 = prenyl R5 = (R)-2,3-epoxy-3-methylbutyl R6 = X1 = H R7 = X2 = H	hyperuraline A[e]	H. uralum	+19.8 (0.10)	J. Hu 2025
16.21	R1 = i-Bu R2 = CMe2OH R3 = Me R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	ascynol L[c]	H. ascyron	+20 (0.1, m)	Y.-L. Hu 2025
16.22	R1 = (S)-s-Bu R2 = CMe2OH R3 = Me R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	hypermongone B[c]	H. ascyron, H. monogynum	+80 (0.2, m)	W.-J. Xu 2015, Kong 2017
16.23	R1 = s-Bu R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	furoadhyperforin isomer 2a[e]	H. perforatum	+66 (0.08, m)	J.-B. Yang 2016
16.24	R1 = Ph R2 = CMe2OH R3 = Me R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	hyperascyrin E[c]	H. ascyron	+16 (0.1, m)	J.-W. Hu 2018
16.25	R1 = Ph R2 = CMe2OH R3 = Me R4 = prenyl R5 = prenyl R6 = X1 = OH R7 = X2 = H	hyperascyrin H[c]	H. ascyron	+28 (0.2, m)	J.-W. Hu 2018
16.26	R1 = Ph R2 = CMe2OH R3 = Me R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = OH	hyperascyrin G[c]	H. ascyron	+12 (0.2, m)	J.-W. Hu 2018
16.27	R1 = Ph R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = H R6 = X1 = H R7 = X2 = H	hyperibrin F[c]	H. scabrum	−50.8 (0.07, m)	J. Hu 2017
16.28	R1 = Ph R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = H R6 = X1 = H R7 = X2 = H	propolone C, a.k.a. garcinielliptone K[d] (enantiomer)	Cuban propolis, G. subelliptica	+35.7 (0.2), +27 (0.3)	Weng 2004, Hernandez 2005, X.-W. Yang 2017a
16.29	R1 = Ph R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (R)-CH2CH(OH)CMe2OH R6 = X1 = H R7 = X2 = H	ascyronine A[c]	H. ascyron	−15.5 (0.1, m)	E.-H. Zhang 2023
16.30	R1 = Ph R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	ascyronone F, a.k.a. uralione G[c]	H. ascyron, H. uralum	+36.5 (0.1, m), +17 (0.1)	Z. P. Li 2019, Z.-B. Zhou 2016b, Qiu 2023
17
17.1	R1 = i-Pr R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	hypermongone C[c]	H. monogynum	−8 (0.2, m)	W.-J. Xu 2015
17.2	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = H R5 = X1 = H R6 = X2 = H	garcinielliptone M[d]	G. subelliptica	+73 (0.2)	Weng 2004, X.-W. Yang 2017a, Y. Guo 2021a
17.3	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = H R5 = X1 = H R6 = X2 = H	hyperformitin M[c] (enantiomer)	H. perforatum	−48 (0.1, m)	Y. Guo 2021a
17.4	R1 = i-Pr R2 = (R)-CH2CHOHCMe2OH R3 = prenyl R4 = H R5 = X1 = H R6 = X2 = H	hyperhimatin P[c]	H. himalaicum	−44.7 (0.5, m)	H. Cheng 2022b
17.5	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	attenuatumione F, a.k.a. hyperscabin G[c]	H. attenuatum, H. scabrum	+19.6 (0.18), +28.4 (0.1, mc)	Z.-B. Zhou 2014, J. Ma 2021b, Qiu 2023
17.6	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = OH R6 = X2 = H	hyperforatin C[c]	H. perforatum	+12 (0.5, m)	Y. Guo 2017
17.7	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = 2,3-epoxy-3-methylbutyl R5 = X1 = H R6 = X2 = H	hypericumoxide A[e]	H. scabrum	+12.5 (0.06, m)	R. Liu 2017, Qiu 2023
17.8	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe2OH R5 = X1 = H R6 = X2 = H	hyperformitin F[c]	H. perforatum	+10 (0.1, m)	Y. Guo 2021a
17.9	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe2OMe R5 = X1 = H R6 = X2 = H	hyperforatin D[c]	H. perforatum	+12 (0.5, m)	Y. Guo 2017
17.10	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (R)-CH2CH(OH)CMe=CH2 R5 = X1 = H R6 = X2 = H	hyperforatin L[c]	H. perforatum	−7.5 (0.6, m)	Y. Guo 2019b
17.11	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (S)-CH2CH(OH)CMe=CH2 R5 = X1 = H R6 = X2 = H	hyperforatin M[c]	H. perforatum	+5.2 (0.3, m)	Y. Guo 2019b
17.12	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (R)-CH2CH(OH)CMe2OH R5 = X1 = H R6 = X2 = H	hypericumoxide B[c]	H. scabrum	−12.5 (0.08, m)	R. Liu 2017, Qiu 2023
17.13	R1 = i-Pr R2 = prenyl R3 = (S)-CH2CHOHCMe=CH2 R4 = prenyl R5 = X1 = H R6 = X2 = H	hyperforatin N[c]	H. perforatum	+35.0 (0.2, m)	Y. Guo 2019b
17.14	R1 = i-Pr R2 = prenyl R3 = (E)-CH=CHCMe2OH R4 = H R5 = X1 = H R6 = X2 = H	hyperhimatin O[c]	H. himalaicum	−6.2 (0.5, m)	H. Cheng 2022b
17.15	R1 = i-Pr R2 = prenyl R3 = (E)-CH=CHCMe2OH R4 = prenyl R5 = X1 = H R6 = X2 = H	hyperformitin B[c]	H. perforatum	+70 (0.3, mc)	Y. Guo 2021a
17.16	R1 = i-Pr R2 = (R)-CH2CHOHCMe2OH R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	hypericumoxide C[c]	H. scabrum	+14.7 (0.03, m)	R. Liu 2017, Qiu 2023
17.17	R1 = i-Pr R2 = (S)-CH2CHOHCMe2OH R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	uralione K[c]	H. uralum	+6 (0.1)	Z.-B. Zhou 2016b, Qiu 2023
17.18	R1 = i-Pr R2 = (E)-CH=CHCMe2OH R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	hyperformitin D, a.k.a. scabrumione B[c]	H. perforatum, H. scabrum	+31 (0.3, m), +61.5 (0.1, m)	Z.-B. Zhou 2016b, Y. Guo 2021a, Qiu 2023
17.19	R1 = i-Bu R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	ascynol M[c]	H. ascyron	−15 (0.21, m)	Y.-L. Hu 2025
17.20	R1 = (S)-s-Bu R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	hypermongone A[c]	H. monogynum	+9 (0.2, m)	W.-J. Xu 2015
17.21	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	furoadhyperforin isomer 2b[c]	H. scabrum, H. cohaerens	+24 (0.06, m)	J.-B. Yang 2016
17.22	R1 = Ph R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	hyperascyrin F[c]	H. ascyron	−48 (0.4, m)	J.-W. Hu 2018
17.23	R1 = Ph R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = OH	hyperascyrin I[c]	H. ascyron	−35 (0.1, m)	J.-W. Hu 2018
17.24	R1 = Ph R2 = prenyl R3 = prenyl R4 = H R5 = X1 = H R6 = X2 = H	hyperibrin C[c]	H. scabrum	+92.5 (0.10, m)	W. Gao 2016c
17.25	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	uralione F[c]	H. uralum	−32 (0.3)	Z.-B. Zhou 2016b, Qiu 2023
17.26	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (S)-isolavandulyl[g] R4 = H R5 = X1 = H R6 = X2 = H	garcinialiptone C	G. subelliptica	−94.0 (0.86, m)	L.-J. Zhang 2010
18
18.1	R = prenyl	sampsonione N	H. sampsonii	+22.0 (0.090)	Xiao 2007, Qiu 2023
18.2	R = geranyl	hyperacmosin O, a.k.a. hypersampsonone H[d]	H. acmosepalum, H. sampsonii	−1.5 (0.1, m), + 7.5 (1.0, m)	M.-x. Sun 2021b, Y. Li 2023
19
19.1	R = geranyl X = H	sampsonione M	H. sampsonii	+55 (0.04)	L.-H. Hu 2000
19.2	R = (R)-lavandulyl[f] X = OMe	garcimultiflorone M[c][t][u][x]	G. multiflora	−32.8 (0.060, m)	Z.-Q. Wang 2018
20		lathrophytoic acid B	Kielmeyera lathrophyton	NR	de Almeida 2011
21
21.1	R1 = i-Pr R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	hypermongone H[c]	H. monogynum	+61 (0.2, m)	W.-J. Xu 2015
21.2	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = H R5 = X1 = H R6 = X2 = H	garsubellin C[d]	G. subelliptica	+39 (0.4, e)	Fukuyama 1997, Fukuyama 1998, Y. Guo 2021a
21.3	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = H R5 = X1 = H R6 = X2 = H	hyperformitin K[c] (enantiomer)	H. perforatum	−56 (0.4, e)	Y. Guo 2021a
21.4	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	18-epi-furohyperforin isomer 1[r]	H. perforatum	+15 (0.3, m)	C. Hashida 2008, X.-W. Yang 2018
21.5	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = OH R6 = X2 = H	hyperforatin K[c]	H. perforatum	−13 (0.5, m)	Y. Guo 2017
21.6	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = OEt R6 = X2 = H	hyperacmosin P[c]	H. acmosepalum	−19.2 (0.1, m)	M.-x. Sun 2021b
21.7	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (R)-CH2CH(OH)CMe2OH R5 = X1 = H R6 = X2 = H	uralione L[c]	H. uralum	−29.0 (0.1, m)	X. Li 2017
21.8	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (R)-CH2CH(OH)CMe=CH2 R5 = X1 = H R6 = X2 = H	15-epi-hyperforatin I[c]	H. perforatum	−28 (0.3, m)	Y. Guo 2017
21.9	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (S)-CH2CH(OH)CMe2OH R5 = X1 = H R6 = X2 = H	hyperidione F[c]	H. perforatum	−30.0 (0.010, m)	X.-G. Pan 2024
21.10	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (S)-CH2CH(OH)CMe2OMe R5 = X1 = H R6 = X2 = H	curvisepalumione D[c]	H. curvisepalum N. Robson	−23.3 (0.5, m)	M.-M. Cao 2025
21.11	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe2OH R5 = X1 = H R6 = X2 = H	hyperidione E[c]	H. perforatum	+1.5 (0.033, m)	X.-G. Pan 2024
21.12	R1 = i-Pr R2 = prenyl R3 = (R)-CH2CH(OH)CMe2OH R4 = prenyl R5 = X1 = H R6 = X2 = H	hyperidione C[c]	H. perforatum	+20.0 (0.020, m)	X.-G. Pan 2024
21.13	R1 = i-Pr R2 = prenyl R3 = (S)-CH2CH(OH)CMe2OH R4 = prenyl R5 = X1 = H R6 = X2 = H	no common name	H. himalaicum	+29.7 (0.1, m)	G.-H. Liu 2025
21.14	R1 = i-Pr R2 = prenyl R3 = (E)-CH=CHCMe2OH R4 = prenyl R5 = X1 = H R6 = X2 = H	hyperformitin H[c]	H. perforatum	+88 (0.3, m)	Y. Guo 2021a
21.15	R1 = i-Pr R2 = (E)-CH=CHCMe2OH R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	hypericumoxide D	H. scabrum	+9.8 (0.07, m)	R. Liu 2017
21.16	R1 = i-Pr R2 = (E)-CH=CHCMe2OH R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = OH	ascyronine B[c]	H. ascyron	+13.9 (0.1, m)	E.-H. Zhang 2023
21.17	R1 = i-Bu R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	ascynol N[c]	H. ascyron	+44 (0.2, m)	Y.-L. Hu 2025
21.18	R1 = i-Bu R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	hyperwilsone E[c]	H. wilsonii	−16.8 (0.6, m)	Y. Duan 2021c
21.19	R1 = (S)-s-Bu R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	hypermongone F[c]	H. monogynum	−44 (0.1, m)	W.-J. Xu 2015
21.20	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	furoadhyperforin isomer B[e][s]	H. perforatum	+14 (1.5)	C. Hashida 2008, X.-W. Yang 2018
21.21	R1 = Ph R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	hyperascyrin A[c]	H. ascyron	−80 (0.1, m)	J.-W. Hu 2018
21.22	R1 = Ph R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = OH	hyperascyrin C[c]	H. ascyron	−67 (0.2, m)	J.-W. Hu 2018
21.23	R1 = Ph R2 = prenyl R3 = prenyl R4 = H R5 = X1 = H R6 = X2 = H	hyperibone A	H. scabrum	+57 (0.2), +63.7 (0.4)	Matsuhisa 2002, Hernandez 2005
21.24	R1 = Ph R2 = prenyl R3 = prenyl R4 = H R5 = X1 = H R6 = X2 = H	garcinielliptone I (enantiomer)	G. subelliptica	−37.7 (1.1)	Weng 2003b, Ciochina 2006
21.25	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	uralodin B	H. henryi subsp. uraloides	−24.6 (0.075, m)	X. Q. Chen 2010
21.26	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = OH R6 = X2 = H	hypercohin J	H. cohaerens	−4.8 (0.09, m)	X. Liu 2013a, X.-W. Yang 2018
21.27	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = OH	hyperbeanin D[c]	H. beanii	+0.9 (0.11, m)	Y. Ma 2022a
21.28	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	dihroxuralodin	H. petiolulatum	−27.9 (0.10, m)	Rui 2017
22		hyperwilsone C[c]	H. wilsonii	−36.3 (0.3, m)	Y. Duan 2021c
23
23.1	R1 = i-Pr R2 = CMe2OH R3 = Me R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	hypermongone G[c]	H. monogynum	+34 (0.3, m)	W.-J. Xu 2015
23.2	R1 = i-Pr R2 = CMe2OH R3 = Me R4 = prenyl R5 = (S)-CH2CHOHCMe2OH R6 = X1 = H R7 = X2 = H	hypermongone I[c]	H. monogynum	+6 (0.1, m)	W.-J. Xu 2015
23.3	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = H R6 = X1 = H R7 = X2 = H	garsubellin D[d]	G. subelliptica	−12 (0.4, e)	Fukuyama 1998, Y. Guo 2021a
23.4	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = H R6 = X1 = H R7 = X2 = H	hyperformitin J[c] (enantiomer)	H. perforatum	+18 (0.4, e)	Y. Guo 2021a
23.5	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = H R6 = X1 = H R7 = X2 = OH	garcinielliptone P	G. subelliptica	−2 (1.6)	K.-W. Lin 2011
23.6	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	furohyperforin isomer 1[r]	H. perforatum	+50 (0.7)	Lee 2006, C. Hashida 2008, X.-W. Yang 2018
23.7	R1 = i-Pr R2 = CMe=CH2 R3 = prenyl R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	hypertum I[c]	H. perforatum	+60.3 (0.04, m)	W.-Y. Liu 2025b
23.8	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = prenyl R6 = X1 = OH R7 = X2 = H	hyperforatin J[c]	H. perforatum	+44 (0.5, m)	Y. Guo 2017
23.9	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (E)-CH=CHCMe2OH R6 = X1 = H R7 = X2 = H	hypericumoxide F	H. scabrum	+10.7 (0.09, m)	R. Liu 2017
23.10	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (R)-CH2CHOHCMe2OH R6 = X1 = H R7 = X2 = H	uralione M[c]	H. uralum	+28.6 (0.1, m)	X. Li 2017
23.11	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (S)-CH2CHOHCMe2OH R6 = X1 = H R7 = X2 = H	uralione N[c]	H. uralum	+38.8 (0.1, m)	X. Li 2017
23.12	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = CH2C(=O)CHMe2 R6 = X1 = H R7 = X2 = H	hyperforatin H[c]	H. perforatum	+34 (0.5, m)	Y. Guo 2017
23.13	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (R)-CH2CHOHCMe=CH2 R6 = X1 = H R7 = X2 = H	hyperforatin I[c]	H. perforatum	+23 (0.4, m)	Y. Guo 2017
23.14	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = (E)-CH=CHCMe2OH R5 = H R6 = X1 = H R7 = X2 = H	hyperhimatin M[c]	H. himalaicum	+37.8 (0.5, m)	H. Cheng 2022b
23.15	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = (E)-CH=CHCMe2OH R5 = prenyl R6 = X1 = H R7 = X2 = H	hyperformitin G[c]	H. perforatum	+17 (0.3, m)	Y. Guo 2021a
23.16	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = (S)-CH2CHOHCMe2OH R5 = H R6 = X1 = H R7 = X2 = H	hyperhimatin N[c]	H. himalaicum	+27.1 (0.5, m)	H. Cheng 2022b
23.17	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = (R)-CH2CHOHCMe2OH R5 = prenyl R6 = X1 = H R7 = X2 = H	hypericumoxide E[c]	H. scabrum	+9.8 (0.07, m)	R. Liu 2017
23.18	R1 = i-Pr R2 = CMe2OH R3 = prenyl R4 = (E)-CH=CHCMe2OOH R5 = (S)-CH2CHOHCMe2OH R6 = X1 = H R7 = X2 = H	hyperidione A[c]	H. perforatum	+20.0 (0.025, m)	X.-G. Pan 2024
23.19	R1 = i-Pr R2 = CMe2OH R3 = CH2CH(OH)CMe2OH R4 = prenyl R5 = (E)-CH=CHCMe2OH R6 = X1 = H R7 = X2 = H	ascyronine C[c][e]	H. ascyron	+11.9 (0.1, m)	E.-H. Zhang 2023
23.20	R1 = i-Bu R2 = CMe2OH R3 = Me R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	ascynol O[c]	H. ascyron	−55 (0.1, m)	Y.-L. Hu 2025
23.21	R1 = i-Bu R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	hyperwilsone D[c]	H. wilsonii	+37.6 (0.4, m)	Y. Duan 2021c
23.22	R1 = (S)-s-Bu R2 = CMe2OH R3 = Me R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	hypermongone E[c]	H. monogynum	+9 (0.2, m)	W.-J. Xu 2015
23.23	R1 = (S)-s-Bu R2 = CMe2OH R3 = Me R4 = prenyl R5 = (R)-CH2CHOHCMe2OH R6 = X1 = H R7 = X2 = H	hypermongone J[c]	H. monogynum	+6 (0.1, m)	W.-J. Xu 2015
23.24	R1 = s-Bu R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = H R6 = X1 = H R7 = X2 = H	garsubellin E[e]	G. subelliptica	−7 (e, 0.4)	Fukuyama 1998
23.25	R1 = s-Bu R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	furoadhyperforin isomer A[e][s]	H. perforatum	+34 (0.9)	C. Hashida 2008, X.-W. Yang 2018
23.26	R1 = (R)-s-Bu R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (R)-CH2CHOHCMe2OH R6 = X1 = H R7 = X2 = H	hyperidione B[c]	H. perforatum	+120.0 (0.010, m)	X.-G. Pan 2024
23.27	R1 = Ph R2 = CMe2OH R3 = Me R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	hyperascyrin B[c]	H. ascyron	−5 (0.2, m)	J.-W. Hu 2018
23.28	R1 = Ph R2 = CMe2OH R3 = Me R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = OH	hyperascyrin D[c]	H. ascyron	+3 (0.2, m)	J.-W. Hu 2018
23.29	R1 = Ph R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = H R6 = X1 = H R7 = X2 = H	hyperibone B	H. scabrum, Cuban propolis	−20.8 (0.5), −42.2 (0.1)	Matsuhisa 2002, Hernandez 2005
23.30	R1 = Ph R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = H R6 = X1 = H R7 = X2 = H	ochrocarpinone C[o][p] (perhaps enantiomer)	Ochrocarpos punctatus	+0.21 (0.38)	Chaturvedula 2002
23.31	R1 = Ph R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = prenyl R6 = X1 = H R7 = X2 = H	uralodin C	H. henryi subsp. uraloides	−55.0 (0.010, m)	X. Q. Chen 2010
23.32	R1 = Ph R2 = CMe2OH R3 = prenyl R4 = prenyl R5 = (E)-CH=CHCMe2OH R6 = X1 = H R7 = X2 = H	hypersampine B[c]	H. sampsonii	+13.9 (0.10, m)	X.-P. Wang 2024
23.33	R1 = 3,4-dihydroxyphenyl R2 = CMe2OH R3 = prenyl R4 = (R)-lavandulyl[f] R5 = H R6 = X1 = H R7 = X2 = H	garcinielliptone FB	G. subelliptica	−66 (0.2)	C.-C. Wu 2005
24
24.1	R1 = i-Pr R2 = prenyl R3 = (R)-CH2CHOHCMe2OH R4 = prenyl X = H	hyperidione D[c]	H. perforatum	+26.0 (0.050, m)	X.-G. Pan 2024
24.2	R1 = i-Pr R2 = prenyl R3 = (E)-CH=CHCMe2OH R4 = prenyl X = H	scabrumione E	H. scabrum	+4.5 (0.04, m)	Z.-B. Zhou 2022a
24.3	R1 = i-Pr R2 = geranyl R3 = prenyl R4 = prenyl X = H	hyperwilone D[d]	H. wilsonii	+50.0 (0.74)	Hao 2021
24.4	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl X = H	hypersampsone U[d]	H. sampsonii	+28.2 (0.50)	W.-J. Tian 2016
24.5	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl X = OMe	garcimultinone G[d]	G. multiflora	+159.26 (0.02, m)	Teng 2021
24.6	R1 = Ph R2 = prenyl R3 = (E)-CH=CHCMe2OH R4 = prenyl X = H	hyperibone C	H. scabrum	−27.3 (0.3)	Matsuhisa 2002, Ciochina 2006
24.7	R1 = Ph R2 = geranyl R3 = prenyl R4 = prenyl X = H	hyperattenin C[d]	H. attenuatum Choisy	−8.4 (0.13, m)	D. Li 2015a
24.8	R1 = Ph R2 = geranyl R3 = prenyl R4 = prenyl X = OEt	hyperattenin D[d]	H. attenuatum Choisy	+100.4 (0.42, m)	D. Li 2015a
24.9	R1 = Ph R2 = (S)-lavandulyl[f] R3 = prenyl R4 = prenyl X = H	garcimultinone F[d]	G. multiflora	+186.27 (0.02, m)	Teng 2021
24.10	R1 = 3,4-dihydroxyphenyl R2 = lavandulyl R3 = prenyl R4 = prenyl X = H	garcinielliptone GC[e]	G. multiflora	+159.4 (0.27, m)	H. Yang 2020
25
25.1	R = prenyl	sampsonione O	H. sampsonii	+87.9 (0.073)	Xiao 2007
25.2	R = geranyl	otogirinin D	H. erectum Thunb., H. attenuatum	+160.0 (0.03, m)	Ishida 2010, D. Li 2015a
26
26.1	R1 = i-Pr R2 = Me	papuaforin B	H. papuanum	NR	Winkelmann 2001a
26.2	R1 = Ph R2 = prenyl	scrobiculatone B[c]	C. scrobiculata	+44.7 (0.2)	Porto 2000
26.3	R1 = Ph R2 = prenyl	hyperscabrone K[d] (enantiomer)	H. scabrum	−57.2 (0.1, m)	W. Gao 2016b, X.-W. Yang 2018
26.4	R1 = Ph R2 = lavandulyl	chamone II[e]	C. grandiflora	NR	Lokvam 2000
27
27.1	R1 = prenyl R2 = H	plukenetione F	C. plukenetii	−53.6 (0.03)	Henry 1999
27.2	R1 = prenyl R2 = prenyl	hypersampsone F	H. sampsonii	+30 (0.2)	Y.-L. Lin 2003, Ciochina 2006
27.3	R1 = lavandulyl R2 = H	garcimultine A[e] (equilibrates rapidly with regioisomer garcimultine B)	G. multiflora	mixture with garcimultine B: +79.4 (0.336, m)	H. Liu 2017
27.4	R1 = (S)-CH2CH(CMe2OH)CH2CH=CMe2 R2 = H	garcimultinone H[d]	G. multiflora	+35.0 (0.02, m)	Teng 2021
27.5	R1 = (2R,3E)-CH2CH(CMe=CH2)CH=CHCMe2OH R2 = H	garcimultiflorone K[c][t][u][x] (one of two by that name)	G. multiflora	−1.1 (0.090, m)	Z.-Q. Wang 2018
28
28.1	R1 = i-Pr R2 = Me R3 = prenyl R4 = CH2–prenyl R5 = X1 = H R6 = X2 = H	bellumone B[c]	H. bellum	+6 (0.05, m)	X. Zhou 2021
28.2	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = CH2–prenyl R5 = X1 = H R6 = X2 = H	hyperscabin F, a.k.a. hyperpatin E[c]	H. patulum, H. scabrum	+66.4 (0.12, mc), +76.0 (0.10, m)	J. Ma 2021b, J.-C. Huang 2025
28.3	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = CH2–prenyl R5 = X1 = OH R6 = X2 = H	uralione A[c]	H. uralum	+49 (0.2)	Z.-B. Zhou 2016b
28.4	R1 = i-Pr R2 = (R)-CH2CHOHCMe2OH R3 = prenyl R4 = Me R5 = X1 = OH R6 = X2 = H	hyperhimatin C[c]	H. himalaicum	−11.8 (0.5, m)	H. Cheng 2022b
28.5	R1 = i-Pr R2 = (R)-CH2CHOHCMe2OH R3 = prenyl R4 = CH2–prenyl R5 = X1 = OH R6 = X2 = H	hypericumoxide M[c]	H. scabrum	+19.8 (0.07, m)	R. Liu 2017
28.6	R1 = i-Pr R2 = (S)-CH2CHOHCMe2OH R3 = prenyl R4 = CH2–prenyl R5 = X1 = OH R6 = X2 = H	attenuatumione H[c]	H. attenuatum	+34.6 (0.1)	Z.-B. Zhou 2016a
28.7	R1 = s-Bu R2 = Me R3 = prenyl R4 = CH2–prenyl R5 = X1 = H R6 = X2 = H	bellumone A[c][e]	H. bellum	+10 (0.1, m)	X. Zhou 2021
28.8	R1 = s-Bu R2 = (R)-CH2CHOHCMe2OH R3 = prenyl R4 = Me R5 = X1 = H R6 = X2 = OH	hyperhimatin B[c][e]	H. himalaicum	−4.0 (0.5, m)	H. Cheng 2022b
28.9	R1 = s-Bu R2 = (R)-CH2CHOHCMe2OH R3 = prenyl R4 = Me R5 = X1 = OH R6 = X2 = H	hyperhimatin A[c][e]	H. himalaicum	−6.7 (0.5, m)	H. Cheng 2022b
28.10	R1 = Ph R2 = Me R3 = prenyl R4 = CH2–prenyl R5 = X1 = H R6 = X2 = OH	hyperacmosin I[c][ee]	H. acmosepalum	−122 (0.25, m)	X. Wang 2020b
28.11	R1 = Ph R2 = prenyl R3 = prenyl R4 = CH2–prenyl R5 = X1 = H R6 = X2 = H	hyperkouytone D, a.k.a. hyperpatin A[c]	H. kouytchense, H. patulum	−57.0 (0.38, m), −35.0 (0.10, m)	H.-Y. Lou 2024, J.-C. Huang 2025
28.12	R1 = Ph R2 = prenyl R3 = prenyl R4 = CH2–prenyl R5 = X1 = H R6 = X2 = OH	uralione B	H. uralum	−28 (0.1)	Z.-B. Zhou 2016b
28.13	R1 = Ph R2 = prenyl R3 = prenyl R4 = CH2–prenyl R5 = X1 = OH R6 = X2 = H	uralione C	H. uralum	−41 (0.1)	Z.-B. Zhou 2016b
28.14	R1 = Ph R2 = prenyl R3 = prenyl R4 = (S)-CH2CH2CH(OH)CMe2OH R5 = X1 = H R6 = X2 = H	hyperpatin B[c]	H. patulum	−58.5 (0.10, m)	J.-C. Huang 2025
28.15	R1 = Ph R2 = prenyl R3 = prenyl R4 = (E)-CH2=CHCH=O R5 = X1 = H R6 = X2 = H	hyperpatin C[c]	H. patulum	−16.0 (0.10, m)	J.-C. Huang 2025
28.16	R1 = Ph R2 = (R)-CH2CH(OH)CMe2OH R3 = prenyl R4 = Me R5 = X1 = OH R6 = X2 = H	propolone B	Cuban propolis	+38.2 (0.6)	Hernandez 2005, W. Gao 2016b
28.17	R1 = Ph R2 = (S)-CH2CH(OH)CMe2OH R3 = prenyl R4 = Me R5 = X1 = OH R6 = X2 = H	hyperscabrone J[c]	H. scabrum	−58.5 (0.1, m)	W. Gao 2016b
28.18	R1 = Ph R2 = (S)-CH2CH(OH)CMe2OH R3 = prenyl R4 = CH2–prenyl R5 = X1 = OH R6 = X2 = H	hyperkouytone E[c]	H. kouytchense	−49.3 (0.25, m)	H.-Y. Lou 2024
28.19	R1 = Ph R2 = (S)-CH2CH(OH)CMe2OH R3 = prenyl R4 = CH2–prenyl R5 = X1 = H R6 = X2 = OH	uralione D[c]	H. uralum	−28 (0.1, m)	Z.-B. Zhou 2016b
28.20	R1 = Ph R2 = (S)-CH2CH(OH)CMe2OH R3 = prenyl R4 = (R)-CH2CH2CH(OH)CMe2OH R5 = X1 = H R6 = X2 = OH	hypertonii C[c]	H. addingtonii N. Robson	+25.4 (0.1, acn)	Q. Feng 2025
28.21	R1 = Ph R2 = (S)-CH2CH(OH)CMe2OH R3 = prenyl R4 = (S)-CH2CH2CH(OH)CMe2OH R5 = X1 = H R6 = X2 = OH	hypertonii D[c]	H. addingtonii N. Robson	+18.6 (0.1, acn)	Q. Feng 2025
28.22	R1 = Ph R2 = (R)-(2,4,4-trimethyl-2-cyclohexenyl)methyl R3 = prenyl R4 = Me R5 = X1 = H R6 = X2 = H	garcinuntin B[c]	G. nuntasaenii	−62.8 (1.0)	Chaturonrutsamee 2018
28.23	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = Me R5 = X1 = H R6 = X2 = H	hyperscabrone N[c]	G. multiflora	−62.0 (0.1, m)	J. Cao 2024
28.24	R1 = 3,4-dihydroxyphenyl R2 = (S)-lavandulyl[f] R3 = prenyl R4 = Me R5 = X1 = H R6 = X2 = H	garcimultinone J[d]	G. multiflora	−5.07 (0.05, m)	Teng 2021
28.25	R1 = 3,4-dihydroxyphenyl R2 = 2,2,6,6-tetramethyl-3-oxanylmethyl R3 = prenyl R4 = Me R5 = X1 = H R6 = X2 = H	hyperscabrone O[c][e]	G. multiflora	−40.0 (0.1, m)	J. Cao 2024
28.26	R1 = 3,4-dihydroxyphenyl R2 = (S)-2,2,6,6-tetramethyl-3-oxanylmethyl R3 = CH2CH2CMe2OH R4 = Me R5 = X1 = H R6 = X2 = H	garpedvinin M[d]	G. pedunculata Roxb.	+30.8 (0.10, m)	D.-L. Zou 2025
29		hyperpatin D[c]	H. patulum	−42.0 (0.10, m)	J.-C. Huang 2025
30
30.1	R = prenyl X = H	hypersampsone T[d]	H. sampsonii	+62.8 (0.50)	W.-J. Tian 2016
30.2	R = prenyl X = OOH	15,16-dihydro-16-hydroperoxyplukenetione F[e]	C. havetiodes var. stenocarpa	+24.7 (0.3)	Christian 2001
30.3	R = geranyl X = H	hypersampsone H	H. sampsonii	+44.37 (0.222)	Y. H. Zeng 2009, W.-J. Tian 2016, X.-W. Yang 2018
30.4	R = (S)-lavandulyl[f] X = H	garcimultinone I[d]	G. multiflora	+73.90 (0.09, m)	Teng 2021
31
31.1	R1 = i-Pr R2 = Me R3 = H	papuaforin A	H. papuanum	+13 (0.1, m)	Winkelmann 2001a
31.2	R1 = i-Pr R2 = Me R3 = prenyl	papuaforin E	H. papuanum	+41 (0.1, m)	Winkelmann 2001a
31.3	R1 = i-Pr R2 = prenyl R3 = H	garcinielliptone F, a.k.a. garsubelone B[d]	G. subelliptica	−23 (0.09), −90.8 (0.08, m)	Weng 2003b, Y.-L. Wang 2019, Y.-G. Fu 2025
31.4	R1 = i-Pr R2 = prenyl R3 = prenyl	pyrano[7,28-b]hyperforin	H. perforatum	+83.5 (0.3)	M. D. Shan 2001
31.5	R1 = s-Bu R2 = Me R3 = H	papuaforin C[e]	H. papuanum	+23 (0.1, m)	Winkelmann 2001a
31.6	R1 = s-Bu R2 = Me R3 = prenyl	papuaforin D[e]	H. papuanum	+64 (0.1, m)	Winkelmann 2001a
31.7	R1 = s-Bu R2 = prenyl R3 = H	garsubelone C[d][e]	G. subelliptica	+6 (0.06, m)	Y.-G. Fu 2025
31.8	R1 = s-Bu R2 = prenyl R3 = prenyl	hypercohin I[e]	H. cohaerens	+60.0 (0.22, m)	X. Liu 2013a
31.9	R1 = Ph R2 = prenyl R3 = H	scrobiculatone A	C. scrobiculata	+44.7 (0.2)	Porto 2000, Winkelmann 2001a
31.10	R1 = Ph R2 = (R)-(2,4,4-trimethyl-2-cyclohexenyl)methyl R3 = H	garcinuntin C[c]	G. nuntasaenii	−112.3 (0.33)	Chaturonrutsamee 2018
32
32.1	R1 = i-Pr R2 = prenyl R3 = prenyl	hyperselancin B[c]	H. lanceolatum	−9 (0.2)	Fobofou 2016, Y.-G. Fu 2025
32.2	R1 = s-Bu R2 = prenyl R3 = prenyl	hyperselancin A[c][e]	H. lanceolatum	−1 (0.3)	Fobofou 2016, Y.-G. Fu 2025
32.3	R1 = s-Bu R2 = prenyl R3 = geranyl	androforin A[e]	H. androsaemum	−59.3 (0.23, MeOH)	K. Wang 2012
32.4	R1 = Ph R2 = prenyl R3 = prenyl	plukenetione G	C. plukenetii	NR	Henry 1999
32.5	R1 = Ph R2 = lavandulyl R3 = prenyl	garcimultine B[e] (equilibrates rapidly with regioisomer garcimultine A)	G. multiflora	mixture with garcimultine A: +79.4 (0.336, m)	H. Liu 2017
33
33.1	R1 = i-Pr R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	bellumone C[c]	H. bellum	+13 (0.1, m)	X. Zhou 2021
33.2	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = H R5 = X1 = H R6 = X2 = H	garcinielliptone B	G. subelliptica	−23 (0.1)	Weng 2003a
33.3	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	hyperpatin F, a.k.a. hypertum J[c]	H. patulum, H. perforatum, H. scabrum	+13.0 (0.10, m), +7.8 (0.1, m)	J.-C. Huang 2025, W.-Y. Liu 2025b
33.4	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = OH R6 = X2 = H	hyperwilsone I[c][e]	H. wilsonii	+13.6 (0.4, m)	Y. Duan 2021c
33.5	R1 = Ph R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = OH R6 = X2 = H	hyperascyrin J[c]	H. ascyron	−68 (0.2, m)	J.-W. Hu 2018
33.6	R1 = Ph R2 = Me R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = OH	hyperacmosin H[c]	H. acmosepalum	−478 (0.25, m)	X. Wang 2020b
33.7	R1 = Ph R2 = prenyl R3 = prenyl R4 = H R5 = X1 = H R6 = X2 = H	propolone A	Cuban propolis, H. attenuatum	+40 (0.1)	Cuesta Rubio 1999, D. Li 2015a
33.8	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H	hyperforcinol I, a.k.a. hyperpatin G[c]	H. forrestii, H. patulum	−37 (0.1, m), −48.0 (0.10, m)	W.-J. Lu 2021, J.-C. Huang 2025
33.9	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl R5 = X1 = OH R6 = X2 = H	hyperbeanin E[c]	H. beanii	−30.0 (0.10, m)	Y. Ma 2022a
33.10	R1 = Ph R2 = (R)-(2,4,4-trimethyl-2-cyclohexenyl)methyl R3 = prenyl R4 = H R5 = X1 = H R6 = X2 = H	garcinuntin A[c]	G. nuntasaenii	−96.3 (0.30)	Chaturonrutsamee 2018
33.11	R1 = 3,4-dihydroxyphenyl R2 = (S)-2,2,6,6-tetramethyl-3-oxanylmethyl R3 = CH2CH2CMe2OH R4 = H R5 = X1 = H R6 = X2 = H	garpedvinin N[d]	G. pedunculata Roxb.	+40.9 (0.10, m)	D.-L. Zou 2025
34		ochrocarpinone A[e][o]	Ochrocarpos punctatus	+8.7 (0.15)	Chaturvedula 2002
35
35.1	R = geranyl	hypersampsone K	H. sampsonii, H. attenuatum	+31.7 (0.376)	Y. H. Zeng 2012, D. Li 2015a
35.2	R = (R)-lavandulyl[f]	garcimultiflorone L[c]	G. multiflora	+65.4 (0.040, m)	Z.-Q. Wang 2018
36		hyperpatin H[c]	H. patulum	−105.0 (0.10, m)	J.-C. Huang 2025
37
37.1	R = Ph	garcimultinone D[d]	G. multiflora	+186.27 (0.02, m)	Teng 2021
37.2	R = 3,4-dihydroxyphenyl	garcimultinone E[d]	G. multiflora	+11.22 (0.15, m)	Teng 2021
38		garcimultiflorone A	G. multiflora	−173 (0.12)	J.-J. Chen 2009
39		no common name	C. obdeltifolia	+30.9 (0.3)	Teixeira 2005
40		hypersampsonone A[d]	H. sampsonii	+46.1 (0.59)	J.-S. Zhang 2016
41		hypersampsone S[d] (one of two by that name)	H. sampsonii	+62.0 (0.50)	W.-J. Tian 2016
42
42.1	R1 = i-Pr R2 = prenyl	hypercohone D	H. cohaerens	−97.0 (0.07, m)	J.-J. Zhang 2014a
42.2	R1 = i-Bu R2 = Me	ascynol P[c]	H. ascyron	−130 (c 0.1, m)	Y.-L. Hu 2025
43
43.1	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl	oxepahyperforin	H. perforatum	−73.7 (0.8)	Verotta 2000
43.2	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (S)-CH2CHOHCMe2OH	uralione J[c]	H. uralum	−48 (0.1, m)	Z.-B. Zhou 2016b
43.3	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe2OH	hyperforatone F	H. perforatum	−70.0 (0.3, m)	Y. Guo 2018
43.4	R1 = i-Pr R2 = prenyl R3 = (R)-CH2CHOHCMe2OH R4 = prenyl	hypericumoxide I[c]	H. scabrum	−67.3 (0.06, m)	R. Liu 2017
43.5	R1 = i-Pr R2 = prenyl R3 = (S)-CH2CHOHCMe2OH R4 = prenyl	hyperforatone G[c]	H. perforatum	−77.5 (0.3, m)	Y. Guo 2018
43.6	R1 = i-Pr R2 = (R)-CH2CHOHCMe2OH R3 = prenyl R4 = prenyl	hypericumoxide G[c]	H. scabrum	−60.3 (0.07, m)	R. Liu 2017
43.7	R1 = i-Pr R2 = (S)-CH2CHOHCMe2OH R3 = prenyl R4 = prenyl	hypericumoxide H[c]	H. scabrum	−43.5 (0.06, m)	R. Liu 2017
43.8	R1 = i-Pr (18S,39R)-R2 = R3 = prenyl R4 = prenyl	hyperforatone E	H. perforatum	−93.6 (0.9, m)	Y. Guo 2018
43.9	R1 = (S)-s-Bu R2 = prenyl R3 = prenyl R4 = prenyl	hyphenrone E[c]	H. henryi	−117.6 (0.20, m)	X.-W. Yang 2014, X.-W. Yang 2015
43.10	R1 = s-Bu R2 = prenyl R3 = (S)-CH2CHOHCMe2OH R4 = prenyl	hyperforatone H[c][e]	H. perforatum	−90.3 (0.9, m)	Y. Guo 2018
43.11	R1 = s-Bu R2 = (E)-CH=CHCH2OOH R3 = prenyl R4 = prenyl	uralin C[c][e]	H. uralum	−82 (0.2, m)	Q.-Q. Fang 2021
43.12	R1 = Ph R2 = prenyl R3 = Me R4 = prenyl	hyperascyrin K[c]	H. ascyron	−201 (0.2, m)	J.-W. Hu 2018
43.13	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl	hypercohone F, a.k.a. uralione H	H. cohaerens, H. uralum	−240.8 (0.17, m), −210 (0.2)	J.-J. Zhang 2014a, Z.-B. Zhou 2016b
43.14	R1 = Ph R2 = prenyl R3 = (S)-CH2CHOHCMe2OH R4 = prenyl	uralione I[c]	H. uralum	−139 (0.1, m)	Z.-B. Zhou 2016b
43.15	R1 = Ph R2 = prenyl R3 = (E)-CH=CHCH2OH R4 = prenyl	kiiacylphnol H[c]	H. przewalskii Maxim	−115 (0.4, m)	Y. Duan 2022a
44
44.1	R1 = i-Pr R2 = Me	hyperscabrone C[c]	H. scabrum	−124 (0.1, m)	W. Gao 2016a
44.2	R1 = i-Pr R2 = prenyl	hypercohone E	H. cohaerens	−42.8 (0.12, m)	J.-J. Zhang 2014a
44.3	R1 = i-Bu R2 = Me	ascynol Q[c]	H. ascyron	−112 (0.1, m)	Y.-L. Hu 2025
44.4	R1 = (R)-s-Bu R2 = Me	hyperscabrone D[c]	H. scabrum	−75 (0.1, m)	W. Gao 2016a
44.5	R1 = s-Bu R2 = prenyl	hyperibrin H[c][e]	H. scabrum	NR	W. Xu 2021
44.6	R1 = Ph R2 = prenyl	kiiacylphnol G[c]	H. przewalskii Maxim	−125 (0.4, m)	Y. Duan 2022a
45		hyperkouytone A[d]	H. kouytchense	−24.8 (0.21, m)	H.-Y. Lou 2024
46		hyperhookerione A[c]	H. hookerianum	+127.8 (0.5, m)	Z. Guo 2025
47
47.1	R1 = i-Pr R2 = prenyl R3 = Me R4 = prenyl R5 = H	bellumone D[c]	H. bellum	−11 (0.1, m)	X. Zhou 2021
47.2	R1 = i-Pr R2 = prenyl R3 = Me R4 = prenyl R5 = prenyl	hyperibone J, a.k.a. hyperfoliatin	H. scabrum, H. ascyron, H. perfoliatum L.	+16.9 (0.3), +17 (1, m)	Tanaka 2004, Benkiki 2014, Kong 2017
47.3	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	subellinone, a.k.a. garcinielliptin oxide	G. subelliptica	−2.8 (1.0, e); +1 (0.3)	Fukuyama 1993, C.-N. Lin 1996, Grossman 2020
47.4	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = prenyl	8-hydroxyhyperforin-8,1-hemiacetal	H. perforatum	+34 (1.0)	Verotta 2000
47.5	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = (R)-CH2CHOHCMe2OH	hyperfol C[c]	H. perforatum	−9.18 (0.05, m)	Lou 2020b
47.6	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = (S)-CH2CHOHCMe2OH	hyperfol D[c]	H. perforatum	−43.12 (0.12, m)	Lou 2020b
47.7	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = (S)-CH2CHOHCMe2OMe	hyperfol E[c]	H. perforatum	−27.09 (0.09, m)	Lou 2020b
47.8	R1 = i-Pr R2 = prenyl R3 = (E)-CH=CHCMe2OH R4 = prenyl R5 = prenyl	hyphenrone W	H. henryi H. Lév & Vaniot	+6 (0.08, m)	Liao 2016
47.9	R1 = i-Pr R2 = CH2CH2CMe2OH R3 = prenyl R4 = prenyl R5 = H	garcinielliptone E	G. subelliptica	−51 (0.2)	Weng 2003a, Grossman 2020
47.10	R1 = i-Pr R2 = geranyl R3 = Me R4 = prenyl R5 = H	bellumone E[c]	H. bellum	−9 (0.1, m)	X. Zhou 2021
47.11	R1 = i-Bu R2 = prenyl R3 = Me R4 = prenyl R5 = prenyl	ascyronone D	H. ascyron	−3 (0.18, m)	Kong 2017
47.12	R1 = i-Bu R2 = prenyl R3 = prenyl R4 = (E)-4-oxoprenyl R5 = H	spiranthenone A	Spiranthera odoratissima	+11 (0.19)	Albernaz 2012, X.-W. Yang 2018
47.13	R1 = (S)-s-Bu R2 = prenyl R3 = Me R4 = prenyl R5 = prenyl	hyperscabrone G[c]	H. ascyron, H. scabrum	+7 (0.1, m)	W. Gao 2016a, Kong 2017
47.14	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	garcinielliptone T[e]	G. subelliptica	+32 (0.09, m)	Grossman 2020
47.15	R1 = (S)-s-Bu R2 = prenyl R3 = prenyl R4 = prenyl R5 = prenyl	hyphenrone G[c]	H. henryi	+26 (0.4, m)	X.-W. Yang 2015
47.16	R1 = s-Bu R2 = prenyl R3 = (E)-CH=CHCMe2OH R4 = prenyl R5 = prenyl	hyperforcinol G[c][e]	H. forrestii	+54 (0.3, m)	W.-J. Lu 2021
48
48.1	R = i-Pr	hyperhookerione B[c]	H. hookerianum	+221.6 (0.5, m)	Z. Guo 2025
48.2	R = s-Bu	hyperhookerione C[c][e]	H. hookerianum	+33.3 (0.5, m)	Z. Guo 2025
49
49.1	R = i-Pr X = OH	kiiacylphnol C[c]	H. przewalskii Maxim	+61 (0.5, m)	Y. Duan 2022a
49.2	R = i-Pr X = OMe	hyperhookerione D[c]	H. hookerianum	+77.8 (0.5, m)	Z. Guo 2025
49.3	R = i-Pr X = OEt	hypseudohenrin I[c]	H. pseudohenryi	+21.5 (20.6, m)	H.-R. Sun 2021a
49.4	R = s-Bu X = OH	hyperforcinol F[c][e]	H. forrestii	+113 (0.2, m)	W.-J. Lu 2021
49.5	R = s-Bu X = OEt	hypseudohenrin J[c][e]	H. pseudohenryi	+40.6 (0.71, m)	H.-R. Sun 2021a
50
50.1	R1 = i-Pr R2 = prenyl R3 = H R4 = X1 = H R5 = X2 = OH	przewalcyrone E[c]	H. przewalskii	−88.18 (0.44, m)	Duan 2019
50.2	R1 = i-Pr R2 = prenyl R3 = H R4 = X1 = OH R5 = X2 = H	przewalcyrone F[c]	H. przewalskii	−47.25 (0.13, m)	Duan 2019
50.3	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = X1 = H R5 = X2 = OH	hyphenrone T[c]	H. henryi H. Lév & Vaniot	−118 (0.09, m)	Liao 2016
50.4	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = X1 = OH R5 = X2 = H	hyphenrone U	H. henryi H. Lév & Vaniot	−46 (0.16, m)	Liao 2016
50.5	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = X1, X2 = O	hypseudohenrin K[c]	H. pseudohenryi	−18.6 (1.13, m)	H.-R. Sun 2021a
50.6	R1 = i-Pr R2 = prenyl R3 = (R)-CH2CHOHCMe=CH2 R4 = X1 = H R5 = X2 = OH	hyperforatone J[c]	H. perforatum	−59.5 (0.2, m)	Y. Guo 2018
50.7	R1 = i-Pr R2 = prenyl R3 = (S)-CH2CHOHCMe=CH2 R4 = X1 = H R5 = X2 = OH	hyperforatone I[c]	H. perforatum	−40.0 (0.4, m)	Y. Guo 2018
50.8	R1 = i-Pr R2 = prenyl R3 = (R)-CH2CHOHCMe2OMe R4 = X1 = H R5 = X2 = OH	hyperforatone O[c]	H. perforatum	−22.0 (0.3, m)	Y. Guo 2018
50.9	R1 = i-Pr R2 = prenyl R3 = (S)-CH2CHOHCMe2OMe R4 = X1 = H R5 = X2 = OH	hyperforatone N[c]	H. perforatum	−52.7 (0.4, m)	Y. Guo 2018
50.10	R1 = i-Pr R2 = (R)-CH2CHOHCMe=CH2 R3 = prenyl R4 = X1 = H R5 = X2 = OH	hyperforatone K[c]	H. perforatum	−35.4 (0.5, m)	Y. Guo 2018
50.11	R1 = i-Pr R2 = (R)-CH2CHOHCMe2OH R3 = prenyl R4 = X1 = H R5 = X2 = OH	hyperforatone L[c]	H. perforatum	−66.3 (0.3, m)	Y. Guo 2018
50.12	R1 = i-Pr R2 = (S)-CH2CHOHCMe2OH R3 = prenyl R4 = X1 = H R5 = X2 = OH	hyperforatone M[c]	H. perforatum	−10.4 (0.3, m)	Y. Guo 2018
50.13	R1 = i-Bu R2 = prenyl R3 = H R4 = X1 = H R5 = X2 = OH	przewalcyrone C[c]	H. przewalskii	−80.33 (0.3, m)	Duan 2019
50.14	R1 = i-Bu R2 = prenyl R3 = H R4 = X1 = OH R5 = X2 = H	przewalcyrone D[c]	H. przewalskii	−67.70 (0.18, m)	Duan 2019
50.15	R1 = (S)-s-Bu R2 = prenyl R3 = H R4 = X1 = H R5 = X2 = OH	przewalcyrone A[c]	H. przewalskii	−109.29 (0.43, m)	Duan 2019
50.16	R1 = (S)-s-Bu R2 = prenyl R3 = H R4 = X1 = OH R5 = X2 = H	przewalcyrone B[c]	H. przewalskii	−132.38 (0.3, m)	Duan 2019
50.17	R1 = (S)-s-Bu R2 = prenyl R3 = prenyl R4 = X1 = OH R5 = X2 = H	hyperwilsone F[c]	H. wilsonii	−36.8 (0.4, m)	Y. Duan 2021c
50.18	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = X1 = H R5 = X2 = OH	hyphenrone V	H. henryi H. Lév & Vaniot	−38 (0.16, m)	Liao 2016
50.19	R1 = Ph R2 = prenyl R3 = prenyl R4 = X1 = OH R5 = X2 = H	hyperwilsone G[c]	H. wilsonii	−44.0 (0.3, m)	Y. Duan 2021c
50.20	R1 = Ph R2 = prenyl R3 = prenyl R4 = X1 = H R5 = X2 = OH	hyperwilsone H[c]	H. wilsonii	−60.6 (0.5, m)	Y. Duan 2021c
51		hyperhookerione H[c]	H. hookerianum	−110 (0.5, m)	Z. Guo 2025
52		hyperhookerione I[c]	H. hookerianum	−163 (0.5, m)	Z. Guo 2025
53		garcinielliptone H	G. subelliptica	−14.3 (0.1)	Weng 2003b
54		ascynol G[c]	H. ascyron	+78 (0.1, m)	Y.-L. Hu 2025
55		garcinielliptone G	G. subelliptica	−53 (0.1)	Weng 2003b, Y.-G. Fu 2025
56		hyperscabin D[c]	H. scabrum	+71.4 (0.08, mc)	J. Ma 2021b
57		hyperforone A[c] (one of two by that name)	H. perforatum	−10.1 (0.1, m)	Y. Guo 2021b
58		hyperforone B[c] (one of two by that name)	H. perforatum	−144.4 (0.5, m)	Y. Guo 2021b
59		hyperforone C[c] (one of two by that name)	H. perforatum	−29.2 (0.3, m)	Y. Guo 2021b
60		hyperforone D[c]	H. perforatum	+68.9 (0.9, m)	Y. Guo 2021b
61		hyperforone E[c]	H. perforatum	−66.4 (0.3, m)	Y. Guo 2021b
62		hyperforone F[c]	H. perforatum	−30.0 (0.8, m)	Y. Guo 2021b
63		hyperforone G[c]	H. perforatum	−15.2 (0.4, m)	Y. Guo 2021b
64		hyperforone H[c]	H. perforatum	−22.3 (0.9, m)	Y. Guo 2021b
65		hyperatin A[c]	H. perforatum	+64.3 (0.1, m)	Y. Guo 2024
66
66.1	R = i-Pr X = OH	hyperatin D[c]	H. perforatum	−24.5 (0.1, m)	Y. Guo 2024
66.2	R = i-PrO X = OH	hyperatin C[c]	H. perforatum	−1.8 (0.2, m)	Y. Guo 2024
66.3	R = i-PrO X = OMe	hyperatin B[c]	H. perforatum	−5.3 (0.2, m)	Y. Guo 2024
67
67.1	R = i-Pr	hyperacmose A[c]	H. acmosepalum	+11.11 (2.8, m)	Z. Hu 2026
67.2	R = s-Bu	hyperacmose B[c][e]	H. acmosepalum	+8.63 (1.9, m)	Z. Hu 2026
68		hyperacmose C[c]	H. acmosepalum	+21.43 (0.56, m)	Z. Hu 2026
69		hypericumoxide N[d]	H. scabrum	−24.2 (0.09, m)	R. Liu 2017
70		hyperpatone A[c]	H. patulum	−54.18 (0.3, m)	F. Zhang 2023
71
71.1	R1 = i-Pr R2 = H	garcinielliptone J	G. subelliptica	−166 (0.2)	Weng 2003b
71.2	R1 = i-Pr R2 = (E)-CH=CHCMe2OH	norhyperpalum G[c]	H. patulum	+107.6 (c 0.5, m)	Y. Duan 2021b
71.3	R1 = (S)-s-Bu R2 = H	soulattrone A	Calophyllum soulattri	+157.3 (c 0.19, e)	Nigam 1988
71.4	R1 = s-Bu R2 = (E)-CH=CHCMe2OH	norhyperpalum F[c][e]	H. patulum	+92.0 (c 0.6, m)	Y. Duan 2021b
72
72.1	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl	hyphenrone A[c]	H. henryi	−23.8 (0.25, m)	X.-W. Yang 2014
72.2	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl	perforatumone[d] (prob. enantiomer)	H. perforatum	+153 (2.9, a)	J. Wu 2004, X.-W. Yang 2015
72.3	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe2OH	hyperuralone C	H. uralum	+3 (0.25, m)	J.-J. Zhang 2015
72.4	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe2OOH	hyperuralone E	H. uralum	+2 (0.11, m)	J.-J. Zhang 2015
72.5	R1 = i-Pr R2 = prenyl R3 = (E)-CH=CHCMe2OH R4 = prenyl	attenuatumione B	H. attenuatum	+4.8 (0.19)	Z.-B. Zhou 2014, J.-J. Zhang 2015
72.6	R1 = i-Pr R2 = (E)-CH=CHCMe2OH R3 = prenyl R4 = prenyl	hyphenrone Y (one of two by that name)	H. henryi	+10 (0.2, m)	F. Hu 2023
72.7	R1 = (S)-s-Bu R2 = prenyl R3 = prenyl R4 = prenyl	hyphenrone H[c]	H. henryi	−4 (0.1, m)	X.-W. Yang 2015
72.8	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe2OH	hyperuralone D[e]	H. uralum	+4 (0.09, m)	J.-J. Zhang 2015
72.9	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe2OOH	hyperuralone F[e]	H. uralum	+2 (0.11, m)	J.-J. Zhang 2015
72.10	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl	hyphenrone B[c]	H. henryi	−39.8 (0.09, m)	X.-W. Yang 2014
73		hyperfol H[c][dd]	H. perforatum	−203 (0.3, m)	Lou 2020b
74		hyperfol B[c]	H. perforatum	−33.24 (0.09, m)	Lou 2020a
75		hyperkouytone N[c]	H. kouytchense	−14.2 (0.24, m)	H.-Y. Lou 2024
76
76.1	R = i-Pr	hyperuralone G	H. uralum	−37 (0.11, m)	J.-J. Zhang 2015
76.2	R = s-Bu	hyperuralone H[e]	H. uralum	−38 (0.3, m)	J.-J. Zhang 2015
77
77.1	R = i-Pr	hyphenrone C[c]	H. henryi	−32.9 (0.10, m)	X.-W. Yang 2014, X.-W. Yang 2015
77.2	R = (S)-s-Bu	hyphenrone I[c]	H. henryi	+22 (c 0.1, m)	X.-W. Yang 2015
78		ascynol H[c]	H. ascyron	−22 (c 0.3, m)	Y.-L. Hu 2025
79		hyphenrone D[c]	H. henryi	−62.5 (0.10, m)	X.-W. Yang 2014
80		hyperlanin A, a.k.a. hyperforatone A[c] (one of two by the second name)	H. lancasteri	−18.0 (0.3, m)	You 2024, W.-Y. Liu 2025a
81		hyperfol A[c]	H. perforatum	−202.49 (0.3, m)	Lou 2020a
82
82.1	R1 = i-Pr R2 = H R3 = Me R4 = (E)-CH=CHCMe2OH	ascynol J[c]	H. ascyron	−30 (0.1, m)	Y.-L. Hu 2025
82.2	R1 = i-Pr R2 = H R3 = prenyl R4 = prenyl	hyphenrone F[c]	H. henryi	−140 (0.10, m)	X.-W. Yang 2014
82.3	R1 = i-Pr R2 = CO2Me R3 = prenyl R4 = prenyl	hyperpatuone M[c]	H. patulum	−52 (0.3, m)	F. Zhang 2026
82.4	R1 = s-Bu R2 = H R3 = Me R4 = (E)-CH=CHCMe2OH	ascynol K[c][e]	H. ascyron	−24 (0.1, m)	Y.-L. Hu 2025
82.5	R1 = Ph R2 = H R3 = Me R4 = prenyl	ascyronone C	H. ascyron	−151 (0.30, m)	Kong 2017
82.6	R1 = Ph R2 = H R3 = Me R4 = (E)-CH=CHCMe2OH	ascynol I[c]	H. ascyron	−149 (0.1, m)	Y.-L. Hu 2025
83		hyperforen A[c]	H. perforatum	+9.53 (0.05, m)	Lou 2022
84
84.1	R1 = i-Pr R2 = Me	ascyronone A	H. ascyron	+87 (0.04, m)	Kong 2017
84.2	R1 = i-Pr R2 = prenyl	hyperforcinol K[c]	H. forrestii	+57 (0.9, m)	W.-J. Lu 2021
84.3	R1 = s-Bu R2 = Me	ascyronone B[e]	H. ascyron	+108 (0.11, m)	Kong 2017
84.4	R1 = s-Bu R2 = prenyl	hyperforcinol E[c][e]	H. forrestii	+70 (0.3, m)	W.-J. Lu 2021
85		uralin B[c]	H. uralum	+63 (0.3, m)	Q.-Q. Fang 2021
86		hypsampsone A[d]	H. sampsonii	+71.49 (0.7, m)	Z.-Z. Zhang 2021
87		hypersampone A[d]	H. sampsonii	−70.01 (1.7, m)	L. Huang 2022
88
88.1	R = OBz	hypersampone B[d]	H. sampsonii	−67.93 (1.8, m)	L. Huang 2022
88.2	R = Bz	hypersampone C[d]	H. sampsonii	−21.54 (1.9, m)	L. Huang 2022
89
89.1	R = i-Pr	hyperscabin A[c]	H. scabrum	+37.9 (0.05, mc)	J. Ma 2021a
89.2	R = s-Bu	norhyperpalum E[c][e]	H. patulum	+55.1 (0.3, m)	Y. Duan 2021b
90
90.1	R = i-Pr	hyperscabin B[c]	H. scabrum	+75.6 (0.18, mc)	J. Ma 2021a
90.2	R = s-Bu	hyperscabin C[c][e]	H. scabrum	+66.2 (0.08, mc)	J. Ma 2021a
90.3	R = Ph	norhyperpalum D[c]	H. patulum	−47.1 (0.2, m)	Y. Duan 2021b
91
91.1	R = i-Pr	hyperacmosin K[c]	H. acmosepalum	+109.4 (0.1115, m)	M. Sun 2021a
91.2	R = Ph	norhyperpalum B[c]	H. patulum	−14.7 (0.6, m)	Y. Duan 2021b
92
92.1	R = i-Pr	hyperacmosin L[c]	H. acmosepalum	+133.8 (0.068, m)	M. Sun 2021a
92.2	R = Ph	norhyperpalum C[c]	H. patulum	+3.3 (0.3, m)	Y. Duan 2021b
93		norhyperpalum A[d]	H. patulum	−53.7 (c 0.3, m)	Y. Duan 2021b
94		hyperscabin E[c]	H. scabrum	+103.2 (0.14, mc)	J. Ma 2021b
95		hypertum A[c]	H. perforatum	−8.5 (0.05, m)	W.-Y. Liu 2025b
96
96.1	R1 = prenyl R2 = Me	hyperhexanone F[c]	H. sampsonii	−40 (0.3, m)	Z.-Z. Zhang 2021
96.2	R1 = geranyl R2 = Me	hyperhexanone A[c]	H. sampsonii	−13.3 (0.30)	Zhu 2016
96.3	R1 = geranyl R2 = Et	hyperacmosin M[c]	H. acmosepalum	−54.5 (0.044, m)	M. Sun 2021a
97		hyperforcinol D[c]	H. forrestii	+4 (0.7, m)	W.-J. Lu 2021
98
98.1	R = i-Pr	hyperacmosin D[c]	H. acmosepalum	−25.45 (0.22, m)	Suo 2021a
98.2	R = (S)-s-Bu	hyperacmosin C[c]	H. acmosepalum	−12.30 (0.26, m)	Suo 2021a
99		hyperbenzone A[c]	H. beanii	−4 (0.2, m)	Lu 2021
100		hyperbenzone B[c]	H. beanii	+12 (0.1, m)	Lu 2021
101		spirohypolactone A[c]	H. perforatum	+65.6 (0.6, m)	Y. Guo 2019a
102
102.1	R1 = i-Pr R2 = CH2CH2CH=CMe2	spirohypolactone B[c]	H. perforatum	+43.5 (0.6, m)	Y. Guo 2019a
102.2	R1 = s-Bu R2 = CH2CH2CH=CMe2	norhyperpalum H[c][e]	H. patulum	+44.3 (0.5, m)	Y. Duan 2021b
102.3	R1 = Ph R2 = (E)-CH=CHCH=CMe2	hyperisenin B[c]	H. seniawinii	+48.8 (0.3, m)	Y. Duan 2025
103
103.1	R = i-Pr X = H	norhyperpalum I[c]	H. patulum	−9.6 (0.6, m)	Y. Duan 2021b
103.2	R = i-Pr X = OH	hyperhexanone C[c]	H. perforatum	−17.8 (0.6, m)	Y. Guo 2019a
103.3	R = s-Bu X = OH	hyperhexanone D[c][e]	H. perforatum	−30.3 (0.4, m)	Y. Guo 2019a
104		hyperhexanone E[c]	H. perforatum	−139.0 (0.3, m)	Y. Guo 2019a
105
105.1	R = prenyl	norsampsone A[c]	H. sampsonii	+23.4 (0.50)	W.-J. Tian 2014a
105.2	R = geranyl	norsampsone C[c]	H. sampsonii	+26.0 (0.50)	W.-J. Tian 2014a
105.3	R = lavandulyl	norgarmultinone A[c][e]	G. multiflora	+77.78 (0.02, m)	Teng 2020
106
106.1	R = prenyl	norsampsone B[c]	H. sampsonii	−28.6 (0.50)	W.-J. Tian 2014a
106.2	R = geranyl	norsampsone D[c]	H. sampsonii	−28.2 (0.50)	W.-J. Tian 2014a
107		norwilsonnol B[d]	H. wilsonii	+111.0 (0.5, m)	Xie 2021
108		hyperisenin A[d]	H. seniawinii	+42.0 (0.1, m)	Y. Duan 2025
109		hypertum B[c]	H. perforatum	−9.5 (0.15, m)	W.-Y. Liu 2025b
110		norwilsonnol A[c]	H. wilsonii	−174.0 (0.7, m)	Xie 2021
111		hyperwilsol A[c]	H. wilsonii	−5.55 (0.08, m)	Z.-X. Wang 2025
112		hypseudohenrin H[c]	H. wilsonii	−8.56 (1.29, m)	M.-X. Sun 2024
113		hypertum C[c]	H. perforatum	−26.8 (0.05, m)	W.-Y. Liu 2025b
114
114.1	R1 = X1 = OMe R2 = X2 = H	hypertum D[c]	H. perforatum	mixture with hypertum E: −40.1 (0.1, m)	W.-Y. Liu 2025b
114.2	R1 = X1 = H R2 = X2 = OMe	hypertum E[c]	H. perforatum	mixture with hypertum D: −40.1 (0.1, m)	W.-Y. Liu 2025b
115		norgarmultinone B[c]	G. multiflora	+43.37 (0.07, m)	Teng 2020
116		hypseudohenrin C[c]	H. pseudohenryi	+10.5 (1.14, m)	H. Sun 2021b
117		hyperwilsol D[c]	H. wilsonii	−81.55 (0.04, m)	Z.-X. Wang 2025
118		hypseudohenrin D[c]	H. pseudohenryi	+10.9 (1.29, m)	H. Sun 2021b
119
119.1	R1 = i-Pr R2 = H	garcinielliptone O	G. subelliptica	−277 (0.16)	Weng 2004
119.2	R1 = i-Pr R2 = prenyl	no common name	H. perforatum	+95.5 (1.1)	M. D. Shan 2001
119.3	R1 = (R)-s-Bu R2 = prenyl	hyperwilsol C[c]	H. wilsonii	+93.99 (0.05, m)	Z.-X. Wang 2025
119.4	R1 = Ph R2 = H	hyperibrin G[d]	H. scabrum	+80.2 (0.06, m)	J. Hu 2017
120
120.1	R = i-Pr	hypertum F[c]	H. perforatum	+40.2 (0.02, m)	W.-Y. Liu 2025b
120.2	R = (S)-s-Bu	hypertum G[c]	H. perforatum	+49.5 (0.02, m)	W.-Y. Liu 2025b
121		spirohypertone B[c]	H. patulum	−15.2 (0.1, m)	Y. Duan 2024b
122
122.1	R = CO2Me	hypseudohenrin A[c]	H. pseudohenryi	+9.8 (1.43, m)	H. Sun 2021b
122.2	R = H	hypseudohenrin B[c]	H. pseudohenryi	+12.9 (1.86, m)	H. Sun 2021b
123
123.1	R1 = i-Pr R2 = Me R3 = prenyl X = H	hyperibrin A[c]	H. scabrum	+37.0 (0.05, m)	W. Gao 2016c
123.2	R1 = i-Pr R2 = Me R3 = prenyl X = OH	hyperibrin B, a.k.a. hypermonone I[c]	H. monogynum, H. scabrum	+53.2 (0.08, m), +46.03 (0.08, m)	W. Gao 2016c, X. Wang 2021b, Y.-R. Zeng 2021c
123.3	R1 = i-Pr R2 = Me R3 = prenyl X = OOH	hyperscabrone H[c]	H. scabrum	+8.3 (0.1, m)	W. Gao 2016a, X. Wang 2021b
123.4	R1 = i-Pr R2 = prenyl R3 = H X = H	garcinielliptone N	G. subelliptica	−42 (0.38)	Weng 2004
123.5	R1 = i-Pr R2 = prenyl R3 = prenyl X = H	no common name	H. perforatum	+18.3 (1.8)	M. D. Shan 2001
123.6	R1 = i-Bu R2 = Me R3 = (E)-CH=CHCMe2OH X = H	ascynol F[c]	H. ascyron	+22 (0.1, m)	Y.-L. Hu 2025
123.7	R1 = s-Bu R2 = Me R3 = prenyl X = H	hypermonone H[c]	H. monogynum	+7.88 0.24, m)	Y.-R. Zeng 2021c
123.8	R1 = s-Bu R2 = Me R3 = prenyl X = OOH	hyperscabrone I[c][e]	H. scabrum	+24 (0.1, m)	W. Gao 2016a, X. Wang 2021b
123.9	R1 = Ph R2 = Me R3 = prenyl X = H	norascyronone C	H. ascyron	+15 (0.1, m)	Y.-L. Hu 2019
123.10	R1 = Ph R2 = prenyl R3 = prenyl X = H	hypseudohenrin E[c]	H. pseudohenryi	+4.96 (3.43, m)	H. Sun 2021b
123.11	R1 = Ph R2 = geranyl R3 = H X = H	hyperhexanone B[c]	H. sampsonii	−14.6 (0.15)	Zhu 2016
124
124.1	R1 = i-Pr R2 = H	hyperscabrin A[c]	H. scabrum	−85.1 (0.06, mc)	J. Ma 2012
124.2	R1 = i-Pr R2 = prenyl	hyperscabin K[d]	H. scabrum	−198.3 (0.17, mc)	J. Ma 2021b
124.3	R1 = s-Bu R2 = prenyl	hyperscabin L[d][e]	H. scabrum	−178.4 (0.19, mc)	J. Ma 2021b
125		hyperscabin J[c]	H. scabrum	+36.6 (0.07, mc)	J. Ma 2021b
126
126.1	R = i-Pr	hyperscabrin B[c]	H. scabrum	+27.6 (0.08, mc)	J. Ma 2012
126.2	R = s-Bu	hyperscabrin C[c][e]	H. scabrum	+22.4 (0.10, mc)	J. Ma 2012
127		norhypersampsone A	H. sampsonii	−40.0 (0.5)	J.-S. Zhang 2017
128
128.1	R1 = i-Pr R2 = Me	yezo'otogirin C[c]	H. yezoense	−57.2 (0.05)	Tanaka 2009b
128.2	R1 = i-Pr R2 = prenyl	yezo'otogirin A[c]	H. yezoense	−168.2 (0.25)	Tanaka 2009b
128.3	R1 = i-Bu R2 = Me	ascynol E[c]	H. ascyron	−39 (0.2, m)	Y.-L. Hu 2025
128.4	R1 = (S)-s-Bu R2 = Me	hypermogin A[c]	H. monogynum	−164.7 (0.2, m)	Y.-R. Zeng 2021a
128.5	R1 = (S)-s-Bu R2 = prenyl	yezo'otogirin B[c]	H. yezoense	−165.7 (0.15)	Tanaka 2009b
129
129.1	R = i-Pr	hypermogin C[c]	H. monogynum	−48.9 (0.12, m)	Y.-R. Zeng 2021a
129.2	R = (S)-s-Bu	hypermogin B[c]	H. monogynum	−38.0 (0.2, m)	Y.-R. Zeng 2021a
130		hypermogin D[c]	H. monogynum	−32.0 (0.2, m)	Y.-R. Zeng 2021a
131		ascynol D[c]	H. ascyron	−31 (0.1, m)	Y.-L. Hu 2025
132		ascynol B[c]	H. ascyron	+17 (0.1, m)	Y.-L. Hu 2025
133		ascynol C[c]	H. ascyron	−82 (0.06, m)	Y.-L. Hu 2025
134		ascynol A[c]	H. ascyron	−42.6 (0.06, m)	Y.-L. Hu 2025
135
135.1	X = H	norascyronone A[c]	H. ascyron	+68 (0.2, m)	Y.-L. Hu 2019
135.2	X = OH	norascyronone B[c]	H. ascyron	+22 (0.2, m)	Y.-L. Hu 2019
136		norprzewalsone A[c]	H. przewalskii	+76.7 (0.4, m)	Y. Duan 2022b
137		hyperforatum A[c]	H. perforatum	+2 (0.1, m)	X. Wang 2024
138		hyperforatum B[e]	H. perforatum	+7.5 (1.00, m)	X. Wang 2024
139		hyperforatum C[e]	H. perforatum	+5.9 (0.35, m)	X. Wang 2024
140
140.1	R = i-Pr	hyperforone I[c]	H. perforatum	+60.9 (0.6, m)	Y. Guo 2021b
140.2	R = s-Bu	norprzewalsone B[c][e]	H. przewalskii	+48.4 (0.3, m)	Y. Duan 2022b
141		hyperforone J[c]	H. perforatum	−110.0 (0.3, m)	Y. Guo 2021b
142
142.1	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = (S)-3,3-dimethyloxiran-2-yl	hookerione C[d]	H. hookerianum	+2 (0.25, m)	Ye 2016
142.2	R1 = i-Pr R2 = geranyl R3 = prenyl R4 = CH=CMe2	hypersubone C[d]	H. subsessile	−13.3 (3.20, m)	Liao 2015
142.3	R1 = i-Pr R2 = geranyl R3 = prenyl R4 = (R)-3,3-dimethyloxiran-2-yl	hookerione A[d]	H. hookerianum	+5 (0.25, m)	Ye 2016
142.4	R1 = i-Pr R2 = geranyl R3 = prenyl R4 = (S)-3,3-dimethyloxiran-2-yl	hookerione B[d]	H. hookerianum	+32 (0.11, m)	Ye 2016
142.5	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = (R)-3,3-dimethyloxiran-2-yl	hirsuton B[d]	H. hirsutum	+6.6 (0.30, m)	Max 2021
142.6	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = (S)-3,3-dimethyloxiran-2-yl	hirsuton A[d]	H. hirsutum	+3.7 (0.83, m)	Max 2021
142.7	R1 = s-Bu R2 = geranyl R3 = prenyl R4 = (S)-3,3-dimethyloxiran-2-yl	hookerione D[d][e]	H. hookerianum	−27 (0.13, m)	Ye 2016
142.8	R1 = Ph R2 = prenyl R3 = prenyl R4 = CH=CMe2	plukenetione A	C. plukenetii	+1 (0.8)	Henry 1996
142.9	R1 = Ph R2 = prenyl R3 = prenyl R4 = (R)-3,3-dimethyloxiran-2-yl	(−)-28,29-epoxyplukenetione A[c]	C. havetiodes var. stenocarpa, C. obdeltifolia	−4.4 (1.0)	Christian 2001, Teixeira 2005
142.10	R1 = Ph R2 = prenyl R3 = prenyl R4 = (R)-3,3-dimethyloxiran-2-yl	(+)-28,29-epoxyplukenetione A[d] (enantiomer)	H. sampsonii	+8.8 (0.54)	Zhu 2014
142.11	R1 = Ph R2 = (Z)-CH=CHCMe2OH R3 = prenyl R4 = (S)-3,3-dimethyloxiran-2-yl	wilsonglucinol H[d]	H. wilsonii	+2.4 (0.5, m)	H. Cheng 2022a
142.12	R1 = Ph R2 = prenyl R3 = prenyl R4 = (S)-3,3-dimethyloxiran-2-yl	sampsonione Q[d]	H. sampsonii	−9.65 (0.401)	Xiao 2007
142.13	R1 = Ph R2 = prenyl R3 = prenyl R4 = (S,S)-3-prenylmethyl-3-methyloxiran-2-yl	hyperandrone A	H. androsaemum	+20.9 (0.25, m)	K. Wang 2012, X.-W. Yang 2018
142.14	R1 = Ph R2 = prenyl R3 = (E)-4-oxo-3-methyl-2-buten-1-yl R4 = (S)-3,3-dimethyloxiran-2-yl	hyperwilone A[d]	H. wilsonii	+39.3 (0.65)	Hao 2021
142.15	R1 = Ph R2 = (E,R,R)-3,5-dimethyl-1-hepten-1-yl R3 = (E,E)-6-oxo-3,4-dimethyl-2,4-hexadien-1-yl R4 = CH=CMe2	sinaicinone	H. sinaicum	+37.5 (0.17, mc)	Řezanka 2007
142.16	R1 = Ph R2 = geranyl R3 = prenyl R4 = CH=CMe2	otogirinin A	H. erectum Thunb., H. attenuatum	− 8.1 (0.08, m)	Ishida 2010, D. Li 2015a
142.17	R1 = Ph R2 = geranyl R3 = prenyl R4 = (S)-3,3-dimethyloxiran-2-yl	sampsonione J[d]	H. sampsonii	+1.48 (0.2)	L.-H. Hu 1999a, Zhu 2014
142.18	R1 = Ph R2 = geranyl R3 = prenyl R4 = (R)-3,3-dimethyloxiran-2-yl	hyperisampsin G[d]	H. sampsonii	−8.7 (0.80)	Zhu 2014
142.19	R1 = Ph R2 = (R)-lavandulyl[f] R3 = prenyl R4 = CH=CMe2	garcimultiflorone N[c][t][u][x]	G. multiflora	−28.9 (0.090, m)	Z.-Q. Wang 2018
142.20	R1 = Ph R2 = lavandulyl R3 = prenyl R4 = (R)-3,3-dimethyloxiran-2-yl	epi-isosampsonione J[d][e]	G. multiflora	+55.0 (0.02, m)	Y. Chen 2019a
142.21	R1 = Ph R2 = lavandulyl R3 = prenyl R4 = (S)-3,3-dimethyloxiran-2-yl	garcimultiflorone D, a.k.a. isosampsonione J[e] (one of two by the first name)	G. multiflora	+5.6 (0.12)	Ting 2012, Y. Chen 2019a
142.22	R1 = Ph R2 = (E,E)-7-hydroxy-3,7-dimethyl-2,5-octadienyl R3 = prenyl R4 = (R)-3,3-dimethyloxiran-2-yl	hypersubone D[d]	H. subsessile	−32.8 (0.07, m)	T.-W. Cao 2020
142.23	R1 = Ph R2 = (E)-5-(3,3-dimethyloxiran-2-yl)-3-methyl-2-penten-1-yl R3 = prenyl R4 = (R)-3,3-dimethyloxiran-2-yl	hypersubone E[d][e]	H. subsessile	−12.7 (0.27, m)	T.-W. Cao 2020
143
143.1	R = prenyl	cumilcinol G[d]	H. wilsonii	+104.7 (0.2, m)	B. Tao 2024a
143.2	R = geranyl	hyperattenin J[d]	H. attenuatum Choisy	+23.8 (0.3, m)	D. Li 2015b
144		hyperadaman D[d]	H. wilsonii	+47.7 (0.2, m)	B. Tao 2024b
145		wilsonglucinol I[d]	H. wilsonii	+20.9 (0.25, m)	H. Cheng 2022a
146		garciyunnanone G[d]	G. yunnan Hu	+4.4 (0.1, m)	M. Nan 2024
147
147.1	R = i-Pr	hyperadaman G[d]	H. wilsonii	+43.2 (0.2, m)	B. Tao 2024b
147.2	R = Ph	hyperadaman F[d]	H. wilsonii	+87.7 (0.6, m)	B. Tao 2024b
148
148.1	R = CH2COCHMe2	hyperadaman B[d]	H. wilsonii	+5.7 (0.2, m)	B. Tao 2024b
148.2	R = CH2COC(Me)=CH2	hyperadaman A[d]	H. wilsonii	+17.0 (0.1, m)	B. Tao 2024b
149		hyperadaman E[d][z]	H. wilsonii	+86.0 (0.2, m)	B. Tao 2024b
150
150.1	R1 = geranyl R2 = i-Pr X = OH	hyperisampsin B[d]	H. sampsonii	+2.6 (0.08)	Zhu 2014
150.2	R1 = geranyl R2 = i-Pr X = OOH	hyperattenin L[d]	H. attenuatum	−1.7 (0.42)	D. Li 2018
150.3	R1 = lavandulyl[f] R2 = H X = OOH	garciyunnanone D[d][e]	G. yunnan Hu	−5.4 (0.2, m)	M. Nan 2024
151
151.1	R1 = i-Pr R2 = prenyl X = OH	hyperihirsolin A	H. hirsutum	−25.3 (0.62, m)	Max 2021
151.2	R1 = s-Bu R2 = prenyl X = OH	hyperihirsolin B[e]	H. hirsutum	−13.0 (0.90, m)	Max 2021
151.3	R1 = Ph R2 = prenyl X = OH	hyperesternoid L[d]	H. monogynum	−32.2 (0.2, m)	Z. Dong 2026
151.4	R1 = Ph R2 = geranyl X = OH	hyperisampsin A[d]	H. sampsonii	−25.9 (0.16)	Zhu 2014
151.5	R1 = Ph R2 = (R)-lavandulyl[f] X = OH	garcimultiflorone O[c][t][v][x]	G. multiflora	+1.4 (0.73, m)	Z.-Q. Wang 2018
151.6	R1 = Ph R2 = lavandulyl[f] X = OOH	garciyunnanone C[d][e]	G. yunnan Hu	−5.4 (0.2, m)	M. Nan 2024
152
152.1	R = prenyl	hypersampsonone M[d]	H. sampsonii	+10 (1.0, m)	Y. Li 2023
152.2	R = geranyl	hyperisampsin C[d]	H. sampsonii	−19.7 (0.30)	Zhu 2014
152.3	R = lavandulyl	isohyperisampsin C[c][e]	G. multiflora	+93.3 (0.02, m)	Y. Chen 2019a
152.4	R = (R)-lavandulyl[f]	garciyunnanone E[d]	G. yunnan Hu	+8.0 (0.2, m)	M. Nan 2024
153		hyperadaman C[d]	H. wilsonii	+36.2 (0.2, m)	B. Tao 2024b
154
154.1	R = prenyl X = OH	hyperesternoid M[d]	H. monogynum	−42.8 (0.1, m)	Z. Dong 2026
154.2	R = geranyl X = OOH	hyperisampsin D[d]	H. sampsonii	−25.1 (0.12)	Zhu 2014
155
155.1	R = prenyl X = OOH	hyperesternoid N[d]	H. monogynum	−38.8 (0.2, m)	Z. Dong 2026
155.2	R = geranyl X = OH	hypersubone B[d]	H. subsessile	−52.2 (0.09, m)	Liao 2015
155.3	R = lavandulyl X = OOH	garciyunnanone F[d]	G. yunnan Hu	−63.2 (0.2, m)	M. Nan 2024
156
156.1	R1 = i-Pr R2 = prenyl R3 = CMe=CH2 X = OH	cumilcinol H[d]	H. wilsonii	−6.6 (0.5, m)	B. Tao 2024a
156.2	R1 = Ph R2 = prenyl R3 = CMe=CH2 X = OH	hyperisampsin E[d]	H. sampsonii	+9.5 (0.23, m)	Zhu 2014
156.3	R1 = Ph R2 = prenyl R3 = CMe2OH X = H	no common name	C. obdeltifolia	+10.0 (0.4)	Teixeira 2005
156.4	R1 = Ph R2 = prenyl R3 = CMe2OH X = OH	hyperisampsin F[d]	H. sampsonii	+2.0 (0.10, m)	Zhu 2014
156.5	R1 = Ph R2 = geranyl R3 = CMe=CH2 X = OH	sampsonione I[d]	H. sampsonii	+16.88 (0.1)	L.-H. Hu 1999a, Zhu 2014
156.6	R1 = Ph R2 = (R)-lavandulyl[f] R3 = CMe=CH2 X = OH	garciyunnanone A[d]	G. yunnan Hu	+6.6 (0.1, m)	M. Nan 2024
157		garciyunnanone B[d][e]	G. yunnan Hu	+27.5 (0.2, m)	M. Nan 2024
158
158.1	R = i-Pr	hyperesternoid I[d]	H. monogynum	−27.9 (0.2, m)	Z. Dong 2026
158.2	R = i-Bu	hyperesternoid J[d]	H. monogynum	−31.7 (0.2, m)	Z. Dong 2026
158.3	R = (R)-s-Bu	hyperesternoid K[d]	H. monogynum	−25.8 (0.2, m)	Z. Dong 2026
159		hyperesternoid G[d]	H. kouytchemse	−53.9 (0.3, m)	Z. Dong 2026
160		hyperesternoid H[d]	H. kouytchemse	−78.4 (0.2, m)	Z. Dong 2026
161
161.1	R1 = prenyl R2 = CO2Me R3 = (S)-3,3-dimethyloxiran-2-yl	hookerione G[d]	H. hookerianum	−213 (0.25, m)	Ye 2016
161.2	R1 = geranyl R2 = H R3 = (S)-3,3-dimethyloxiran-2-yl	hookerione H[d]	H. hookerianum	−152 (0.14, m)	Ye 2016
161.3	R1 = geranyl R2 = CO2Me R3 = CH=CMe2	hypersubone A[d]	H. subsessile	−142.5 (0.09, m)	Liao 2015
161.4	R1 = geranyl R2 = CO2Me R3 = (R)-3,3-dimethyloxiran-2-yl	hookerione E[d]	H. hookerianum	−146 (0.16, m)	Ye 2016
161.5	R1 = geranyl R2 = CO2Me R3 = (S)-3,3-dimethyloxiran-2-yl	hookerione F[d]	H. hookerianum	−198 (0.12, m)	Ye 2016
162		cumilcinol I[d]	H. wilsonii	+108.5 (0.2, m)	B. Tao 2024a
163
163.1	R = H	patumantane C[d]	H. patulum	−190.7 (0.1, m)	Y. Duan 2024c
163.2	R = CO2Me	patumantane B[d]	H. patulum	−68.0 (0.1, acn)	Y. Duan 2024c
164		patumantane D[d]	H. patulum	−75.3 (0.1, m)	Y. Duan 2024c
165
165.1	R1 = i-Pr R2 = prenyl R3 = CMe2OH R4 = prenyl	hirsutofolin A	H. hirsutum	+5.8 (0.65, m)	Max 2021
165.2	R1 = i-Pr R2 = prenyl R3 = CMe2OOH R4 = prenyl	peroxyhirsutofolin A	H. hirsutum	+12.0 (0.79, m)	Max 2021
165.3	R1 = i-Pr R2 = prenyl R3 = CMe2OOH R4 = prenyl	hyperesternoid V[d] (prob. enantiomer)	H. monogynum	−35.2 (0.1, m)	Z. Dong 2026
165.4	R1 = i-Pr R2 = geranyl R3 = CMe2OH R4 = prenyl	hyperacmosin F	H. acmosepalum	−16.3 (0.10, m)	X. Wang 2020a
165.5	R1 = i-Bu R2 = prenyl R3 = CMe2OH R4 = prenyl	hyperesternoid T[d]	H. monogynum	−43.3 (0.2, m)	Z. Dong 2026
165.6	R1 = i-Bu R2 = prenyl R3 = CMe2OOH R4 = prenyl	hyperesternoid U[d]	H. monogynum	−45.2 (0.1, m)	Z. Dong 2026
165.7	R1 = s-Bu R2 = prenyl R3 = CMe2OH R4 = prenyl	hirsutofolin B[d][e]	H. hirsutum	−12.8 (1.15, m)	Max 2021
165.8	R1 = s-Bu R2 = prenyl R3 = CMe2OH R4 = prenyl	hyperwilone B[c][e] (prob. enantiomer)	H. wilsonii	+51.1 (0.50)	Hao 2021
165.9	R1 = (R)-s-Bu R2 = prenyl R3 = CMe2OOH R4 = prenyl	hyperesternoid W[d]	H. monogynum	−39.9 (0.1, m)	Z. Dong 2026
165.10	R1 = s-Bu R2 = prenyl R3 = CMe2OH R4 = E-CH=CHCMe2OOH	3‴-hydroperoxyisohirsutofolin B[e]	H. hirsutum	+20.1 (0.52, m)	Max 2021
165.11	R1 = Ph R2 = prenyl R3 = CMe2OH R4 = prenyl	sampsonione R	C. obdeltifolia, H. sampsonii, H. attenuatum	+10.8 (0.011)	Cruz 2004, Xiao 2007, D. Li 2015a
165.12	R1 = Ph R2 = prenyl R3 = CMe2OOH R4 = prenyl	hyperesternoid X[d]	H. monogynum	−42.3 (0.1, m)	Z. Dong 2026
165.13	R1 = Ph R2 = geranyl R3 = CMe2OH R4 = prenyl	otogirinin C	H. erectum Thunb.	NR	Ishida 2010
165.14	R1 = Ph R2 = lavandulyl R3 = CMe=CH2 R4 = OH	epi-garcimultiflorone P[d][e]	G. multiflora	+5.32 (0.02, m)	Teng 2019
166
166.1	R1 = i-Pr R2 = geranyl R3 = CMe2OH R4 = prenyl	pseudohenone F	H. pseudohenryi N. Robson	−7 (0.10, m)	X.-W. Yang 2017b
166.2	R1 = s-Bu R2 = geranyl R3 = CMe2OH R4 = prenyl	pseudohenone G[e]	H. pseudohenryi N. Robson	−8 (0.15, m)	X.-W. Yang 2017b
166.3	R1 = Ph R2 = (R)-lavandulyl[f] R3 = CMe=CH2 R4 = OH	garcimultiflorone P[c][t][u][x]	G. multiflora	−5.1 (0.19, m)	Z.-Q. Wang 2018
167		hypersampsone L	H. sampsonii	−67.4 (0.098)	Y. H. Zeng 2012
168		hypersampsone S (one of two by that name)	H. sampsonii	+33 (0.3)	J.-J. Chen 2014
169
169.1	R = prenyl	hypseudohenone B[d]	H. pseudohenryi	+13.5 (0.147, m)	N.-N. Jiang 2023
169.2	R = geranyl	hypseudohenone C[d]	H. pseudohenryi	+13.1 (0.106, m)	N.-N. Jiang 2023
170		hypseudohenone A[d]	H. pseudohenryi	+19.6 (0.222, m)	N.-N. Jiang 2023
171		patumantane A[d]	H. patulum	−56.9 (0.1, m)	Y. Duan 2024c
172
172.1	R1 = C(=O)i-Pr R2 = geranyl	norsampsone E[d]	H. sampsonii	−63.0 (0.30)	W.-J. Tian 2017
172.2	R1 = C(=O)Ph R2 = geranyl	hyperacmosin E	H. acmosepalum	−57.6 (0.175)	X. Wang 2020a
172.3	R1 = (R)-CHPhCH2CO2H R2 = prenyl	lathrophytoic acid A	Kielmeyera lathrophyton	+15 (0.23, m)	de Almeida 2011
173
173.1	R = prenyl	hypersampsone N[d]	H. sampsonii	+34.4 (0.50)	W.-J. Tian 2014b
173.2	R = geranyl	hypersampsonone E[d]	H. sampsonii	+3.21 (1.06)	J.-S. Zhang 2016
174
174.1	R1 = i-Pr R2 = prenyl R3 = E-CH=CHCMe2OH	3‴-hydroxyisohirsutuman A	H. hirsutum	&minus35.2 (0.13, m)	Max 2021
174.2	R1 = i-Pr R2 = geranyl R3 = prenyl	hyperwilsol B[d]	H. wilsonii	−72.34 (0.05, m)	Z.-X. Wang 2025
174.3	R1 = s-Bu R2 = prenyl R3 = prenyl	hirsutuman B[e]	H. hirsutum	−61.9 (0.68, m)	Max 2021
174.4	R1 = s-Bu R2 = prenyl R3 = E-CH=CHCMe2OH	3‴-hydroxyisohirsutuman B[e]	H. hirsutum	−69.5 (0.19, m)	Max 2021
174.5	R1 = Ph R2 = prenyl R3 = prenyl	sampsonione B	C. obdeltifolia, G. propinqua, H. sampsonii	+10.0 (0.018)	L.-H. Hu 1998, Cruz 2004, Sriyatep 2017
174.6	R1 = Ph R2 = prenyl R3 = CH2CH2CMe2OH	no common name	C. obdeltifolia	−5.1 (0.012)	Cruz 2004
174.7	R1 = Ph R2 = prenyl R3 = (E)-CH=CHCMe2OH	hyphenrone M	H. sampsonii	−82 (0.2, m)	X.-W. Yang 2015
174.8	R1 = Ph R2 = (R)-CH2CHOHCMe2OH R3 = prenyl	wilsonglucinol J[c]	H. wilsonii	+10.7 (0.5, m)	H. Cheng 2022a
174.9	R1 = Ph R2 = geranyl R3 = prenyl	sampsonione A	H. sampsonii	−49 (0.4)	L.-H. Hu 1998
174.10	R1 = Ph R2 = geranyl R3 = (E)-CH=CHCMe2OH	hyphenrone N	H. sampsonii	−89 (0.2, m)	X.-W. Yang 2015
174.11	R1 = Ph R2 = geranyl R3 = (E)-CH=CHCMe2OMe	hypersampsonone D[d]	H. sampsonii	−66.2 (0.52)	J.-S. Zhang 2016
175
175.1	R1 = i-Pr R2 = prenyl	hyperhomanoon A[d]	H. patulum	+6.2 (0.3, m)	B. Tao 2025
175.2	R1 = (S)-s-Bu R2 = prenyl	hyperhomanoon B[d]	H. patulum	+45.0 (0.1, m)	B. Tao 2025
175.3	R1 = Ph R2 = prenyl	hypersampsone O[d]	H. sampsonii	+15.2 (0.50)	W.-J. Tian 2014b
175.4	R1 = Ph R2 = geranyl	hyphenrone O	H. sampsonii	−9 (0.1, m)	X.-W. Yang 2015
175.5	R1 = Ph R2 = (R)-lavandulyl[f]	garciyunnanone R[d]	G. yunnan Hu	+9.2 (0.05, m)	M. Nan 2024
176		hyperhomanoon E[d]	H. patulum	−2.90 (0.5, m)	B. Tao 2025
177
177.1	R = prenyl	hyperhomanoon D[d]	H. patulum	+95.3 (0.4, m)	B. Tao 2025
177.2	R = geranyl	hyperhomanoon C[d]	H. patulum	+26.2 (0.4, acn)	B. Tao 2025
178
178.1	R1 = i-Pr R2 = prenyl R3 = CMe2OH	hyperihirsan B	H. hirsutum	+47.9 (0.18, m)	Max 2021
178.2	R1 = i-Pr R2 = geranyl R3 = CMe2OH	hypersubone G[d]	H. subsessile	+37.5 (0.13, m)	T.-W. Cao 2020
178.3	R1 = i-Pr R2 = geranyl R3 = CMe2OOH	hypersubone H[d]	H. subsessile	+89.3 (0.08, m)	T.-W. Cao 2020
178.4	R1 = Ph R2 = prenyl R3 = CMe2OH	plukenetione C	C. plukenetii, H. sampsonii	+65.9 (0.1)	Henry 1999, Christian 2001, Xiao 2010
178.5	R1 = Ph R2 = prenyl R3 = CMe2OOH	peroxysampsone A	H. sampsonii	+17.0 (0.128)	Xiao 2010
178.6	R1 = Ph R2 = (E)-CH=CHCMe2OOH R3 = CMe2OH	33-hydroperoxyisoplukenetione C	C. havetiodes var. stenocarpa	−3.9 (0.2)	Christian 2001
178.7	R1 = Ph R2 = geranyl R3 = CMe2OH	otogirinin B	H. erectum Thunb., H. attenuatum	+12.0 (0.14, m)	Ishida 2010, D. Li 2015a
178.8	R1 = Ph R2 = geranyl R3 = CMe2OOH	hyperisampsin O[d]	H. sampsonii	+12 (0.2, m)	Zhu 2017
178.9	R1 = Ph R2 = lavandulyl R3 = OH	garcimultinone B[d][e]	G. multiflora	+28.3 (0.04, m)	Y. Chen 2019a
178.10	R1 = Ph R2 = lavandulyl R3 = CMe2OH	garcimultiflorone G[e]	G. multiflora	+5.6 (0.12)	Ting 2014
178.11	R1 = Ph R2 = lavandulyl R3 = CMe2OOH	isohyperisampsin O[d][e]	G. multiflora	+22.4 (0.06, m)	Y. Chen 2019a
178.12	R1 = Ph R2 = (2S,3E)-CH2CH(CMe=CH2)CH=CHCMe2OOH R3 = CMe2OH	garcimultiflorone Q[c][t][u][x]	G. multiflora	−11.1 (0.21, m)	Z.-Q. Wang 2018
179
179.1	R = geranyl X = H	hypersubone F[d]	H. subsessile	−73.4 (0.12, m)	T.-W. Cao 2020
179.2	R = geranyl X = OH	hyperisampsin N[d]	H. sampsonii	−31 (0.1)	Zhu 2017
179.3	R = geranyl X = OOH	hyperbeanin G[c]	H. beanii	−40.0 (0.08, m)	Y. Ma 2022a
179.4	R = lavandulyl X = OH	garcimultinone N[d]	G. multiflora	+12.59 (0.04, m)	Teng 2021
180		peroxysampsone B	H. sampsonii, H. attenuatum	−41.2 (0.042)	Xiao 2010, D. Li 2015a
181
181.1	R = i-Pr	pyranohyperihirsan A	H. hirsutum	−24.7, (0.29, m)	Max 2021
181.2	R = s-Bu	pyranohyperihirsan B[e]	H. hirsutum	−30.7 (0.25, m)	Max 2021
182		hyperattenin M[d][s]	H. attenuatum	−24.1 (0.19, m)	D. Li 2018
183
183.1	R = geranyl	hypersampsonone B[d]	H. sampsonii	+14.9 (0.35)	J.-S. Zhang 2016
183.2	R = lavandulyl	isohypersampsonone B[d][e] (inseparably mixed with epi-isohypersampsonone B, epimer at hemiacetal, in 5:1 ratio)	G. multiflora	+60.0 (0.01, m)	Y. Chen 2019a
184		hyperesternoid Y[d]	H. monogynum	−42.3 (0.1, m)	Z. Dong 2026
185		hyperesternoid Z[d]	H. monogynum	−48.7 (0.1, m)	Z. Dong 2026
186		wilsonglucinol A[d]	H. wilsonii	−14.4 (0.63, m)	Y. Zhang 2020
187
187.1	R1 = i-Pr R2 = prenyl	wilsonglucinol C[d]	H. wilsonii	−94.8 (0.84, m)	Y. Zhang 2020
187.2	R1 = s-Bu R2 = prenyl	cumilcinol C[d][e]	H. wilsonii	−137.0 (0.1, m)	B. Tao 2024a
187.3	R1 = Ph R2 = prenyl	wilsonglucinol B[d]	H. wilsonii	−51.2 (0.73, m)	Y. Zhang 2020
187.4	R1 = Ph R2 = (E)-CH=CHCMe2OH	wilsonglucinol K, a.k.a. hypersampsone Y[d]	H. wilsonii	−4.0 (0.5, m), −74.0 (0.1, m)	H. Cheng 2022a, J. Cao 2024
188		garcimultinone C[d][e]	G. multiflora	−59.4 (0.02, m)	Teng 2019
189
189.1	R = i-Bu	hyperesternoid D[d]	H. monogynum	−69.8 (0.3, m)	Z. Dong 2026
189.2	R = (R)-s-Bu	hyperesternoid E[d]	H. monogynum	−58.7 (0.3, m)	Z. Dong 2026
190		hyperesternoid F[d]	H. monogynum	−87.2 (0.3, m)	Z. Dong 2026
191
191.1	R1 = i-Pr R2 = prenyl	cumilcinol A[d]	H. wilsonii	+170.8 (0.3, m)	B. Tao 2024a
191.2	R1 = Ph R2 = prenyl	dioxasampsone B[d]	H. sampsonii	+77.0 (0.50)	W.-J. Tian 2014c
191.3	R1 = Ph R2 = geranyl	hypersampsonone C[d]	H. sampsonii	+6.7 (0.15)	J.-S. Zhang 2016
191.4	R1 = Ph R2 = lavandulyl	isohypersampsonone C[d][e]	G. multiflora	+81.7 (0.02, m)	Y. Chen 2019a
192
192.1	R1 = i-Pr R2 = geranyl X = H2	hookerione Q	H. hookerianum	+11.2 (0.12, m)	Ye 2019
192.2	R1 = Ph R2 = prenyl X = H2	hypersampsone M[d]	G. propinqua, H. sampsonii	+56.6 (0.50)	W.-J. Tian 2014a, Sriyatep 2017
192.3	R1 = Ph R2 = prenyl X = O	pseudohenone C	H. pseudohenryi N. Robson	−5 (0.24, m)	X.-W. Yang 2017b
192.4	R1 = Ph R2 = (E)-4-oxoprenyl X = H2	pseudohenone B	H. pseudohenryi N. Robson	+7 (0.10, m)	X.-W. Yang 2017b
192.5	R1 = Ph R2 = geranyl X = H2	hypersampsone I	H. sampsonii	+18.6 (0.262)	Y. H. Zeng 2012
192.6	R1 = Ph R2 = geranyl X = O	sampsonione E	H. sampsonii, H. attenuatum	+57.7 (0.03)	L.-H. Hu 1999b, D. Li 2015a
192.7	R1 = Ph R2 = lavandulyl X = O	garciyunnanone I[d][e]	G. yunnan Hu	+2 (0.1, m)	M. Nan 2024
193
193.1	R1 = i-Pr R2 = geranyl X = H2	hypersampsone C	H. sampsonii	+14.3 (0.2)	Y.-L. Lin 2003
193.2	R1 = Ph R2 = prenyl X = H2	hypersampsone P[d]	H. sampsonii, H. subsessile	+11.0 (0.3)	W.-J. Tian 2014b, H.-M. Zhou 2020
193.3	R1 = Ph R2 = prenyl X = O	hyperattenin F[d]	H. attenuatum Choisy	−2.9 (0.10, m)	D. Li 2015a
193.4	R1 = Ph R2 = CH2C(=O)CMe=CH2 X = H2	pseudohenone D[d]	H. pseudohenryi N. Robson	+6 (0.28, m)	X.-W. Yang 2017b
193.5	R1 = Ph R2 = geranyl X = H2	sampsonione H	H. sampsonii	+5.15 (0.07)	L.-H. Hu 1999b
193.6	R1 = Ph R2 = geranyl X = O	hyperattenin G[d]	H. attenuatum Choisy	−6.9 (0.16, m)	D. Li 2015a
193.7	R1 = Ph R2 = lavandulyl X = H2	iso-sampsonione H[d][e]	G. multiflora	+11.84 (0.08, m)	Teng 2019
193.8	R1 = Ph R2 = lavandulyl X = O	garciyunnanone J[d][e]	G. yunnan Hu	+5 (0.1, m)	M. Nan 2024
193.9	R1 = Ph R2 = (E)-6,6-dimethoxy-3-methyl-2-hexenyl X = H2	hypercurpalone B[d]	H. curvisepalum	+1.94 (0.10, m)	Y. Ye 2022
194
194.1	R1 = i-Pr R2 = prenyl R3 = i-Pr X = H	hookerione M	H. hookerianum	+68.1 (0.08, m)	Ye 2019
194.2	R1 = i-Pr R2 = prenyl R3 = CMe2OH X = H	wilsonglucinol G[d]	H. wilsonii	+26.3 (0.27, m)	Y. Zhang 2020
194.3	R1 = i-Pr R2 = prenyl R3 = CMe2OOH X = H	hyperesternoid Q[d]	H. monogynum	−22.4 (0.1, m)	Z. Dong 2026
194.4	R1 = i-Pr R2 = geranyl R3 = CMe=CH2 X = H	hypersampsone A	H. sampsonii	+21 (0.3)	Y.-L. Lin 2003
194.5	R1 = s-Bu R2 = prenyl R3 = CMe2OH X = H	hirsutusal C[e]	H. hirsutum	N/A	Max 2021
194.6	R1 = Ph R2 = prenyl R3 = i-Pr X = H	hookerione L	H. hookerianum	+31.4 (0.10, m)	Ye 2019
194.7	R1 = Ph R2 = prenyl R3 = CMe=CH2 X = H	hypersampsone X[d]	H. sampsonii	+27.1 (0.50)	Tian, 2017
194.8	R1 = Ph R2 = prenyl R3 = CMe2OH X = H	plukenetione B	C. plukenetii	+17.2 (0.03)	Henry 1999, Grossman 2000
194.9	R1 = Ph R2 = prenyl R3 = CMe2OOH X = H	hyperbeanin F[c]	H. beanii	+10.0 (0.11, m)	Y. Ma 2022a
194.10	R1 = Ph R2 = prenyl R3 = CMe2OH X = OH	hyperesternoid O[d]	H. monogynum	−45.9 (0.3, m)	Z. Dong 2026
194.11	R1 = Ph R2 = prenyl R3 = OH X = H	hypersampsonone L[d]	H. sampsonii	+10 (1.0, m)	Y. Li 2023
194.12	R1 = Ph R2 = geranyl R3 = i-Pr X = H	hypersampsone D	H. sampsonii	−35 (0.2)	Y.-L. Lin 2003
194.13	R1 = Ph R2 = geranyl R3 = CMe=CH2 X = H	sampsonione D	H. sampsonii	+12.27 (0.156)	L.-H. Hu 1999b
194.14	R1 = Ph R2 = geranyl R3 = CMe2OH X = H	sampsonione C	H. sampsonii, H. attenuatum	+13.39 (0.174)	L.-H. Hu 1999b, D. Li 2015a
194.15	R1 = Ph R2 = geranyl R3 = CMe2OOH X = H	hypersampsonone F[d]	H. sampsonii	+6.73 (1.04)	J.-S. Zhang 2016
194.16	R1 = Ph R2 = geranyl R3 = OH X = H	cumilcinol D[d]	H. wilsonii	−4.9 (0.3, m)	B. Tao 2024a
194.17	R1 = Ph R2 = neryl R3 = i-Pr X = H	hookerione I	H. hookerianum	+24.2 (0.25, m)	Ye 2019
194.18	R1 = Ph R2 = lavandulyl R3 = CMe=CH2 X = H	garciyunnanone K[d][e]	G. yunnan Hu	+12.9 (0.1, m)	M. Nan 2024
194.19	R1 = Ph R2 = lavandulyl R3 = i-Pr X = H	garciyunnanone N[d][e]	G. yunnan Hu	+1.0 (0.2, m)	M. Nan 2024
194.20	R1 = Ph R2 = lavandulyl R3 = CMe2OH X = H	garciyunnanone Q[d][e]	G. yunnan Hu	+25.6 (0.2, m)	M. Nan 2024
194.21	R1 = Ph R2 = lavandulyl R3 = CMe2OOH X = H	iso-hypersampsonone F[d][e]	G. multiflora	+5.60 (0.01, m)	Teng 2019
194.22	R1 = Ph R2 = lavandulyl R3 = OH X = H	garcimultinone A[d][e]	G. multiflora	−25.6 (0.02, m)	Y. Chen 2019a
195
195.1	R1 = i-Pr R2 = prenyl R3 = CMe2OH	wilsonglucinol F[d]	H. wilsonii	+29.2 (0.55, m)	Y. Zhang 2020
195.2	R1 = i-Pr R2 = geranyl R3 = CMe=CH2	hookerione O	H. hookerianum	+39.1 (0.25, m)	Ye 2019
195.3	R1 = s-Bu R2 = prenyl R3 = CMe2OH	cumilcinol F[d][e]	H. wilsonii	+104.7 (0.2, m)	B. Tao 2024a
195.4	R1 = Ph R2 = prenyl R3 = CMe2OH	hypersampsone Q[d]	H. sampsonii	+18.3 (0.4)	W.-J. Tian 2014b
195.5	R1 = Ph R2 = geranyl R3 = i-Pr	hypersampsone G	H. sampsonii	+10.25 (0.401)	Y. H. Zeng 2009
195.6	R1 = Ph R2 = geranyl R3 = CMe=CH2	hypersampsone J	H. sampsonii	+11.4 (0.573)	Y. H. Zeng 2012
195.7	R1 = Ph R2 = geranyl R3 = CMe2OH	hypersampsonone G[d]	H. sampsonii	+4.22 (0.9)	J.-S. Zhang 2016
195.8	R1 = Ph R2 = geranyl R3 = CMe2OOH	hyperattenin K[d]	H. attenuatum Choisy	−11.5 (0.886, m)	D. Li 2015b
195.9	R1 = Ph R2 = lavandulyl R3 = CMe2OH	isohypersampsonone G[d][e]	G. multiflora	+34.2 (0.01, m)	Y. Chen 2019a
196
196.1	R1 = i-Pr R2 = prenyl R3 = CMe2OH X = H	wilsonglucinol D[d]	H. wilsonii	−17.7 (0.92, m)	Y. Zhang 2020
196.2	R1 = i-Pr R2 = prenyl R3 = CMe2OH X = H	hyperwilone C[c] (enantiomer)	H. wilsonii	+47.3 (0.50, m)	Hao 2021
196.3	R1 = s-Bu R2 = prenyl R3 = CMe2OH X = H	wilsonglucinol E, a.k.a. hirsutusal D[d][e]	H. wilsonii	−9.9 (0.34, m)	Y. Zhang 2020, Max 2021
196.4	R1 = Ph R2 = prenyl R3 = OH X = H	no common name	C. obdeltifolia, G. propinqua	NR	Cruz 2004, Sriyatep 2017
196.5	R1 = Ph R2 = prenyl R3 = i-Pr X = H	hyphenrone Q	H. sampsonii	−4 (0.2, m)	X.-W. Yang 2015
196.6	R1 = Ph R2 = prenyl R3 = CMe2OH X = H	attenuatumione A[c]	H. attenuatum	−19.3 (0.18)	Z.-B. Zhou 2014, X.-W. Yang 2018
196.7	R1 = Ph R2 = prenyl R3 = CMe2OH X = OH	hyperesternoid P[d]	H. monogynum	−52.2 (0.2, m)	Z. Dong 2026
196.8	R1 = Ph R2 = prenyl R3 = CMe2OH X = H	hypercohone A[d] (prob. enantiomer)	H. cohaerens	+3.87 (0.21, m)	X. Liu 2013b
196.9	R1 = Ph R2 = geranyl R3 = i-Pr X = H	hookerione K	H. hookerianum	−33.1 (0.27, m)	Ye 2019
196.10	R1 = Ph R2 = geranyl R3 = CMe2OH X = H	attenuatumione D	H. attenuatum	−10.8 (0.15)	Z.-B. Zhou 2014
196.11	R1 = Ph R2 = geranyl R3 = CMe2OOH X = H	hyperattenin I[d]	H. attenuatum Choisy	−24.5 (0.23, m)	D. Li 2015a
196.12	R1 = Ph R2 = lavandulyl R3 = CMe=CH2 X = H	garciyunnanone L[d][e]	G. yunnan Hu	−5.7 (0.2, m)	M. Nan 2024
196.13	R1 = Ph R2 = lavandulyl R3 = i-Pr X = H	garciyunnanone O[d][e]	G. yunnan Hu	+2.0 (0.1, m)	M. Nan 2024
197
197.1	R1 = i-Pr R2 = prenyl R3 = i-Pr	hookerione N	H. hookerianum	−10.3 (0.13, m)	Ye 2019
197.2	R1 = i-Pr R2 = prenyl R3 = CMe2OH	hirsutusal A[e]	H. hirsutum	+36.7 (0.18, m)	Max 2021
197.3	R1 = i-Pr R2 = prenyl R3 = OH	cumilcinol E[d]	H. wilsonii	−2.0 (0.1, m)	B. Tao 2024a
197.4	R1 = i-Pr R2 = geranyl R3 = i-Pr	hypersampsone B	H. sampsonii	+12 (0.3)	Y.-L. Lin 2003
197.5	R1 = i-Pr R2 = geranyl R3 = CMe2OH	hookerione P	H. hookerianum	−10.3 (0.13, m)	Ye 2019
197.6	R1 = s-Bu R2 = prenyl R3 = CMe2OH	hirsutusal B[e]	H. hirsutum	−6.9 (0.24, m)	Max 2021
197.7	R1 = Ph R2 = prenyl R3 = OH	pseudohenone E	C. obdeltifolia, H. pseudohenryi N. Robson	−27 (0.13, m)	Cruz 2004, X.-W. Yang 2017b
197.8	R1 = Ph R2 = prenyl R3 = i-Pr	hyphenrone P	H. sampsonii	−83 (0.1, m)	X.-W. Yang 2015
197.9	R1 = Ph R2 = prenyl R3 = CMe=CH2	hypercohone B	H. cohaerens	−37.2 (0.11, m)	X. Liu 2013b
197.10	R1 = Ph R2 = prenyl R3 = CMe2OH	hyperacmosin G[c]	H. acmosepalum	−8.3 (0.012)	X. Wang 2020a
197.11	R1 = Ph R2 = prenyl R3 = CMe2OH	sampsonione G[d] (prob. enantiomer)	C. obdeltifolia, H. sampsonii, H. attenuatum, H. wilsonii	+10.0 (0.01)	L.-H. Hu 1999b, Cruz 2004, D. Li 2015a, Y. Zhang 2020
197.12	R1 = Ph R2 = geranyl R3 = OH	hyperattenin H[d]	H. attenuatum Choisy	−12.4 (0.26, m)	D. Li 2015a, X.-W. Yang 2017b
197.13	R1 = Ph R2 = geranyl R3 = OH	cowabenzophenone B[c] (prob. enantiomer)	G. cowa	+96 (0.048)	Sriyatep 2014, X.-W. Yang 2017b
197.14	R1 = Ph R2 = geranyl R3 = i-Pr	hypersampsone E[c]	H. sampsonii	+39 (0.2)	Y.-L. Lin 2003, H.-B. Zhang 2019
197.15	R1 = Ph R2 = geranyl R3 = i-Pr	hyperichoisin B[d] (enantiomer)	H. choisianum	−17.4 (0.285)	H.-B. Zhang 2021
197.16	R1 = Ph R2 = geranyl R3 = CMe=CH2	hypercohone C	H. cohaerens	−38.0 (0.09, m)	X. Liu 2013b
197.17	R1 = Ph R2 = geranyl R3 = CMe=CH2	cowabenzophenone A (enantiomer)	G. cowa	+137 (0.02)	Sriyatep 2014
197.18	R1 = Ph R2 = geranyl R3 = CMe2OH	sampsonione F[c]	H. sampsonii, H. attenuatum, H. wilsonii	+14.5 (1.1)	L.-H. Hu 1999b, D. Li 2015a, H.-B. Zhang 2019, Y. Zhang 2020
197.19	R1 = Ph R2 = geranyl R3 = CMe2OH	hyperichoisin C[d] (enantiomer)	H. choisianum	−21.9 (0.31)	H.-B. Zhang 2021
197.20	R1 = Ph R2 = geranyl R3 = CMe2OOH	hyperberlone C[c]	H. beanii	−0.34 (c 2, m)	Y.-W. Li 2022
197.21	R1 = Ph R2 = neryl R3 = i-Pr	hookerione J	H. hookerianum	−38.2 (0.12, m)	Ye 2019
197.22	R1 = Ph R2 = lavandulyl R3 = CMeCH2	garciyunnanone M[d][e]	G. yunnan Hu	+4.3 (0.4, m)	M. Nan 2024
197.23	R1 = Ph R2 = lavandulyl R3 = i-Pr	iso-hookerione J[d][e]	G. multiflora	−4.70 (0.05, m)	Teng 2019
197.24	R1 = Ph R2 = lavandulyl R3 = CMe2OH	garciyunnanone P[d][e]	G. yunnan Hu	−3.6 (0.1, m)	M. Nan 2024
197.25	R1 = Ph R2 = lavandulyl R3 = OH	garciyunnanone H[d]	G. yunnan Hu	+21.6 (0.1, m)	M. Nan 2024
198		hypertonii A[c]	H. addingtonii N. Robson	+42.3 (0.1, acn)	Q. Feng 2025
199		dioxasampsone A[d]	H. sampsonii	+16.8 (0.50)	W.-J. Tian 2014c
200		hyperesternoid R[d]	H. monogynum	−32.7 (0.2, m)	Z. Dong 2026
201		hyperesternoid S[d]	H. monogynum	−24.8 (0.2, m)	Z. Dong 2026
202		pseudohenone A	H. pseudohenryi N. Robson	+43 (0.20, m)	X.-W. Yang 2017b
203		cumilcinol B[d]	H. wilsonii	+98.0 (0.1, m)	B. Tao 2024a
204		hypercurpalone A[d]	H. curvisepalum	−17.9 (0.13, m)	Y. Ye 2022
205		hypseudone A[c]	H. pseudohenryi	+38.2 (0.096, m)	Jiang 2025
206		garsubelone A[d]	G. subelliptica	+103 (0.14, m)	Y.-L. Wang 2019
207
207.1	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = prenyl R5 = prenyl	hyperforatum D	H. perforatum	+4.0 (1.00, m)	X. Wang 2024
207.2	R1 = n-Pr R2 = CHBuCO2Me R3 = prenyl R4 = prenyl R5 = H	kielmeyeracin[c][e]	Kielmeyera variabilis	−70 (0.1, m)	Coqueiro 2016
207.3	R1 = i-Bu R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	spiranthenone B	Spiranthera odoratissima	−24 (0.10)	Albernaz 2012, X.-W. Yang 2018
207.4	R1 = Ph R2 = H R3 = prenyl R4 = (E)-CH=CHCMe=O R5 = H	oblongifolin V[c]	G. oblongifolia	+4.3 (0.02, m)	H. Zhang 2016
207.5	R1 = Ph R2 = H R3 = prenyl R4 = geranyl R5 = H	oblongifolin L[c]	G. oblongifolia	−15.1 (0.05, m)	H. Zhang 2014a, X.-W. Yang 2018
207.6	R1 = Ph R2 = H R3 = prenyl R4 = CH2C(=O)C(=CH2)CH2CH2CH=CMe2 R5 = H	oblongifolin O[c][l][m]	G. oblongifolia	−20.8 (0.05, m)	H. Zhang 2014a
207.7	R1 = Ph R2 = H R3 = prenyl R4 = 6-oxo-ω-isogeranyl[h] R5 = H	oblongifolin N[c][l][m]	G. oblongifolia	−17.5 (0.04, m)	H. Zhang 2014a
207.8	R1 = Ph R2 = H R3 = prenyl R4 = (S)-6-hydroxy-ω-isogeranyl[h] R5 = H	oblongifolin Q[c][l][m]	G. oblongifolia	−222.2 (0.03, m)	H. Zhang 2014a
207.9	R1 = Ph R2 = prenyl R3 = Me R4 = prenyl R5 = prenyl	hyperascyrin L[d]	H. ascyron	− 58.5 (0.1, m)	B. Zhen 2019
207.10	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	clusianone[c]	C. congestiflora, C. spiritu-sanctensis, C. torresii, H. hypericoides	+58.3 (0.7); OMe: +61 (1.4)	de Oliveira 1996, Piccinelli 2005, Rodeschini 2007, Henry 2008, Garnsey 2010, Horeischi 2015
207.11	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl R5 = prenyl	guttiferone I, a.k.a. 13-deoxyguttiferone J[i] (one of two by the first name)	G. cambogia, G. virgata	−14.3 (5.6, m)	Merza 2006, Masullo 2008
207.12	R1 = Ph R2 = prenyl R3 = lavandulyl R4 = prenyl R5 = H	spiritone[e]	C. spiritu-sanctensis	NR	Porto 2000
207.13	R1 = 3-hydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	18-hydroxyclusianone	H. hypericoides	NR	Christian 2008
207.14	R1 = 3-hydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = prenyl	guttiferone J, a.k.a. garciyunnanin A and tautomer iso-guttiferone J	G. cambogia, G. gummi-gutta, G. virgata, G. yunnanensis	−34.3 (1.75, m), −3.0 (0.11)	Merza 2006, Masullo 2008, G. Xu 2008, Pandey 2024
207.15	R1 = 3-hydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = prenyl	ent-guttiferone J[l][m] (prob. enantiomer)	R. edulis	+10.8 (0.01, m)	Acuña 2010
207.16	R1 = 3-hydroxyphenyl R2 = prenyl R3 = prenyl R4 = geranyl R5 = H	oblongifolin U[c]	G. oblongifolia	+48.2 (0.08, m)	H. Zhang 2014a
207.17	R1 = 3-hydroxyphenyl R2 = prenyl R3 = prenyl R4 = geranyl R5 = prenyl	garcicowin B	G. cowa	−16.0 (0.21)	G. Xu 2010
207.18	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	aristophenone A[c]	G. xanthochymus	+58 (0.1); OAc: +53 (0.1), +54 (0.1)	Cuesta-Rubio 2001b, Baggett 2005
207.19	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = prenyl	guttiferone K	G. calcicola, G. cambogia, G. cowa, G. yunnanensis Hu	−2 (0.35)	S. Cao 2007, Masullo 2008, G. Xu 2010, Zheng 2017
207.20	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = CH2COCMe=CH2	garciyunnanin J[c]	G. yunnanensis	+103.1 (0.13, m)	Zheng 2021b
207.21	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = CH2CHOHCMe=CH2 R5 = prenyl	schomburgkianone F[d][e]	G. schomburgkiana	−13 (0.4)	Le 2016
207.22	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = CH2CHOHCMe=CH2 R5 = prenyl	schomburgkianone G[d][e] (diastereomer)	G. schomburgkiana	+6 (c 0.3)	Le 2016
207.23	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe2OH R5 = prenyl	garciyunnanol I[d]	G. yunnanensis	−58 (0.36, m)	X.-Y. Hu 2024
207.24	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = CH2CO2H R5 = prenyl	garciyunnanol H[d]	G. yunnanensis	−12 (0.18, m)	X.-Y. Hu 2024
207.25	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = geranyl R5 = H	oblongifolin B	G. cowa, G. oblongifolia, G. yunnanensis Hu	+17.6 (0.21)	Hamed 2006, G. Xu 2010, Zheng 2017
207.26	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = geranyl R5 = prenyl	guttiferone G	G. humilis, G. macrophylla	−25 (0.04), +8.7 (1.5)	Williams 2003, Herath 2005, Ciochina 2006
207.27	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = geranyl R5 = prenyl	oblongifolin C (prob. enantiomer)	G. cowa, G. oblongifolia, G. yunnanensis Hu	+14.5 (0.21)	Hamed 2006, G. Xu 2010, Zheng 2017
207.28	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = (E)-CH2CH=CMeCH2CH2CH2CMe2OH R5 = prenyl	garschomcinol A[d]	G. schomburgkiana	+12.5 (0.20, m)	Kaennakam 2022a
207.29	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = (E)-CH2CH=CMeCH2CH2CH2CMe2OMe R5 = prenyl	garschomcinol B[d]	G. schomburgkiana	+13.5 (0.28, m)	Kaennakam 2022a
207.30	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = (E)-CH2CH=CMeCH2CH2CH2CMe2OEt R5 = prenyl	garschomcinol C[d]	G. schomburgkiana	+14.7 (0.34, m)	Kaennakam 2022a
207.31	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = (R)-6-hydroxy-ω-isogeranyl[h] R5 = prenyl	schomburgkianone A[d]	G. schomburgkiana	+15 (0.7)	Le 2016
207.32	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = (S)-6-hydroxy-ω-isogeranyl[h] R5 = prenyl	schomburgkianone B[d]	G. schomburgkiana	+40 (1.0)	Le 2016
207.33	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = (E,E)-CH2CH=CMeCH2CH=CHCMe2OH R5 = prenyl	schomburgkianone C[d]	G. schomburgkiana	+25 (0.8)	Le 2016
207.34	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = (E,E)-CH2CH=CMeCH2CH=CHCMe2OMe R5 = prenyl	garciyunnanol E[d]	G. yunnanensis	+5 (0.36, m)	X.-Y. Hu 2024
207.35	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = geranyl R4 = prenyl R5 = H	guttiferone M[c]	G. cambogia	−29.8 (0.15, m)	Masullo 2008, Masullo 2010
207.36	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = geranyl R4 = prenyl R5 = prenyl	guttiferone P	G. solomonensis	+18.2 (0.33)	Carroll 2009
207.37	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = geranyl R4 = geranyl R5 = H	guttiferone B	G. cowa, S. globulifera	−44 (0.5)	Gustafson 1992, G. Xu 2010
207.38	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = lavandulyl R4 = prenyl R5 = H	7-epi-garcinol[e]	M. coccinea	−86 (0.8)	Marti 2009
207.39	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (S)-isolavandulyl[g] R4 = prenyl R5 = H	xanthochymusone B[d]	G. xanthochymus	+137 (0.1, m)	Z.-H. Xu 2022
207.40	R1 = 3,4-dihydroxyphenyl R2 = (E)-CH2CH=CMeCH2OH R3 = prenyl R4 = prenyl R5 = prenyl	garciyunnanol F[d]	G. yunnanensis	+7 (0.17, m)	X.-Y. Hu 2024
207.41	R1 = 3,4-dihydroxyphenyl R2 = (Z)-CH2CH=CMeCH2OH R3 = prenyl R4 = geranyl R5 = prenyl	garciyunnanol G[d]	G. yunnanensis	+11 (0.18, m)	X.-Y. Hu 2024
207.42	R1 = 3,4-dihydroxyphenyl R2 = geranyl R3 = geranyl R4 = prenyl R5 = H	guttiferone O (one of two by that name)	G. solomonensis	+30.7 (0.66)	Carroll 2009
207.43	R1 = 3,4-dihydroxyphenyl R2 = ω-isogeranyl[h] R3 = prenyl R4 = geranyl R5 = H	semsinone A[n]	G. semseii	+52 (0.1)	Magadula 2008
207.44	R1 = 2,4,5-trihydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = prenyl	guttiferone L	G. calcicola	−8 (0.06)	S. Cao 2007
208
208.1	R1 = i-Pr R2 = Me R3 = prenyl R4 = prenyl R5 = H	hyperpapuanone	H. papuanum	+15 (0.1, m)	Winkelmann 2001a
208.2	R1 = i-Bu R2 = CHPhCH2CO2H R3 = prenyl R4 = prenyl R5 = H	laxifloranone[e]	Marila laxiflora	+23.6 (0.8, m)	Bokesch 1999
208.3	R1 = i-Bu R2 = CHPhCH2CO2Me R3 = prenyl R4 = prenyl R5 = H	mesuaferroic acid H[e]	Mesua ferrea	+15.9 (0.2, m)	X.-C. Zhang, 2020
208.4	R1 = i-Bu R2 = CHPhCH2CO2H R3 = (E)-CH=CHCMe2OH R4 = prenyl R5 = H	mesuaferroic acid I[e]	Mesua ferrea	+2.15 (0.2, m)	X.-C. Zhang, 2020
208.5	R1 = i-Bu R2 = CHPhCH2CO2H R3 = prenyl R4 = CH2CH(OH)CMe=CH2 R5 = H	mesuaferroic acid L[e]	Mesua ferrea	+8.`5 (0.2, m)	X.-C. Zhang, 2020
208.6	R1 = CH(OH)CMe2OH R2 = CHPhCH2CO2H R3 = prenyl R4 = prenyl R5 = H	mesuaferroic acid K[e]	Mesua ferrea	+3.25 (0.2, m)	X.-C. Zhang, 2020
208.7	R1 = Ph R2 = H R3 = prenyl R4 = Me R5 = H	oblongifolin P[c]	G. oblongifolia	−56.3 (0.05, m)	H. Zhang 2014a
208.8	R1 = Ph R2 = H R3 = prenyl R4 = prenyl R5 = H	garciniaphenone[m]	G. brasiliensis	−52.8 (0.1)	Derogis 2008
208.9	R1 = Ph R2 = H R3 = prenyl R4 = prenyl R5 = prenyl	guttiferone Q	G. cochinchinensis	−50 (0.21)	H. D. Nguyen 2011
208.10	R1 = Ph R2 = H R3 = prenyl R4 = prenyl R5 = prenyl	cowanone, a.k.a. chamuangone (prob. enantiomer)	G. cowa	+5 (1.0)	Trisuwan 2012, Sakunpak 2012
208.11	R1 = Ph R2 = H R3 = prenyl R4 = (E)-CH=CHCMe2OH R5 = prenyl	garcowacinol A[d]	G. cowa	−35.0 (0.50, m)	Kaennakam 2022b
208.12	R1 = Ph R2 = H R3 = prenyl R4 = (E)-CH=CHCMe2OMe R5 = prenyl	garcowacinol B[d]	G. cowa	−46.5 (0.50, m)	Kaennakam 2022b
208.13	R1 = Ph R2 = H R3 = prenyl R4 = geranyl R5 = H	oblongifolin AA[c]	G. oblongifolia	−36.2 (0.05, m)	H. Zhang 2016, X.-W. Yang 2018
208.14	R1 = Ph R2 = H R3 = prenyl R4 = (E)-CH2CH=CMeCH2CH2CH2CMe2OH R5 = H	oblongifolin Z[c][m]	G. oblongifolia	−23.5 (0.03, m)	H. Zhang 2016
208.15	R1 = Ph R2 = Me R3 = prenyl R4 = prenyl R5 = H	hyperibone L	H. scabrum	+69.5 (0.2)	Tanaka 2004
208.16	R1 = Ph R2 = prenyl R3 = Me R4 = prenyl R5 = prenyl	hyperelatone A[d]	H. elatoides	+189.3 (0.1)	Yan 2019
208.17	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	7-epi-clusianone[d]	C. sandinensis, C. torresii, H. elegans, H. hypericoides	+62.3 (1.1)	Delle Monache 1991, Santos 1998, de Almeida Alves 1999, Winkelmann 2001a, Piccinelli 2005, Nedialkov 2016, L. Wang 2021
208.18	R1 = Ph R2 = prenyl R3 = (S)-lavandulyl[f] R4 = prenyl R5 = H	garcimultiflorone K[c] (one of two by that name)	G. multiflora	−92.4 (0.41, m)	L.-Y. Cheng 2018a
208.19	R1 = Ph R2 = prenyl R3 = (1S,3R)-3-isopropenyl-2,2-dimethylcyclobutylmethyl R4 = prenyl R5 = H	picrorhizone C[d]	G. picrorhiza	+15 (0.10, m)	Sukandar 2020
208.20	R1 = Ph R2 = geranyl R3 = prenyl R4 = prenyl R5 = H	hyperbeone A[c]	H. beanii	−4.7 (0.08, m)	W.-X. Li 2021
208.21	R1 = 3-hydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	18-hydroxy-7-epi-clusianone	H. hypericoides	+64 (0.29)	Christian 2008
208.22	R1 = 3-hydroxyphenyl R2 = prenyl R3 = prenyl R4 = geranyl R5 = H	oblongifolin E	G. oblongifolia	+65.1 (0.40)	Huang 2009
208.23	R1 = 3-hydroxyphenyl R2 = prenyl R3 = geranyl R4 = prenyl R5 = H	guttiferone N	G. cambogia	−34.5 (0.07, m)	Masullo 2008
208.24	R1 = 3-hydroxyphenyl R2 = prenyl R3 = lavandulyl R4 = prenyl R5 = H	14-deoxygarcinol[e]	M. coccinea	−42 (0.3)	Marti 2009
208.25	R1 = 3-hydroxyphenyl R2 = prenyl R3 = (S)-isolavandulyl[g] R4 = prenyl R5 = H	xanthochymusone A[d]	G. xanthochymus	+137 (0.1, m)	Z.-H. Xu 2022
208.26	R1 = 3-hydroxyphenyl R2 = prenyl R3 = (1S,3R)-3-isopropenyl-2,2-dimethylcyclobutylmethyl R4 = prenyl R5 = H	picrorhizone B[d]	G. picrorhiza	+12 (0.10, m)	Sukandar 2020
208.27	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	garcimultiflorone H[d]	G. multiflora	+29.8 (0.62, m)	Fu 2015
208.28	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = prenyl	guttiferone A	S. globulifera, G. livingstonei, G. humilis	+34 (1.7)	Gustafson 1992, Williams 2003
208.29	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = geranyl R5 = H	oblongifolin A	G. cowa, G. oblongifolia, G. yunnanesis Hu	+23 (0.35)	Hamed 2006, G. Xu 2010, Zheng 2017
208.30	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = (R)-6-hydroxy-ω-isogeranyl[h] R5 = H	oblongifolin T[c]	G. oblongifolia	+10.8 (0.05, m)	H. Zhang 2014a, X.-W. Yang 2018
208.31	R1 = 3,4-hydroxyphenyl R2 = prenyl R3 = (1R,3S)-3-isopropenyl-2,2-dimethylcyclobutylmethyl R4 = prenyl R5 = H	garcinopicrobenzophenone, a.k.a. eugeniaphenone[d]	G. eugeniaefolia, G. picrorhiza	−271.4 (0.17, m), +28 (0.10, m)	Soemiati 2006, Hartati 2008, Sukandar 2020
208.32	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = geranyl R4 = prenyl R5 = H	guttiferone I[i] (one of two by that name)	G. griffithii	−68 (1.2)	Fuller 1999
208.33	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (E)-CH2CH(CMe=CH2)CH=CHCMe2OOH R4 = prenyl R5 = H	nujiangefolin E[d][e]	G. nujiangensis	−22.48 (0.11, m)	X.-J. Liu 2023
208.34	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = 2,2-dimethyl-5-isopropenyl-3-tetrahydrofurylmethyl R4 = prenyl R5 = H	paucinochymol A[d][e]	G. paucinervis	−38.8 (0.01, m)	Tan 2020
208.35	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = geranyl R4 = geranyl R5 = H	oblongifolin D	G. cowa, G. oblongifolia	+44.6 (0.21)	Hamed 2006, G. Xu 2010
208.36	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (S)-lavandulyl[f] R4 = prenyl R5 = H	garcinol, a.k.a. (−)-camboginol, a.k.a. guttiferone F[c]	G. cambogia, G. cowa, G. indica, G. pedunculata, G. yunnanensis Hu, M. coccinea, Allanblackia stuhlmannii	−138 (0.1), −293 (0.4)	Rama Rao 1980, Krishnamurthy 1981, Sahu 1989, Fuller 1999, Marti 2009, G. Xu 2010, Socolsky 2015, Zheng 2017, Zheng 2021a, X. Wang 2021a
208.37	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (S)-lavandulyl[f] R4 = prenyl R5 = H	guttiferone E, a.k.a. (+)-camboginol[d] (enantiomer)	Cuban propolis, C. rosea, G. ovafolia, G. virgata, G. yunnanensis Hu	+101 (0.5)	Gustafson 1992, Fuller 1999, Cuesta Rubio 1999, Cuesta Rubio 2002, Merza 2006, Socolsky 2015, Zheng 2021a
208.38	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = lavandulyl R4 = prenyl R5 = prenyl	guttiferone D[e]	S. globulifera	+92 (0.9) as mix with guttiferone C	Gustafson 1992
208.39	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (S)-lavandulyl[f] R4 = CH2CHOHCMe2OH R5 = H	garcimultiflorone F[e]	G. multiflora	−68.7 (0.49, m)	X. Liu 2010, X. Wang 2021a
208.40	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (S)-lavandulyl[f] R4 = CH2CHOHCMe2OH R5 = H	isogarcimultiflorone F[e] (diastereomer)	G. multiflora	−46.0 (c 0.50, m)	X. Liu 2010, X. Wang 2021a
208.41	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = lavandulyl R4 = (S)-CH2CHOHCMe2OMe R5 = H	garciesculentone C[e]	G. esculenta	−24.9 (0.08, m)	H. Zhang 2014b
208.42	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (S)-isolavandulyl[g] R4 = prenyl R5 = H	xanthochymol, a.k.a. garcinielliptone FC[d]	Cuban propolis, G. mannii, G. staudtii, G. subelliptica, G. virgata, G. xanthochymus, G. madrunno, Platonia insignis	+138 (0.1), +12.6 (1.0)	Karanjgoakar 1973, Dreyer 1974, Venkatswamy 1975, Blount 1976, Cuesta Rubio 1999, Roux 2000, Cuesta Rubio 2002, Baggett 2005, Merza 2006, C.-C. Wu 2008a, Costa 2013, Y. Luo 2023
208.43	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = isolavandulyl[g] R4 = prenyl R5 = prenyl	guttiferone C[e]	S. globulifera	+92 (0.9) as mix with guttiferone D	Gustafson 1992
208.44	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (4R)-4-hydroxygeranyl R4 = prenyl R5 = H	32-hydroxy-7-epi-guttiferone M[d][l][m]	R. edulis	+10 (0.1, m)	Acuña 2010
208.45	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (2R)-4-hydroxyisolavandulyl[g] R4 = prenyl R5 = H	garcimultiflorone E[e]	G. multiflora	−43.6 (0.41, m)	X. Liu 2010, X. Wang 2021a
208.46	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (4R)-4-hydroxyisolavandulyl[g] R4 = prenyl R5 = H	garciesculentone E[e]	G. esculenta	−14.3 (0.03, m)	H. Zhang 2014b
208.47	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (4S)-4-hydroxyisolavandulyl[g] R4 = prenyl R5 = H	garciesculentone D[e]	G. esculenta	−15.9 (0.05, m)	H. Zhang 2014b
208.48	R1 = 3,4-hydroxyphenyl R2 = prenyl R3 = (1S)-2-methylene-4,4-dimethylcyclohexylmethyl R4 = prenyl R5 = H	acuminophenone A	R. acuminata	+208 (0.01)	Almanza 2011
208.49	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = 3-isopropenyl-2,2-dimethylcyclopentyl R4 = prenyl R5 = H	thorelione A[e]	Calophyllum thorelii	+91.9 (1.0, m)	L.-T. T. Nguyen 2012
208.50	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (2,4,4-trimethyl-2-cyclohexenyl)methyl R4 = prenyl R5 = H	coccinone F	M. coccinea	−32 (0.7)	Marti 2009
208.51	R1 = 3,4-hydroxyphenyl R2 = prenyl R3 = (1S,3R)-3-(2-hydroxyisopropyl)-2,2-dimethylcyclobutylmethyl R4 = prenyl R5 = H	picrorhizone D[d]	G. picrorhiza	+34 (0.10, m)	Sukandar 2020
208.52	R1 = 3,4-hydroxyphenyl R2 = prenyl R3 = (1S,3S)-3-acetyl-2,2-dimethylcyclobutylmethyl R4 = prenyl R5 = H	picrorhizone E[d]	G. picrorhiza	+5 (0.10, m)	Sukandar 2020
208.53	R1 = 3,4-dihydroxyphenyl R2 = (E)-CH=CHCMe2OH R3 = (E)-CH2CH(CMe=CH2)CH(OH)CH=CMe2 R4 = prenyl R5 = H	garciyunnanensisin C[c][e]	G. yunnanensis	+170.0 (0.1, m)	P.-X. Ji 2025
208.54	R1 = 3,4-hydroxyphenyl R2 = (E)-CH2CH=C(Me)CH2OH R3 = (1S,3R)-3-isopropenyl-2,2-dimethylcyclobutylmethyl R4 = prenyl R5 = H	picrorhizone A[d]	G. picrorhiza	+27 (0.10, m)	Sukandar 2020
208.55	R1 = 3,4-dihydroxyphenyl R2 = CH2CH2CMe2OH R3 = (S)-lavandulyl[f] R4 = prenyl R5 = H	garcimultiflorone D (one of two by that name)	G. multiflora	−53.6 (0.48, m)	X. Liu 2010, X. Wang 2021a
208.56	R1 = 3,4-dihydroxyphenyl R2 = CH2CHOHCMe2OH R3 = (S)-lavandulyl[f] R4 = prenyl R5 = H	18-hydroxygarcimultiflorone D[e]	G. multiflora	−33.3 (0.12, m)	X. Liu 2010, X. Wang 2021a
208.57	R1 = 3,4-dihydroxyphenyl R2 = lavandulyl R3 = prenyl R4 = prenyl R5 = H	coccinone G[e]	M. coccinea	−16 (1.0)	Marti 2009
208.58	R1 = 3,4-dihydroxyphenyl R2 = (2,4,4-trimethyl-1-cyclohexenyl)methyl R3 = prenyl R4 = prenyl R5 = H	coccinone H	M. coccinea	−16 (1.0)	Marti 2009
209
209.1	R = prenyl	garciyunnanimine A[c]	G. yunnanensis Hu	+11.7 (0.03, m)	Zheng 2017, J.-Y. Xie 2024
209.2	R = geranyl	garciyunnanimine C[c]	G. yunnanensis Hu	+11.4 (0.041, m)	Zheng 2017, J.-Y. Xie 2024
210
210.1	R1 = Ph R2 = Me R3 = prenyl R4 = H	hyperelamine A[d]	H. elatoides	+44.3 (0.11, m)	J.-Y. Xie 2024
210.2	R1 = Ph R2 = Me R3 = prenyl R4 = (R)-CH(CH3)C≡N	hyperelanitrile C[d]	H. elatoides	+28.3 (0.10, m)	J.-Y. Xie 2024
210.3	R1 = Ph R2 = Me R3 = prenyl R4 = (S)-CH(CH3)C≡N	hyperelanitrile A[d]	H. elatoides	+91.1 (0.05, m)	J.-Y. Xie 2024
210.4	R1 = 3,4-dihydroxyphenyl R2 = (S)-lavandulyl[f] R3 = H R4 = H	garciyunnanimine B[c]	G. yunnanensis Hu	−69.0 (0.035, m)	Zheng 2017, J.-Y. Xie 2024
211
211.1	R = (R)-CH(CH3)C≡N	hyperelanitrile D[d] (inseparable E/Z mixture with hyperelanitrile C at exocyclic double bond)	H. elatoides	N/D	J.-Y. Xie 2024
211.2	R = (S)-CH(CH3)C≡N	hyperelanitrile B[d] (inseparable E/Z mixture with hyperelanitrile A at exocyclic double bond)	H. elatoides	N/D	J.-Y. Xie 2024
212		oblongifolin M[c][l][m]	G. oblongifolia	−4.2 (0.05, m)	H. Zhang 2014a
213		enervosanone	Calophyllum enervosum	+10 (0.2000, m)	Taher 2005
214
214.1	R1 = prenyl R2 = prenyl R3 = prenyl R4 = X1 = OH R5 = X2 = OH R6 = X3 = H	oxy-guttiferone K[d]	G. cambogia	+20.9 (0.1)	Masullo 2008, Masullo 2010
214.2	R1 = prenyl R2 = geranyl R3 = H R4 = X1 = OH R5 = X2 = OH R6 = X3 = H	oblongifolin G	G. oblongifolia	+5.9 (0.41)	Huang 2009
214.3	R1 = prenyl R2 = geranyl R3 = H R4 = X1 = H R5 = X2 = H R6 = X3 = OH	oblongifolin I	G. oblongifolia	NR	Y. Zhou 2010
214.4	R1 = prenyl R2 = geranyl R3 = prenyl R4 = X1 = OH R5 = X2 = OH R6 = X3 = H	garciyunnanin B	G. yunnanensis	+18.1 (0.12)	G. Xu 2008
214.5	R1 = prenyl R2 = geranyl R3 = prenyl R4 = X1 = H R5 = X2 = OH R6 = X3 = OH	garciyunnanin K[d]	G. yunnanensis	+2.2 (0.10, m)	Zheng 2021b
214.6	R1 = geranyl R2 = prenyl R3 = H R4 = X1 = OH R5 = X2 = OH R6 = X3 = H	oxy-guttiferone M	G. cambogia	−96.2 (0.1, m)	Masullo 2010
214.7	R1 = lavandulyl R2 = prenyl R3 = H R4 = X1 = OH R5 = X2 = OH R6 = X3 = H	symphonone H[e]	S. globulifera	−37 (0.2)	Marti 2010
215
215.1	R1 = prenyl R2 = prenyl R3 = H R4 = X1 = OH R5 = X2 = H	garcimultiflorone I[d]	G. multiflora	−42.1 (0.36, m)	Fu 2015
215.2	R1 = prenyl R2 = prenyl R3 = prenyl R4 = X1 = OH R5 = X2 = H	2,16-oxyguttiferone A[d]	S. globulifera	+48 (1.0, m)	Cottet 2015
215.3	R1 = prenyl R2 = geranyl R3 = H R4 = X1 = OH R5 = X2 = H	oblongifolin F	G. oblongifolia	−85.6 (0.41)	Huang 2009
215.4	R1 = prenyl R2 = geranyl R3 = H R4 = X1 = H R5 = X2 = OH	oblongifolin H	G. oblongifolia	NR	Y. Zhou 2010
215.5	R1 = geranyl R2 = prenyl R3 = H R4 = X1 = OH R5 = X2 = H	oxy-guttiferone I	G. cambogia	+23.8 (0.1, m)	Masullo 2010
215.6	R1 = (S)-lavandulyl[f] R2 = prenyl R3 = H R4 = X1 = OH R5 = X2 = H	garcimultiflorone J[c]	G. multiflora	+11.11 (0.44, m)	Fu 2015, X. Wang 2021a
215.7	R1 = isolavandulyl[g] R2 = prenyl R3 = H R4 = X1 = OH R5 = X2 = H	nujiangefolin A[e]	G. nujiangensis	−2 (0.10, m)	Xia 2012
215.8	R1 = (R)-isolavandulyl[g] R2 = (E)-CH=CHCMe2OH R3 = H R4 = X1 = OH R5 = X2 = H	nujiangefolin D[d]	G. nujiangensis	−12 (0.10, m)	Tang 2019
215.9	R1 = (1S,3R)-3-isopropenyl-2,2-dimethylcyclobutylmethyl R2 = prenyl R3 = H R4 = X1 = OH R5 = X2 = H	picrorhizone H[d]	G. picrorhiza	−7 (0.10, m)	Sukandar 2020
215.10	R1 = 3-isopropenyl-2,2-dimethylcyclopentyl R2 = prenyl R3 = H R4 = X1 = OH R5 = X2 = H	oxy-thorelione A[e]	Calophyllum thorelii	+91.9 (1.0, m)	L.-T. T. Nguyen 2012
215.11	R1 = (2S)-4-hydroxyisolavandulyl[g] R2 = prenyl R3 = H R4 = X1 = OH R5 = X2 = H	garciesculentone B[e]	G. esculenta	+18.4 (0.04, m)	H. Zhang 2014b
216		garcinialone[l][m]	G. multiflora	−2.0 (0.02, m)	Chien 2008
217		xanthochymusone N[d]	G. xanthochymus	−16 (0.1, m)	Y.-G. Fu 2025
218		no common name	G. indica	+18.9 (0.1, m)	Kaur 2012
219		symphonone I	S. globulifera	−22 (0.4)	Marti 2010
220
220.1	R = prenyl	(+)-garciyunnanin L[c]	G. yunnanensis	+28.5 (0.10, m)	Zheng 2021b
220.2	R = prenyl	(−)-garciyunnanin L[d]	G. xanthochymus	−21 (0.1, m)	Y.-G. Fu 2025
220.3	R = CH2CH2CMe=CH2	xanthochymusone O[d]	G. xanthochymus	−21 (0.1, m)	Y.-G. Fu 2025
221
221.1	R1 = prenyl R2 = prenyl	oxy-guttiferone K2	G. cambogia	+12.2 (0.1, m)	Masullo 2010
221.2	R1 = isolavandulyl[g] R2 = H	garcixanthochymone J[d][e]	G. xanthochymus	+53.2 (0.73, m)	Jin 2021
222
222.1	R1 = prenyl R2 = prenyl R3 = prenyl	4,16-oxyguttiferone A	S. globulifera	+53 (1.0, m)	Cottet 2015
222.2	R1 = prenyl R2 = geranyl R3 = H	guttiferone O, a.k.a. oxy-oblongifolin A (one of two by that first name)	G. afzelii	+45 (0.2, a)	Lannang 2010
222.3	R1 = (S)-lavandulyl[f] R2 = prenyl R3 = H	garcim-2[c]	G. xanthochymus	N/A	Z. Wu 2022
222.4	R1 = isolavandulyl[g] R2 = prenyl R3 = H	nujiangefolin B[e]	G. nujiangensis	+5 (0.10, m)	Xia 2012
223		garciyunnanensisin E[c][e]	G. yunnanensis	−120.0 (0.1, m)	P.-X. Ji 2025
224
224.1	R1 = Ph R2 = Me R3 = prenyl R4 = prenyl	longistylione B[c]	H. longistylum	+0.8 (0.04, mc)	X. Cao 2017
224.2	R1 = 3,4-dihydroxyphenyl R2 = lavandulyl R3 = prenyl R4 = H	symphonone F[e]	S. globulifera	−9 (1.0)	Marti 2010
224.3	R1 = 3,4-dihydroxyphenyl R2 = isolavandulyl[g] R3 = prenyl R4 = H	garcixanthochymone G[d][e]	G. xanthochymus	+28.5 (0.87, m)	Jin 2021
225
225.1	R1 = Ph R2 = Me R3 = prenyl	longistylione A[c]	H. longistylum	−12.4 (0.4, mc)	X. Cao 2017
225.2	R1 = Ph R2 = prenyl R3 = H	hyperscabrone F[c]	H. scabrum	−18 (0.1, m)	W. Gao 2016a
225.3	R1 = Ph R2 = (S)-CH2CHOHCMe2OH R3 = prenyl	hyperkouytone F[c]	H. kouytchense	−46.5 (0.45, m)	H.-Y. Lou 2024
225.4	R1 = 3,4-dihydroxyphenyl R2 = lavandulyl R3 = H	symphonone G[e]	S. globulifera	−4 (0.4)	Marti 2010
226		hyperascyrin N[d]	H. ascyron	+40.0 (0.1, m)	B. Zhen 2019
227		no common name	H. scabrum	+17.2 (1.0, m)	Soroury 2020
228
228.1	R1 = i-Pr R2 = CMe2OH R3 = geranyl R4 = prenyl R5 = H	hyperbeanin Q[c]	H. beanii	−19.5 (0.4, m)	X.-Y. Suo 2021b
228.2	R1 = Ph R2 = CMe2OH R3 = (2R,3E)-CH2CH(CMe=CH2)CH=CHCMe2OOH R4 = prenyl R5 = H	garcimultinone K[d]	G. multiflora	−12.00 (0.05, m)	Teng 2021
228.3	R1 = 3,4-dihydroxyphenyl R2 = CMe2OH R3 = geranyl R4 = prenyl R5 = H	paucinochymol C[d]	G. paucinervis	+17.2 (0.02, m)	Tan 2020
228.4	R1 = 3,4-dihydroxyphenyl R2 = CMe2OH R3 = lavandulyl R4 = prenyl R5 = H	paucinochymol B[d][e]	G. paucinervis	−46.6 (0.02, m)	Tan 2020
228.5	R1 = 3,4-dihydroxyphenyl R2 = CMe2OH R3 = isolavandulyl[g] R4 = prenyl R5 = H	nujiangefolin C[e]	G. nujiangensis	+20 (0.05, m)	Xia 2012
228.6	R1 = 3,4-dihydroxyphenyl R2 = CMe2OH R3 = (E)-CH2CH(CMe=CH2)CH=CHCMe2OH R4 = prenyl R5 = H	garciyunnanensisin D[d][e]	G. yunnanensis	+112.0 (0.1, m)	P.-X. Ji 2025
228.7	R1 = 3,4-hydroxyphenyl R2 = CMe2OH R3 = (1S,3R)-3-isopropenyl-2,2-dimethylcyclobutylmethyl R4 = prenyl R5 = H	picrorhizone F[d]	G. picrorhiza	+11 (0.10, m)	Sukandar 2020
228.8	R1 = 3,4-hydroxyphenyl R2 = CH(Me)CO2H R3 = (1S,3R)-3-isopropenyl-2,2-dimethylcyclobutylmethyl R4 = prenyl R5 = H	picrorhizone G[d][e]	G. picrorhiza	+11 (0.10, m)	Sukandar 2020
229
229.1	R1 = Ph R2 = prenyl R3 = prenyl R4 = H	hyperibone I	H. scabrum	+13.3 (0.3)	Matsuhisa 2002, Ciochina 2006, Lindermayr 2013
229.2	R1 = Ph R2 = prenyl R3 = (E)-CH=CHCMe2OH R4 = H	hyperibone H	H. scabrum	+12.4 (0.4)	Matsuhisa 2002, Ciochina 2006
229.3	R1 = Ph R2 = (S)-lavandulyl[f] R3 = prenyl R4 = H	garcimultinone L[d]	G. multiflora	+110.00 (0.04, m)	Teng 2021
229.4	R1 = 3,4-dihydroxyphenyl R2 = (S)-lavandulyl R3 = prenyl R4 = H	garynthone D	G. yunnanensis	racemic; +21.52 (0.1, m) and −18.83 (0.1, m)	Z. Guo 2025
229.5	R1 = 3,4-dihydroxyphenyl R2 = (S)-isolavandulyl[g] R3 = prenyl R4 = H	garynthone E[d]	G. yunnanensis	−31.07 (0.1, m)	Z. Guo 2025
230		thorelione B[e]	Calophyllum thorelii	+412.0 (0.14, e)	L.-T. T. Nguyen 2012
231
231.1	R1 = CMe=CH2 R2 = H	oblongifolin X[d]	G. oblongifolia	−11.8 (0.03, m)	H. Zhang 2016
231.2	R1 = CMe=CH2 R2 = prenyl	garcowacinol E[d]	G. cowa	−36.0 (0.50, m)	Kaennakam 2022b
231.3	R1 = CMe2OH R2 = prenyl	garcowacinol G[d]	G. cowa	−28.1 (0.30, m)	Kaennakam 2022b
232		garcowacinol H[d]	G. cowa	−21.2 (0.50, m)	Kaennakam 2022b
233
233.1	R1 = H R2 = CMe=CH2 R3 = prenyl R4 = prenyl	garcowacinol F[d]	G. cowa	−25.0 (0.50, m)	Kaennakam 2022b
233.2	R1 = H R2 = CMe2OH R3 = prenyl R4 = prenyl	guttiferone R[d]	G. cochinchinensis	−57.5 (0.33, m)	H. D. Nguyen 2011, Kaennakam 2022b
233.3	R1 = H R2 = CMe2OH R3 = geranyl R4 = H	oblongifolin R[d][l][m]	G. oblongifolia	−54.5 (0.03, m)	H. Zhang 2014a
233.4	R1 = prenyl R2 = CMe=CH2 R3 = prenyl R4 = H	hyperscabrone E[d]	H. scabrum	−10 (0.1, m)	W. Gao 2016a
234
234.1	R1 = s-Bu R2 = CHPhCH2CO2H R3 = prenyl	mesuaferroic acid A[e][m]	Mesua ferrea	NR	Rasol 2017
234.2	R1 = s-Bu R2 = CHPhCH2CO2H R3 = CH2CHOHCMe2OH	mesuaferroic acid E[e][m]	Mesua ferrea	NR	Rasol 2017
234.3	R1 = i-Bu R2 = CHPhCH2CO2H R3 = prenyl	mesuaferroic acid C[e][m]	Mesua ferrea	NR	Rasol 2017
234.4	R1 = i-Bu R2 = CHPhCH2CO2H R3 = CH2CHOHCMe2OH	mesuaferroic acid F[e][m]	Mesua ferrea	NR	Rasol 2017
234.5	R1 = Ph R2 = prenyl R3 = prenyl	sampsonione P, a.k.a. hyperscabrone L	H. sampsonii, H. scabrum	+18.6 (0.022), +40.0 (0.1, m)	W. Gao 2016b, Xiao 2007
234.6	R1 = Ph R2 = prenyl R3 = (R)-CH2CHOHCMe2OH	hypersampsone V[k]	H. sampsonii	+13.0 (0.50)	W.-J. Tian 2016
234.7	R1 = Ph R2 = prenyl R3 = (S)-CH2CHOHCMe2OH	hypersampsone W[k]	H. sampsonii	+0.60 (0.50)	W.-J. Tian 2016
235
235.1	R1 = s-Bu R2 = CHPhCH2CO2H R3 = prenyl	mesuaferroic acid B[e][m]	Mesua ferrea	NR	Rasol 2017
235.2	R1 = CH2CMe2OH R2 = CHPhCH2CO2H R3 = prenyl	mesuaferroic acid J[e]	Mesua ferrea	+4.25 (0.2, m)	X.-C. Zhang, 2020
235.3	R1 = Ph R2 = prenyl R3 = prenyl	hyperattenin E, a.k.a. hyperibrin D[d]	H. scabrum	−13.0 (0.19, m)	D. Li 2015a, W. Gao 2016c, X.-W. Yang 2018
235.4	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (S)-6,6-dimethyl-2-methylenecyclohexylmethyl	paucinone D	G. paucinervis	+41.6 (0.11, m)	X.-M. Gao 2010
236		paucinone A	G. paucinervis	−6.2 (0.05, m)	X.-M. Gao 2010
237		paucinone B	G. paucinervis	+58.7 (0.10, m)	X.-M. Gao 2010
238		paucinone C	G. paucinervis	+19.2 (0.17, m)	X.-M. Gao 2010
239		garcicowin A	G. cowa	−219.0 (0.09)	G. Xu 2010
240		garcowacinol D[d]	G. cowa	+37.0 (0.50, m)	Kaennakam 2022b
241
241.1	R1 = Ph R2 = H R3 = H R4 = prenyl R5 = prenyl	garcowacinol C[d]	G. cowa	+28.5 (0.50, m)	Kaennakam 2022b
241.2	R1 = Ph R2 = H R3 = OH R4 = geranyl R5 = H	oblongifolin S[d][l][m]	G. oblongifolia	−37.8 (0.04, m)	H. Zhang 2014a
241.3	R1 = 3,4-hydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl R5 = H	xanthochymusone G[d]	G. xanthochymus	−141 (0.1, m)	Z.-H. Xu 2022
242
242.1	R1 = Ph R2 = H R3 = H R4 = (E)-CH=CHCMe=O	oblongifolin W[d]	G. oblongifolia	+20.0 (0.03, m)	H. Zhang 2016
242.2	R1 = Ph R2 = prenyl R3 = prenyl R4 = prenyl	13,14-didehydroxy-7-epi-isogarcinol	G. multiflora	−185 (0.13)	J.-J. Chen 2009, X. Wang 2021a
242.3	R1 = 3-hydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl	14-deoxy-7-epi-isogarcinol	S. globulifera	−77 (0.9)	Marti 2010
242.4	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = prenyl	7-epi-isogarcinol	M. coccinea, S. globulifera	−158 (1.0)	Marti 2009, Marti 2010
242.5	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = 3-methylbutyl	epunctanone	G. epunctata Stapf	+24.9 (0.00985, a)	Fotso 2014
242.6	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe=CH2	symphonone A	S. globulifera	−37 (0.7)	Marti 2010
242.7	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = (E)-CH=CHCMe2OH	symphonone C	S. globulifera	−67 (1.0)	Marti 2010
242.8	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = prenyl R4 = geranyl	symphonone B	S. globulifera	−81 (1.0)	Marti 2010
242.9	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = (E)-CH=CHCMe2OH R4 = prenyl	7-epi-coccinone B	S. globulifera	−50 (0.9)	Marti 2010
242.10	R1 = 3,4-hydroxyphenyl R2 = prenyl R3 = CH2CH2CMe=CH2 R4 = prenyl	xanthochymusone F[d]	G. xanthochymus	+141 (0.1, m)	Z.-H. Xu 2022
242.11	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = CH2CHOHCMe2OH R4 = prenyl	symphonone D[e]	S. globulifera	−41 (0.4)	Marti 2010
242.12	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = CH2CHOHCMe2OH R4 = prenyl	symphonone E[e] (diastereomer)	S. globulifera	−50 (0.4)	Marti 2010
243
243.1	R1 = Ph R2 = H R3 = H R4 = CH2CO2H	oblongifolin Y[d]	G. oblongifolia	+24.1 (0.06, m)	H. Zhang 2016
243.2	R1 = Ph R2 = prenyl R3 = OH R4 = prenyl	hypersampsonone J[d]	H. sampsonii	+17.5 (1.0, m)	Y. Li 2023
243.3	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = CH2CH2CMe=CH2 R4 = CH2CHOHCMe=CH2	guttiferone T[e]	G. cochinchinensis	−14 (0.3)	Trinh 2013
244
244.1	R1 = Ph R2 = Me R3 = prenyl R4 = prenyl R5 = prenyl	13,14-didehydroxyisoxanthochymol[d]	G. multiflora	+205.7 (0.15)	L.-Y. Cheng 2018b
244.2	R1 = Ph R2 = Me R3 = prenyl R4 = prenyl R5 = prenyl	garcimultinone M[c] (enantiomer)	G. multiflora	−114.44 (0.02, m)	Teng 2021
244.3	R1 = 3-hydroxyphenyl R2 = Me R3 = prenyl R4 = prenyl R5 = prenyl	14-deoxyisogarcinol	G. indica	−178.0 (0.1, m)	Kaur 2012
244.4	R1 = 3-hydroxyphenyl R2 = Me R3 = CH2CH2CMe=CH2 R4 = prenyl R5 = prenyl	xanthochymusone C[d]	G. xanthochymus	+132 (0.1, m)	Z.-H. Xu 2022
244.5	R1 = 3,4-dihydroxyphenyl R2 = Me R3 = prenyl R4 = prenyl R5 = prenyl	isoxanthochymol[d]	G. pyrifera, G. subelliptica, G. xanthochymus, G. ovafolia	+181 (0.6, e)	Karanjgoakar 1973, Gustafson 1992, Iinuma 1996, Roux 2000, Baggett 2005, Socolsky 2015
244.6	R1 = 3,4-dihydroxyphenyl R2 = Me R3 = prenyl R4 = prenyl R5 = prenyl	isogarcinol, a.k.a. cambogin, a.k.a. 30-epi-cambogin[c] (enantiomer)	G. indica, G. cambogia, G. cochinchinensis, G. cowa, G. pedunculata	−224 (0.1, m)	Rama Rao 1980, Krishnamurthy 1981, Krishnamurthy 1982, Sahu 1989, Fuller 1999, G. Xu 2010, Trinh 2013, Socolsky 2015, Zheng 2021a, X. Wang 2021a
244.7	R1 = 3,4-hydroxyphenyl R2 = Me R3 = prenyl R4 = CH2CH2CMe2OH R5 = prenyl	xanthochymusone D[d]	G. xanthochymus	+186 (0.1, m)	Z.-H. Xu 2022
244.8	R1 = 3,4-dihydroxyphenyl R2 = Me R3 = CH2CH2CMe=CH2 R4 = prenyl R5 = prenyl	(+)-cycloxanthochymol	G. pyrifera, G. subelliptica, M. coccinea	+112 (1)	Iinuma 1996, Roux 2000, Marti 2009
244.9	R1 = 3,4-dihydroxyphenyl R2 = Me R3 = CH2CH2CMe=CH2 R4 = prenyl R5 = prenyl	(−)-cycloxanthochymol[j] (enantiomer)	G. subelliptica	−80.9 (2.20, m)	L.-J. Zhang 2010
244.10	R1 = 3,4-dihydroxyphenyl R2 = Me R3 = prenyl R4 = CH2CHOHCMe2OH R5 = prenyl	coccinone D[e]	M. coccinea	−76 (0.4)	Marti 2009
244.11	R1 = 3,4-dihydroxyphenyl R2 = Me R3 = prenyl R4 = CH2CHOHCMe2OH R5 = prenyl	coccinone E[e] (diastereomer)	M. coccinea	−70 (0.3)	Marti 2009
244.12	R1 = 3,4-hydroxyphenyl R2 = Me R3 = CH2CH2CMe=CH2 R4 = CH2CH2CMe2OH R5 = prenyl	xanthochymusone E[d]	G. xanthochymus	+117 (0.1, m)	Z.-H. Xu 2022
244.13	R1 = 3,4-dihydroxyphenyl R2 = Me R3 = CH2CH2CMe2OH R4 = prenyl R5 = prenyl	coccinone C	M. coccinea	−60 (0.2)	Marti 2009
244.14	R1 = 3,4-dihydroxyphenyl R2 = Me R3 = (S)-CH2CH(OH)CMe=CH2 R4 = prenyl R5 = prenyl	garpedvinin F[c]	G. pedunculata Roxb.	−118.3 (0.1, m)	D.-L. Zou 2025
244.15	R1 = 3,4-dihydroxyphenyl R2 = Me R3 = CH2CH2CMe2OH R4 = (S)-CH2CHOHCMe2OH R5 = CH2CH2CMe2OH	garcixanthochymone H[d]	G. xanthochymus	+31.6 (0.25, m)	Jin 2021
244.16	R1 = 3,4-dihydroxyphenyl R2 = Me R3 = CH2CH2CMe2OH R4 = (R)-CH2CHOHCMe2OH R5 = CH2CH2CMe2OH	garcixanthochymone I[d]	G. xanthochymus	+17.8 (0.33, m)	Jin 2021
244.17	R1 = 3,4-dihydroxyphenyl R2 = Me R3 = CH2COCMe=CH2 R4 = prenyl R5 = prenyl	garcixanthochymone F[d]	G. xanthochymus	+55.3 (0.21, m)	Jin 2021
244.18	R1 = 3,4-dihydroxyphenyl R2 = Me R3 = (E)-CH=CHCMe2OH R4 = prenyl R5 = prenyl	coccinone B	M. coccinea	−55 (0.3)	Marti 2009
244.19	R1 = 3,4-dihydroxyphenyl R2 = CH2OH R3 = prenyl R4 = prenyl R5 = prenyl	garynthone H	G. yunnanensis	racemic; +160.00 (0.1, m) and −182.25 (0.1, m)	Z. Guo 2025
244.20	R1 = 3,4-dihydroxyphenyl R2 = CH2OH R3 = CH2CH2CMe=CH2 R4 = prenyl R5 = prenyl	garynthone I[d]	G. yunnanensis	+96.5 (0.1, m)	Z. Guo 2025
245		garpedvinin E[c]	G. pedunculata Roxb.	−86.6 (0.30, m)	D.-L. Zou 2025
246		garpedvinin A[c]	G. pedunculata Roxb.	−86.6 (0.30, m)	D.-L. Zou 2025
247		garciesculentone A[m]	G. esculenta	−116.5 (0.06, m)	H. Zhang 2014b
248		garcinialiptone B	G. subelliptica	+84.8 (5.40, m)	L.-J. Zhang 2010
249		garcicowin D	G. cowa	+336.0 (0.12)	G. Xu 2010, Z.-H. Xu 2022
250
250.1	R1 = Ph R2 = CH=CMe2	13,14-didehydroxygarcicowin C[c]	G. multiflora	−68.6 (0.18)	L.-Y. Cheng 2018b, Y.-G. Fu 2025
250.2	R1 = 3-hydroxyphenyl R2 = CH=CMe2	xanthochymusone H[d]	G. xanthochymus	+60 (0.1, m)	Z.-H. Xu 2022
250.3	R1 = 3,4-dihydroxyphenyl R2 = CH=CMe2	garcicowin C[c]	G. cowa	−72.1 (0.10)	G. Xu 2010, Z.-H. Xu 2022
250.4	R1 = 3,4-dihydroxyphenyl R2 = CH=CMe2	xanthochymusone I[d] (enantiomer)	G. xanthochymus	+69 (0.1, m)	Z.-H. Xu 2022
250.5	R1 = 3,4-dihydroxyphenyl R2 = (R)-CH(OH)CMe2OH	garynthone G	G. yunnanensis	racemic; +160 (0.1, m) and −76.85 (0.1, m)	Z. Guo 2025
250.6	R1 = 3,4-dihydroxyphenyl R2 = (R)-CH(OH)CMe2OMe	garynthone F	G. yunnanensis	racemic; +114.47 (0.1, m) and −135.64 (0.1, m)	Z. Guo 2025
251		garpedvinin D[c]	G. pedunculata Roxb.	−54.6 (0.1, m)	D.-L. Zou 2025
252		garcoblone E[c]	G. oblongifolia, G. yunnanensis	−44.5 (1.0, m)	Z. Wu 2022, Z. Guo 2025
253		coccinone A	M. coccinea	+28 (1.0)	Marti 2009
254		garpedvinin B[c]	G. pedunculata Roxb.	−65.5 (0.1, m)	D.-L. Zou 2025
255		garpedvinin C[c]	G. pedunculata Roxb.	−68.8 (0.1, m)	D.-L. Zou 2025
256
256.1	R = Ph	garcimultiflorone B	G. multiflora	−132 (0.96)	J.-J. Chen 2009
256.2	R = 3-hydroxyphenyl	13-hydroxygarcimultiflorone B	G. multiflora	−115 (0.13)	J.-J. Chen 2009
257		hyperascyrin M[d]	H. ascyron	− 57.2 (0.1, m)	B. Zhen 2019
258
258.1	R = CH2CH2CHMeCO2H	garschomcinol E[d][e]	G. schomburgkiana	+12.5 (0.20, m)	Kaennakam 2022a
258.2	R = geranyl	garschomcinol D[d]	G. schomburgkiana	+13.1 (0.30, m)	Kaennakam 2022a
259
259.1	R1 = H R2 = prenyl R3 = prenyl	guttiferone S	G. cochinchinensis	−10 (0.28, m)	H. D. Nguyen 2011, Le 2016
259.2	R1 = prenyl R2 = Me R3 = prenyl	longistylione D[c]	H. longistylum	+19.5 (0.13, mc)	X. Cao 2017
259.3	R1 = prenyl R2 = Me R3 = (E)-CH=CHCMe2OH	ascyrone C[d]	H. ascyron	+78 (0.06, m)	Deng 2022
259.4	R1 = prenyl R2 = Me R3 = (E)-CH=CHC(Me)=CH2	ascyrone E[d]	H. ascyron	+3 (0.09, MeOH)	Deng 2022
260
260.1	R1 = Ph R2 = H R3 = prenyl R4 = prenyl R5 = CMe=CH2	garcowacinol J[d]	G. cowa	+18.0 (0.10, m)	Kaennakam 2022b
260.2	R1 = Ph R2 = H R3 = prenyl R4 = prenyl R5 = CMe2OH	garcowacinol I[d]	G. cowa	+13.5 (0.10, m)	Kaennakam 2022b
260.3	R1 = Ph R2 = prenyl R3 = Me R4 = prenyl R5 = CMe2OH	longistylione C[c]	H. longistylum	+154.3 (0.33, mc)	X. Cao 2017
260.4	R1 = Ph R2 = prenyl R3 = Me R4 = (E)-CH=CHCMe2OH R5 = CMe2OH	ascyrone D[d]	H. ascyron	+11 (0.11, m)	Deng 2022
260.5	R1 = Ph R2 = (E)-CH=CHCMe2OH R3 = Me R4 = prenyl R5 = CMe2OH	ascyrone A[d]	H. ascyron	+6 (0.05, m)	Deng 2022
260.6	R1 = Ph R2 = (E)-CH=CHCMe2OH R3 = Me R4 = (E)-CH=CHCMe2OH R5 = CMe2OH	ascyrone B[d]	H. ascyron	+34 (0.16, m)	Deng 2022
260.7	R1 = 3,4-dihydroxyphenyl R2 = H R3 = prenyl R4 = geranyl R5 = CMe2OH	schomburgkianone E[d]	G. schomburgkiana	+104 (0.4)	Le 2016
261		guttiferone H[e]	G. xanthochymus	+94 (0.006)	Baggett 2005
262		garcixanthochymone K[d]	G. xanthochymus	−37.9 (0.20, m)	Jin 2021
263		burlemarxione E	C. burlemarxii	+11.0 (0.5)	Ferraz 2021
264		hyperprin A[d]	H. przewalskii	−4.0 (0.10, m)	Zong 2020
265
265.1	R = prenyl X = OH	garciyunnanol D[d]	G. yunnanensis	+158 (0.64, m)	X.-Y. Hu 2024
265.2	R = geranyl X = H	garciyunnanol C[d]	G. yunnanensis	+17 (0.18, m)	X.-Y. Hu 2024
265.3	R = geranyl X = OH	garciyunnanol B[d]	G. yunnanensis	+115 (0.39, m)	X.-Y. Hu 2024
266		garciyunnanol A[d]	G. yunnanensis	+14 (0.16, m)	X.-Y. Hu 2024
267		thoreliolide A[d][e]	Calophyllum thorelii	+82.0 (0.45, e)	L.-T. T. Nguyen 2016
268		thoreliolide B[d]	Calophyllum thorelii	−51.2 (0.75, e)	L.-T. Nguyen 2016
269
269.1	R1 = Ph R2 = prenyl R3 = CH=CMe2 R4 = prenyl	hyperibone K[d]	H. scabrum	+22.3 (0.3)	Tanaka 2004, Qi 2010
269.2	R1 = Ph R2 = prenyl R3 = CH=CMe2 R4 = (E)-4-oxo-3-methyl-2-buten-1-yl	hypersampsonone K[d]	H. sampsonii	−7.5 (1.0, m)	Y. Li 2023
269.3	R1 = Ph R2 = prenyl R3 = CH2C(=O)CH3 R4 = prenyl	hyperibrin E[d]	H. scabrum	+47.3 ( 0.06, m)	J. Hu 2017
269.4	R1 = 3-hydroxyphenyl R2 = prenyl R3 = CH=CMe2 R4 = prenyl	18-hydroxyhyperibone K	H. hypericoides	NR	Christian 2008
269.5	R1 = 3,4-dihydroxyphenyl R2 = prenyl R3 = CH2C(=O)CH3 R4 = prenyl	oblongifolin K[c]	G. oblongifolia	+55.4 (0.07, m)	H. Zhang 2014a
269.6	R1 = 3,4-dihydroxyphenyl R2 = lavandulyl R3 = CH=CMe2 R4 = prenyl	garciniagifolone A[e]	G. oblongifolia	+7.0 (0.09, m)	W.-G. Shan 2012
269.7	R1 = 3,4-dihydroxyphenyl R2 = 2,4,4-trimethyl-1-cyclohexen-1-ylmethyl R3 = CH=CMe2 R4 = prenyl	garpauvinin A[d]	G. paucinervis	−49.86 (c 0.91, m)	C.-C. Jia 2023
269.8	R1 = 3,4-dihydroxyphenyl R2 = isolavandulyl[g] R3 = CH=CMe2 R4 = prenyl	(+)-garcinialiptone A[e][j]	G. subelliptica	+12.1 (3.40, m)	L.-J. Zhang 2010
269.9	R1 = 3,4-dihydroxyphenyl R2 = isolavandulyl[g] R3 = CH=CMe2 R4 = prenyl	(−)-garcinialiptone A[e][j] (enantiomer)	G. subelliptica, G. yunnanensis	−17.3 (3.36, m)	L.-J. Zhang 2010
269.10	R1 = 3,4-dihydroxyphenyl R2 = CH2CH(CMe=CH2)CH2CH2CMe2OH R3 = CH=CMe2 R4 = prenyl	garcixanthochymone A[e]	G. xanthochymus	−13.8 (0.660, m)	Y. Chen 2017
269.11	R1 = 3,4-dihydroxyphenyl R2 = (E)-CH2CH(CMe=CH2)CH=CHCMe2OH R3 = CH=CMe2 R4 = prenyl	garciyunnanensisin B[d][e]	G. yunnanensis	−130.8 (0.1, m)	P.-X. Ji 2025
269.12	R1 = 3,4-dihydroxyphenyl R2 = (S)-lavandulyl R3 = (R)-3,3-dimethyloxiran-2-yl R4 = prenyl	garpedvinin I[d]	G. pedunculata Roxb.	−54.7 (0.1, m)	D.-L. Zou 2025
269.13	R1 = 3,4-dihydroxyphenyl R2 = (2R,4S)-CH2CH(CMe=CH2)CH2CH(OOH)CMe=CH2 R3 = CH=CMe2 R4 = prenyl	garpedvinin J[d]	G. pedunculata Roxb.	−79.0 (0.1, m)	D.-L. Zou 2025
269.14	R1 = 3,4-dihydroxyphenyl R2 = (S,E)-CH2CH(CMe=CH2)CH=CHCMe2OH R3 = CH=CMe2 R4 = prenyl	garpedvinin H[d]	G. pedunculata Roxb.	−79.0 (0.1, m)	D.-L. Zou 2025
269.15	R1 = 3,4-dihydroxyphenyl R2 = (S,E)-CH2CH(CMe=CH2)CH=CHCMe2OOH R3 = CH=CMe2 R4 = prenyl	garpedvinin G[d]	G. pedunculata Roxb.	−118.3 (0.1, m)	D.-L. Zou 2025
269.16	R1 = 3,4-dihydroxyphenyl R2 = 4-hydroxyisolavandulyl[g] R3 = CH=CMe2 R4 = prenyl	garcixanthochymone B[e]	G. xanthochymus	−0.81 (0.410, m)	Y. Chen 2017
269.17	R1 = 3,4-dihydroxyphenyl R2 = isolavandulyl[g] R3 = OH R4 = prenyl	garciyunnanensisin A[d][e]	G. yunnanensis	−150.2 (0.1, m)	P.-X. Ji 2025
270		garcixanthochymone C	G. xanthochymus	+51.0 (0.400, m)	Y. Chen 2017
271		oblongifolin J[c]	G. oblongifolia	+8.6 (0.03, m)	H. Zhang 2014a
272		hypersampsone R (one of two by that name)	H. sampsonii	+160 (0.1)	J.-J. Chen 2014
273		garcimultiflorone C[e]	G. multiflora	−25.3 (0.12)	J.-J. Chen 2009
274
274.1	R = (S)-lavandulyl	garynthone B	G. yunnanensis	racemic; +28.70 (0.1, m) and −30.33 (0.1, m)	Z. Guo 2025
274.2	R = (S)-isolavandulyl[g]	garynthone C[d]	G. yunnanensis	+7.85 (0.1, m)	Z. Guo 2025
275		soniiglucinol A[c]	H. wilsonii	−74.0 (0.2, m)	Xie 2020a
276		soniiglucinol B[c][e]	H. wilsonii	−139.4 (0.4, m)	Xie 2020a
277
277.1	R1 = i-Pr R2 = prenyl	hypersonin A[c]	H. wilsonii	−13 (0.9, m)	Xie 2020b
277.2	R1 = i-Pr R2 = geranyl	hypersonin C[c]	H. wilsonii	−2 (0.4, m)	Xie 2020b
277.3	R1 = s-Bu R2 = prenyl	hypersonin B[c][e]	H. wilsonii	+3 (0.9, m)	Xie 2020b
278		hypersonin D[c][e]	H. wilsonii	−1 (0.2, m)	Xie 2020b
279		soniiglucinol C[c]	H. wilsonii	−151.3 (0.3, m)	Xie 2020a
280		soniiglucinol D[c]	H. wilsonii	−24.9 (0.2, m)	Xie 2020a
281		enaimeone A	H. papuanum	+27.8 (0.1, m)	Winkelmann 2001b, zur Bonsen 2023
282
282.1	R = i-Pr	enaimeone B	H. papuanum	+29.4 (0.1, m)	Winkelmann 2001b, zur Bonsen 2023
282.2	R = s-Bu	enaimeone C[e]	H. papuanum	+32.9 (0.1, m)	Winkelmann 2001b, zur Bonsen 2023
283
283.1	R1 = H R2 = geranyl	hyperxylone B[c]	H. beanii	+41 (0.09, m)	X.-Y. Li 2022
283.2	R1 = prenyl R2 = prenyl	hyperxylone A[c]	H. beanii	+38 (0.08, m)	X.-Y. Li 2022
284
284.1	R1 = i-Pr R2 = CMe=CH2	ialibinone A	H. papuanum	−22 (0.1)	Winkelmann 2000
284.2	R1 = i-Pr R2 = CMe2OH	1′-hydroxyialibinone A	H. papuanum	+3.7 (0.1, m)	Winkelmann 2001b
284.3	R1 = i-Pr R2 = C(=CH2)CH2CH2CH=CMe2	yezo'otogirin E	H. yezoense	+21.4 (1.7, m)	Tanaka 2016a
284.4	R1 = s-Bu R2 = CMe=CH2	ialibinone C[e]	H. papuanum	−26 (0.1)	Winkelmann 2000
285
285.1	R1 = i-Pr R2 = H	ialibinone E	H. papuanum	−33 (0.1)	Winkelmann 2000
285.2	R1 = i-Pr R2 = CMe=CH2	ialibinone B	H. papuanum	−91 (0.1)	Winkelmann 2000
285.3	R1 = i-Pr R2 = CMe2OH	1′-hydroxyialibinone B	H. papuanum	−35.7 (0.1, m)	Winkelmann 2001b
285.4	R1 = i-Pr R2 = C(=CH2)CH2CH2CH=CMe2	yezo'otogirin F	H. yezoense	+75.9 (1.7, m)	Tanaka 2016a
285.5	R1 = s-Bu R2 = CMe=CH2	ialibinone D[e]	H. papuanum	−72 (0.1)	Winkelmann 2000
285.6	R1 = s-Bu R2 = CMe2OH	1′-hydroxyialibinone D[e]	H. papuanum	−30.3 (0.1, m)	Winkelmann 2001b
286		lancasternoid A	H. lancasteri	racemic	J.-Q. You 2025
287		lancasternoid B	H. lancasteri	racemic	J.-Q. You 2025
288		lancasternoid C	H. lancasteri	racemic	J.-Q. You 2025
289		lancasternoid D	H. lancasteri	racemic	J.-Q. You 2025
290		takaneone A	H. sikokumontanum	+30.0 (0.2, m)	Tanaka 2008
291		takaneone B	H. sikokumontanum	+24.0 (0.3, m)	Tanaka 2008
292
292.1	R = COCH3	takaneone C	H. sikokumontanum	+61.9 (0.4, m)	Tanaka 2008
292.2	R = C(=CH2)CH2CH2CH=CMe2	hyperelodione E[d]	H. elodeoides	+44.0 (0.24, m)	D.-R. Qiu 2021
293		hyperelodione F[d]	H. elodeoides	+24.8 (0.33, m)	D.-R. Qiu 2021
294		garcibracgluinol A[c]	G. bracteata	+141.4 (0.02, m)	J. Xu 2025
295		no common name	H. scabrum	+30.5 (1.0)	Soroury 2020
296		hyperireflexolide A[c]	H. beanni	0 (1.54)	Cardona 1993
297		hyperireflexolide B[c]	H. beanni	0 (0.74)	Cardona 1993, zur Bonsen 2023
298		hyperberlone A[c]	H. beanni	0 (0.74)	Y.-W. Li 2022
299
299.1		garcinielliptone HG[c]	G. subelliptica	−17 (0.02, m)	Liaw 2019
299.2		garcinielliptone HH[d] (enantiomer)	G. subelliptica	+16 (0.05, m)	Liaw 2019
300
300.1	R1 = prenyl R2 = H R3 = prenyl	(−)-nemorosonol, a.k.a. burlemarxione C[c]	C. burle-marxii, T. japonicum	−207 (0.7), −48 (1.35)	Oya 2015, Ferraz 2019, M. do C. C. Silva 2024
300.2	R1 = prenyl R2 = H R3 = prenyl	(+)-nemorosonol[d] (enantiomer)	C. nemorosa	+203 (0.7)	Delle Monache 1988, Cerrini 1993
300.3	R1 = prenyl R2 = H R3 = cis-3-isopropenyl-2,2-dimethylcyclopentyl	garmultinone D[d][e]	G. multiflora	+172.5 (0.04, m)	Y. Chen 2019b
300.4	R1 = CH2CH2CMe=CH2 R2 = H R3 = prenyl	doitunggarcinone B, a.k.a. burlemarxione G	C burle-marxii, G. propinqua	−129 (0.054), −14.0 (0.5)	Tantapakul 2012, Pepper 2012, Ferraz 2021, M. do C. C. Silva 2024
300.5	R1 = prenyl R2 = prenyl R3 = prenyl	ascyronone E, a.k.a. hypatulin C[d][w]	H. ascyron, H. patulum	−86.8 (0.1, m), +102.5 (0.3, m)	Z. P. Li 2019, Tanaka 2019
301		trijapin A[c]	T. japonicum	−25 (0.2, m)	Oya 2015
302
302.1	R = prenyl	trijapin B	T. japonicum	−200 (0.1, m)	Oya 2015
302.2	R = CH2CH2CMe=CH2	garcibracteamone J[c]	G. bracteata	−169 (0.02, m)	Q. Xue 2020
303		trijapin C	T. japonicum	+38 (0.04, m)	Oya 2015
304
304.1	R = prenyl	garmultinone A[d]	G. multiflora	+176.4 (0.04, m)	Y. Chen 2019b
304.2	R = (E)-CH=CHCMe2OOH	garmultinone C[d]	G. multiflora	+207.2 (0.02, m)	Y. Chen 2019b
305
305.1	R = Ph	garmultinone B[d]	G. multiflora	+173.9 (0.06, m)	Y. Chen 2019b
305.2	R = 3-hydroxyphenyl	30-hydroxy-garmultinone B[d]	G. multiflora	+25.0 (0.1, m)	J. Cao 2024
306		garmultinone E[d] (one of two by that name)	G. multiflora	+85.0 (0.1, m)	J. Cao 2024
307		garmultinone F[d]	G. multiflora	+141.0 (0.1, m)	J. Cao 2024
308
308.1	R1 = prenyl R2 = prenyl	(−)-garcimulin A[c]	G. multiflora	−142.9 (0.11, m)	Fan 2015
308.2	R1 = prenyl R2 = prenyl	(+)-garcimulin A[d] (enantiomer)	G. multiflora	+115.1 (0.11, m)	Fan 2015
308.3	R1 = CH2CH2CMe=CH2 R2 = prenyl	garcimulin B[c]	G. multiflora	−118.5 (0.21, m)	Fan 2015
308.4	R1 = CH2CH2CMe2OH R2 = prenyl	garcimulin C[d]	G. multiflora	+67.0 (0.1, m)	J. Cao 2024
309
309.1	R1 = prenyl R2 = prenyl	(−)-garmultin D[c]	G. multiflora	−166.7 (0.28, m)	D. S. Tian 2016
309.2	R1 = prenyl R2 = prenyl	(+)-garmultin D[d] (enantiomer)	G. multiflora	+164.9 (0.30, m)	D. S. Tian 2016
309.3	R1 = prenyl R2 = CH2CH2CMe2OH	garmultin H[d]	G. multiflora	+77.0 (0.1, m)	H. Luo 2025
309.4	R1 = CH2CH2CMe=CH2 R2 = prenyl	garmultin E[d]	G. multiflora	−79.2 (0.29, m)	D. S. Tian 2016
310
310.1		(−)-garmultin C[c]	G. multiflora	−85.0 (0.20, m)	D. S. Tian 2016
310.2		(+)-garmultin C[d] (enantiomer)	G. multiflora	+72.6 (0.23, m)	D. S. Tian 2016
311
311.1	R = prenyl	(−)-garmultin A[c]	G. multiflora	−112.8 (0.24, a)	D. S. Tian 2016
311.2	R = prenyl	(+)-garmultin A[d] (enantiomer)	G. multiflora	+110.2 (0.22, a)	D. S. Tian 2016
311.3	R = CH2CH2CMe=CH2	garmultin B[d]	G. multiflora	−53.0 (0.37, m)	D. S. Tian 2016
312
312.1	R = prenyl	(−)-garmultin F[c]	G. multiflora	−39.0 (0.32, m)	D. S. Tian 2016
312.2	R = prenyl	(+)-garmultin F[d] (enantiomer)	G. multiflora	+30.2 (0.37, m)	D. S. Tian 2016
312.3	R = CH2CH2CMe=CH2	garmultin G[d]	G. multiflora	−20.4 (0.25, m)	D. S. Tian 2016
313		hyperuralone A[d]	H. uralum	+34.3 (0.2, m)	J.-J. Zhang 2014b
314		hyperforcinol B[d]	H. forrestii	+72 (0.2, m)	W.-J. Lu 2021
315		uralin A, a.k.a. hyperacmosin N[d]	H. acmosepalum, H. uralum	+71 (0.2, m), +47.3 (0.1, m)	Q.-Q. Fang 2021, M.-x. Sun 2021b
316		burlemarxione A	C. burlemarxii	−113.0 (1.35)	Ferraz 2019
317
317.1	R = prenyl	garcibractinone B[c]	G. bracteata	+20 (0.05, m)	Y. Chen 2020
317.2	R = CH2CH2CMe=CH2	garcibractinone A[c]	G. bracteata	+72 (0.05, m)	Y. Chen 2020
318		hypatulin A[c]	H. patulum	+40 (0.05, m)	Tanaka 2016b
319		hyperforcinol C[c]	H. forrestii	+30 (0.2, m)	W.-J. Lu 2021
320		hypatulin B	H. patulum	+27.0 (0.17, m)	Tanaka 2016b
321
321.1	R1 = X1 = H R2 = X2 = OH	garcimultiflin D[d]	G. multiflora	+10.0 (1.0, m)	H. Luo 2025
321.2	R1 = X1 = OH R2 = X2 = H	garcimultiflin A[d]	G. multiflora	−15.0 (1.0, m)	J. Cao 2023
322		garcimultiflin B[d]	G. multiflora	−10.0 (1.0, m)	J. Cao 2023
323		garcimultiflin C[d]	G. multiflora	+11.0 (1.0, m)	J. Cao 2023
324
324.1	R1 = prenyl R2 = H R3 = H R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	garcibracteatone	G. bracteata	−1 (1.00)	Thoison 2005
324.2	R1 = prenyl R2 = H R3 = H R4 = prenyl R5 = X1 = H R6 = X2 = OH R7 = X3 = OH	garcixanthochymone E	G. xanthochymus	+9.49 (0.604, m)	Y. Chen 2017
324.3	R1 = prenyl R2 = H R3 = H R4 = (E)-CH=CHCMe2OH R5 = X1 = H R6 = X2 = H R7 = X3 = H	garcibracteatone D[c]	G. bracteata	−74.4 (0.01, m)	X.-N. Li 2023
324.4	R1 = prenyl R2 = H R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyphenrone L, a.k.a. hypelodin B[d]	H. elodeoides, H. henryi, H. sampsonii	−6.5 (2.9, m), −12 (0.1, m)	C. Hashida 2014, X.-W. Yang 2015, Tanaka 2019
324.5	R1 = prenyl R2 = H R3 = prenyl R4 = (E)-CH=CHCMe2OOH R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyperkouytone K[d]	H. kouytchense	−20.0 (0.27, m)	H.-Y. Lou 2024
324.6	R1 = prenyl R2 = (E)-CH=CHCMe2OH R3 = H R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyperuralone B[d]	H. uralum	−14.6 (0.14, m)	J.-J. Zhang 2014b
324.7	R1 = prenyl R2 = (E)-CH=CHCMe2OOH R3 = H R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyperberlone B[d]	H. beanii	−8.9 (0.4, m)	Y.-W. Li 2022
324.8	R1 = CH2CH2CMe=CH2 R2 = H R3 = H R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	doitunggarcinone A	G. propinqua	−133.3 (0.015)	Tantapakul 2012, Pepper 2012
324.9	R1 = CH2CH2CMe=CH2 R2 = H R3 = H R4 = prenyl R5 = X1 = H R6 = X2 = OH R7 = X3 = OH	garcixanthochymone D	G. xanthochymus	+22.7 (0.577, m)	Y. Chen 2017
324.10	R1 = CH2CH2CMe=CH2 R2 = H R3 = H R4 = (E)-CH=CHCMe2OH R5 = X1 = H R6 = X2 = H R7 = X3 = H	garcibracteatone E[c]	G. bracteata	+3.63 (0.05, m)	X.-N. Li 2023
324.11	R1 = CH2CH2CMe2OH R2 = H R3 = H R4 = CH2CH2CMe2OH R5 = X1 = OH R6 = X2 = OH R7 = X3 = H	hyphenrone Y[d] (one of two by that name)	G. multiflora	−31.0 (0.1, m)	J. Cao 2024
324.12	R1 = (R)-CH2CH(OH)CMe=CH2 R2 = H R3 = H R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	garcibracteatone A[c]	G. bracteata	+34.8 (0.25, m)	X.-N. Li 2023
324.13	R1 = (R)-CH2CH(OH)CMe2OH R2 = H R3 = H R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	garcibracteatone B[c]	G. bracteata	+8.08 (0.06, m)	X.-N. Li 2023
324.14	R1 = (S)-CH2CH(OH)CMe2OH R2 = H R3 = H R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	garcibracteatone C[c]	G. bracteata	+46.18 (0.05, m)	X.-N. Li 2023
324.15	R1 = (R)-CH2CH(OH)CMe2OH R2 = H R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyperpatuone B[d]	H. patulum	−18.2 (0.3, m)	F. Zhang 2026
324.16	R1 = (S)-CH2CH(OH)CMe2OH R2 = H R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyperpatuone A[d]	H. patulum	−22.5 (0.3, m)	F. Zhang 2026
324.17	R1 = (R)-CH2CH(OH)CMe2OMe R2 = H R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyperpatuone D[d]	H. patulum	−26.1 (0.3, m)	F. Zhang 2026
324.18	R1 = (S)-CH2CH(OH)CMe2OMe R2 = H R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyperpatuone C[d]	H. patulum	−23.6 (0.3, m)	F. Zhang 2026
324.19	R1 = (R)-CH2CH(OH)CMe=CH2 R2 = H R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyperpatuone F[d]	H. patulum	−15.2 (0.3, m)	F. Zhang 2026
324.20	R1 = (S)-CH2CH(OH)CMe=CH2 R2 = H R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyperpatuone E[d]	H. patulum	−17.95 (0.3, m)	F. Zhang 2026
324.21	R1 = (R)-2,3-epoxy-3-methylbutyl R2 = H R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyperkouytone L, a.k.a. hyperpatuone H[d]	H. kouytchense, H. patulum	−42.6 (0.33, m), −19.8 (0.3, m)	H.-Y. Lou 2024, F. Zhang 2026
324.22	R1 = (S)-2,3-epoxy-3-methylbutyl R2 = H R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyperpatuone G[d]	H. patulum	−15.2 (0.3, m)	F. Zhang 2026
324.23	R1 = (E)-CH=CHCMe2OH R2 = H R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyphenrone R	H. henryi H. Lév & Vaniot	−15 (0.15, m)	Liao 2016
324.24	R1 = (E)-CH=CHCMe2OOH R2 = H R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyphenrone S	H. henryi H. Lév & Vaniot	−14 (0.12, m)	Liao 2016
324.25	R1 = (E)-CH=CHCMe2OMe R2 = H R3 = prenyl R4 = prenyl R5 = X1 = H R6 = X2 = H R7 = X3 = H	hyperpatuone I[d]	H. patulum	−52 (0.3, m)	F. Zhang 2026
325
325.1	R1 = CH2CH2CMe=CH2 R2 = H	garcibracteamone H[c]	G. bracteata	+40 (0.05, m)	Q. Xue 2020
325.2	R1 = CH2CH2CMe=CH2 R2 = H	burlemarxione H[d] (enantiomer)	C. burle-marxii	−40.0 (0.5)	M. do C. C. Silva 2024, Q. Xue 2020
325.3	R1 = prenyl R2 = prenyl	hyperforcinol A[d]	H. forrestii	−39 (0.1, m)	W.-J. Lu 2021
326		hyperkouytone M	H. kouytchense	−24.8 (0.36, m)	H.-Y. Lou 2024
327		garcibracteamone I[c]	G. bracteata	−22 (0.05, m)	Q. Xue 2020
328		burlemarxione D	C. burlemarxii	−8.0 (1.0)	Ferraz 2021
329		hyperlanin B[d]	H. lancasteri	−32.1 (0.3, m)	You 2024
330		hyparillum B[d]	H. patulum	−51.5 (0.1)	Y. Duan 2024a
331		hyparillum A[d]	H. patulum	−26.1 (0.2)	Y. Duan 2024a
332		garcioblon D[d]	G. oblongifolia	−37.2 (0.3, m)	Q. Lin 2025
333		garcioblon A[d]	G. oblongifolia	−29.0 (0.4, m)	Q. Lin 2025
334		garcioblon B[d]	G. oblongifolia	−32.5 (0.4, m)	Q. Lin 2025
335		garcioblon C[d]	G. oblongifolia	−40.6 (0.5, m)	Q. Lin 2025
336		garcioblon E[d]	G. oblongifolia	+16.7 (0.5, m)	Q. Lin 2025
337		garcioblon F[d]	G. oblongifolia	+26.2 (0.3, m)	Q. Lin 2025
338		burlemarxione I[c]	C. burle-marxii	NR	M. do C. C. Silva 2024
339		garbractin A[c]	G. bracteata	−94.4 (0.05, m)	X.-N. Li 2023
340		garcibracgluinol B[c]	G. bracteata	+248.1 (0.03, m)	J. Xu 2025
341		garcibracgluinol C[c]	G. bracteata	+122.2 (0.07, m)	J. Xu 2025
342
342.1	R = prenyl	xerophenone C	G. bracteata	+106 (1.0)	Thoison 2005
342.2	R = CH2CH2CMe=CH2	xerophenone A[d]	C. portlandiana, G. propinqua	−36.4 (0.055, a)	Henry 1995, Sriyatep 2017
343
343.1	R1 = Ph R2 = prenyl R3 = CH2CH(OMe)2 R4 = H	garcoblone B[c]	G. oblongifolia	+21.5 (1.0, m)	Z. Wu 2022
343.2	R1 = Ph R2 = prenyl R3 = CH2CO2H R4 = H	garciyunnanin E[c]	G. yunnanensis	+103.1 (0.13, m)	Zheng 2021b
343.3	R1 = Ph R2 = prenyl R3 = CH2COCMe2OH R4 = H	garciyunnanin F, a.k.a. garcoblone A[c]	G. oblongifolia, G. yunnanensis	+137.6, +21.5 (0.10, m)	Zheng 2021b, Z. Wu 2022
343.4	R1 = Ph R2 = prenyl R3 = CH2COCMe2OH R4 = prenyl	hyperberlone D[c]	H. beanii	+1.6 (1.7, m)	Y.-W. Li 2022
343.5	R1 = Ph R2 = (S)-lavandulyl R3 = CH2COCMe2OH R4 = H	garcoblone D[c][f]	G. oblongifolia	+27.2 (1.0, m)	Z. Wu 2022
343.6	R1 = 3-hydroxyphenyl R2 = prenyl R3 = CH2COCMe2OH R4 = H	garcoblone C[c]	G. oblongifolia	+41.2 (1.0, m)	Z. Wu 2022
344
344.1	R1 = prenyl R2 = prenyl	garcoblone G[c]	G. oblongifolia	−24.1 (1.0, m)	S.-Y. Yang 2024
344.2	R1 = prenyl R2 = CH2CH2CMe=CH2	garcibractinol A[d]	G. bracteata	−91.9 (0.04, m)	X. Li 2023
344.3	R1 = (E)-CH=CHCMe2OMe R2 = CH2CH2CMe=CH2	garcibractinol E[d]	G. bracteata	−85.1 (0.06, m)	X. Li 2023
345
345.1	R = prenyl	garcibractinol B[d]	G. bracteata	−13.3 (0.05, m)	X. Li 2023
345.2	R = (E)-CH=CHCMe2OH	garcibractinol D[d]	G. bracteata	−63.9 (0.05, m)	X. Li 2023
345.3	R = (E)-CH=CHCMe2OOH	garcibractinol C[d]	G. bracteata	−37.3 (0.05, m)	X. Li 2023
345.4	R = (R)-CH2CHOHCMe=CH2	garcibractinol F[d]	G. bracteata	−5.1 (0.056, m)	X. Li 2023
346		garcoblone H[c]	G. oblongifolia	−26.4 (1.0, m)	S.-Y. Yang 2024
347		garynthone A	G. yunnanensis	racemic; +7.85 (0.1, m) and −3.28 (0.1, m)	Z. Guo 2025
348
348.1	R = CMe2OH	garcibractinol G[d]	G. bracteata	+150.5 (0.05, m)	X. Li 2023
348.2	R = CMe=CH2	garcibractinol H[d]	G. bracteata	+14.4 (0.04, m)	X. Li 2023
349		garciyunnanin D[c]	G. yunnanensis	+23.1 (0.10, m)	Zheng 2021b
350		spirohypertone A[c]	H. patulum	−10.2 (0.2, m)	Y. Duan 2024b
351		trijapin D	T. japonicum	−58 (0.6, m)	Oya 2015
352		xerophenone G[c][e]	G. multiflora	+103.0 (0.1, m)	J. Cao 2024
353		xerophenone F[c][e]	G. multiflora	+164.0 (0.1, m)	J. Cao 2024
354		xerophenone H[e]	G. multiflora	−15.0 (0.1, m)	W.-Y. Lyu 2025
355		xerophenone D[c]	G. multiflora	+116.0 (0.1, m)	J. Cao 2024
356
356.1	R = isolavandulyl[g]	xerophenone E[c][e]	G. multiflora	+23.0 (0.1, m)	J. Cao 2024
356.2	R = lavandulyl	xerophenone I[c][e]	G. multiflora	−18.0 (0.1, m)	H. Luo 2025
357		garcinielliptone HF	G. subelliptica	−16.7 (0.22, a)	C.-C. Wu 2008a
358		gambogenone[e]	G. xanthochymus	−5 (0.003, m)	Baggett 2005
359		garcibractinone C[c]	G. multiflora	+32.1 (0.02, m)	Q. Li 2022
360
360.1	R = (2R)-3,3-dimethyloxiran-2-yl	hyperberin A[d]	H. beanii	+69.1 (0.33, m)	W.-J. Xu 2019
360.2	R = (2S)-3,3-dimethyloxiran-2-yl	hyperberin B[d]	H. beanii	+95.8 (0.28, m)	W.-J. Xu 2019
360.3	R = (1S)-1,2-dihydroxy-2-methyl-1-propyl	hyperberin C[d]	H. beanii	+144.5 (0.19, m)	W.-X. Li 2021
361		hyperberlone E[d]	H. beanii	+5.7 (0.7, m)	Y.-W. Li 2022
362
362.1	R1 = H R2 = benzoyl	hyperforone C[c] (one of two by that name)	H. forrestii	−115 (0.1, m)	W.-J. Lu 2020
362.2	R1 = benzoyl R2 = H	hyperforone B[c] (one of two by that name)	H. forrestii	−70 (0.1, m)	W.-J. Lu 2020
363
363.1	R = prenyl	hypercohin A[c]	H. cohaerens, H. forrestii	NR	X.-W. Yang 2012, W.-J. Lu 2020
363.2	R = (E)-C=CCMe2OH	hypaluton B[c]	H. patulum	−108.7 (0.4, m)	Y. Duan 2021a
364		hyperforone A[c] (one of two by that name)	H. forrestii	−102 (0.1, m)	W.-J. Lu 2020
365		hypaluton A[c]	H. patulum	−64.2 (0.3, m)	Y. Duan 2021a
366		hyperbeanin P[c]	H. beanii	−254 (0.2, m)	X.-Y. Suo 2021b
367		hyperprin B[c]	H. przewalskii	−314.0 (0.10, m)	Zong 2020
368		hyperacmosin R[c]	H. acmosepalum	−230.5 (0.14, m)	Y. Ma 2022b
369		hyperinoid A[c]	H. patulum	+54.0	X. Jia 2020
370		hyperinoid B[c]	H. patulum	+61.0	X. Jia 2020
371		(±)-hypandrone A	H. androsaemum	0	J. Wei 2024a
372		hypertaxoid B[d]	H. elatoides	+13.1 (0.05, m)	J.-Y. Xie 2026
373		hypertaxoid A[d]	H. elatoides	+76.1 (0.05, m)	J.-Y. Xie 2026
374		hypermonin A[c]	H. monogynum	+46.5 (0.20, m)	Y.-R. Zeng 2018
375		hypermonin B[c]	H. monogynum	+155.42 (0.24, m)	Y.-R. Zeng 2018
376		garciyunnanin G[c]	G. yunnanensis	+28.7 (0.10, m)	Zheng 2021b
377
377.1	R = Me X = OH	harrisotone A	Harrisonia perforata	+2.0 (0.27, m)	Yin 2009
377.2	R = Me X = OOH	harrisotone B	Harrisonia perforata	+25.4 (1.30, m)	Yin 2009
377.3	R = i-Pr X = OH	tomoeone B	H. ascyron	+9.5 (1.1, m)	W. Hashida 2008
377.4	R = i-Pr X = OOH	tomoeone D	H. ascyron	+10.4 (3.0, m)	W. Hashida 2008, Zhu 2015a
377.5	R = i-Bu X = OH	tomoeone F	H. ascyron	+1.8 (1.8, m)	W. Hashida 2008
377.6	R = i-Bu X = OOH	tomoeone H	H. ascyron	+5.2 (2.7, m)	W. Hashida 2008, Zhu 2015a
377.7	R = Ph X = OH	hyperbeanol A	H. beanii	+2.74 (0.21)	X.-Q. Chen 2011
377.8	R = Ph X = OOH	hyperpatulol B[c]	H. patulum	−35.2 (0.1, m)	Y.-Y. Liu 2019
378
378.1	R = i-Pr X = OH	hyperascyrone D[c]	H. ascyron	−7.8 (0.48, m)	Zhu 2015a
378.2	R = i-Pr X = OOH	hookerianone E, a.k.a. hyperiforin C[c]	H. hookerianum, H. forrestii	+30 (0.1, m), +53.0 (c 0.1, m)	Q.-Q. Wang 2020, Zong 2021
378.3	R = i-Bu X = OH	hyperascyrone E[c]	H. ascyron	−9.1 (0.68, m)	Zhu 2015a
378.4	R = Ph X = OH	hyperbeanol B	H. beanii	+14.27 (0.34)	X.-Q. Chen 2011
379
379.1	R1 = Me R2 = prenyl R3 = prenyl R4 = X1 = H R5 = X2 = H	harperoid B	Harrisonia perforata	+15 (0.4, m)	P.-P. An 2026
379.2	R1 = Me R2 = prenyl R3 = prenyl R4 = X1 = OH R5 = X2 = H	harrisotone C	Harrisonia perforata	+11.1 (0.80, m)	Yin 2009
379.3	R1 = Me R2 = prenyl R3 = prenyl R4 = X1 = OOH R5 = X2 = H	harrisotone E	Harrisonia perforata	+22.1 (0.09, m)	Yin 2009
379.4	R1 = Et R2 = prenyl R3 = Me R4 = X1 = OH R5 = X2 = H	hyperpatulone F[c] one of two by that name	H. patulum	+22.8 (1.0, m)	Z.-N. Wu 2019
379.5	R1 = i-Pr R2 = Me R3 = prenyl R4 = X1 = OH R5 = X2 = H	chipericumin C	H. chinense, H. pyramidatum	+35.1 (0.33, m)	Abe 2012, Force 2014
379.6	R1 = i-Pr R2 = Me R3 = prenyl R4 = X1 = OOH R5 = X2 = H	pyramidatone D	H. pyramidatum	+20.0 (0.009)	Force 2014
379.7	R1 = i-Pr R2 = prenyl R3 = Me R4 = X1 = OH R5 = X2 = H	pyramidatone A, a.k.a. chipericumin E	H. pyramidatum, H. riparium	+12.5 (0.005), +12.0 (0.5, m)	Force 2014, Tala 2015
379.8	R1 = i-Pr R2 = prenyl R3 = Me R4 = X1 = OOH R5 = X2 = H	pyramidatone B	H. pyramidatum	+15.5 (0.03)	Force 2014
379.9	R1 = i-Pr R2 = prenyl R3 = Me R4 = X1 = OH R5 = X2 = OH	hyperpatulol F[c]	H. patulum	+14.0 (0.1, m)	Y.-Y. Liu 2019
379.10	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = X1 = OH R5 = X2 = H	tomoeone A[c]	H. ascyron	+33.2 (2.9, m)	W. Hashida 2008, Y.-L. Hu 2023
379.11	R1 = i-Pr R2 = prenyl R3 = prenyl R4 = X1 = OOH R5 = X2 = H	tomoeone C	H. ascyron	+17.4 (4.9, m)	W. Hashida 2008, Zhu 2015a, Y.-L. Hu 2023
379.12	R1 = s-Bu R2 = prenyl R3 = Me R4 = X1 = OH R5 = X2 = H	chipericumin D[e]	H. chinense	+67.4 (0.33, m)	Abe 2012
379.13	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = X1 = OH R5 = X2 = H	hyperascyrone F[c][e]	H. ascyron	+41.1 (0.13, m)	Zhu 2015a
379.14	R1 = s-Bu R2 = prenyl R3 = prenyl R4 = X1 = OOH R5 = X2 = H	hookerianone D[c][e]	H. hookerianum	+14 (0.1, m)	Q.-Q. Wang 2020
379.15	R1 = i-Bu R2 = prenyl R3 = Me R4 = X1 = OH R5 = X2 = H	hyperpatulone C[c] (one of two by that name)	H. patulum	+81.8 (0.10, m)	Y.-x. Zhang 2021
379.16	R1 = i-Bu R2 = prenyl R3 = prenyl R4 = X1 = OH R5 = X2 = H	tomoeone E	H. ascyron, H. cohaerens	+40.3 (1.0, m)	W. Hashida 2008, J.-J. Zhang 2014a
379.17	R1 = i-Bu R2 = prenyl R3 = prenyl R4 = X1 = OOH R5 = X2 = H	tomoeone G	H. ascyron	+25.4 (1.7, m)	W. Hashida 2008, Zhu 2015a
379.18	R1 = Ph R2 = prenyl R3 = prenyl R4 = X1 = OH R5 = X2 = H	hyperbeanol C	H. beanii	+31.21 (0.19)	X.-Q. Chen 2011
379.19	R1 = Ph R2 = prenyl R3 = prenyl R4 = X1 = OOH R5 = X2 = H	hyperbeanol D	H. beanii	+42.73 (0.42)	X.-Q. Chen 2011
380		hyperpatulone D[c] (one of two by that name)	H. patulum	+83.6 (0.10, m)	Y.-x. Zhang 2021
381
381.1	R1 = Me R2 = prenyl R3 = prenyl X = OH	harrisotone D	Harrisonia perforata	+4.1 (0.12, m)	Yin 2009
381.2	R1 = i-Pr R2 = Me R3 = prenyl X = OH	monosescinol C[c]	H. longistylum	−30.0 (0.4, m)	Z. Shi 2024
381.3	R1 = i-Pr R2 = prenyl R3 = Me X = OH	hyperpatulol C[c]	H. patulum	+18.8 (0.1, m)	Y.-Y. Liu 2019
381.4	R1 = i-Pr R2 = prenyl R3 = Me X = OOH	pyramidatone C	H. pyramidatum	+17.3 (0.01)	Force 2014
381.5	R1 = (R)-s-Bu R2 = Me R3 = prenyl X = OH	monosescinol B[c]	H. longistylum	−37.3 (0.5, m)	Z. Shi 2024
381.6	R1 = (R)-s-Bu R2 = prenyl R3 = prenyl X = OH	hyperlagarol I[c]	H. beanii	NR	R.-D. Hu 2024
381.7	R1 = (S)-s-Bu R2 = prenyl R3 = prenyl X = OH	hyperlagarol H[c]	H. beanii	NR	R.-D. Hu 2024
381.8	R1 = Ph R2 = prenyl R3 = prenyl X = OH	hyperpatulol A	H. patulum	+34.2 (0.1, m)	Y.-Y. Liu 2019
382
382.1	R = i-Pr	hyperpatulol D[c]	H. patulum	+2.2 (0.1, m)	Y.-Y. Liu 2019
382.2	R = s-Bu	hyperpatulol E[c][e]	H. patulum	+10.6 (0.1, m)	Y.-Y. Liu 2019
383		hunascynol I (or its epimer, hunascynol J)	H. ascyron	−0.7 (0.09, m)	Y.-L. Hu 2023
384		hunascynol J (or its epimer, hunascynol I)	H. ascyron	−1.2 (0.11, m)	Y.-L. Hu 2023
385
385.1	R1 = i-Pr R2 = Me X = H	kouytchin B[d][m]	H. kouytchense	+27.1 (0.5, m)	C. Jing 2026
385.2	R1 = i-Pr R2 = prenyl X = OH	hyperascyrone B[d]	H. ascyron	−4.8 (0.24, m)	Zhu 2015a
385.3	R1 = i-Bu R2 = prenyl X = OH	hyperascyrone C[d]	H. ascyron	−3.8 (0.38, m)	Zhu 2015a
385.4	R1 = Ph R2 = prenyl X = OH	hyperascyrone A[d]	H. ascyron	−16.4 (0.33, m)	Zhu 2015a
386
386.1	R1 = i-Pr R2 = prenyl X = H	hunascynol H	H. ascyron	+50 (0.10, m)	Y.-L. Hu 2023
386.2	R1 = i-Pr R2 = prenyl X = OH	spirohypatone B[c]	H. patulum	+23.03 (0.101, m)	Y. Ye 2020
386.3	R1 = i-Bu R2 = Me X = OH	spihyperglucinol E[c]	H. longistylum	−18.3 (0.3, m)	Z. Shi 2022
386.4	R1 = i-Bu R2 = prenyl X = H	hunascynol G	H. ascyron	+53 (0.10, m)	Y.-L. Hu 2023
386.5	R1 = i-Bu R2 = prenyl X = OH	hunascynol F[c]	H. ascyron	−6.0 (0.10, m)	Y.-L. Hu 2023
386.6	R1 = (R)-s-Bu R2 = Me X = H	hyperpatulone E[c]	H. patulum	+44.3 (0.20, m)	Y.-x. Zhang 2021
386.7	R1 = (S)-s-Bu R2 = Me X = H	hyperpatulone F[c] (one of two by that name)	H. patulum	+12.4 (0.10, m)	Y.-x. Zhang 2021
386.8	R1 = s-Bu R2 = Me X = OH	hyperielliptone HB[c][e]	H. geminiflorum	+1.0 (1)	C.-C. Wu 2008b, Z. Shi 2022
386.9	R1 = (R)-s-Bu R2 = prenyl X = OH	hunascynol D[c]	H. ascyron	+5.0 (0.12, m)	Y.-L. Hu 2023
386.10	R1 = (S)-s-Bu R2 = prenyl X = OH	hunascynol E[c]	H. ascyron	+18 (0.15, m)	Y.-L. Hu 2023
386.11	R1 = Ph R2 = prenyl X = OH	hyperbeanin C[c]	H. beanii	+34.5 (0.12, m)	Y. Ma 2022a
387
387.1	R1 = i-Pr R2 = Me	chipericumin A	H. chinense	+84.3 (0.29, m)	Abe 2012
387.2	R1 = s-Bu R2 = Me	chipericumin B[e]	H. chinense	+116.1 (0.46, m)	Abe 2012
387.3	R1 = Ph R2 = prenyl	sampsonol A	H. sampsonii	−7.7 (0.5, mc)	Xin 2012
388		sampsonol B	H. sampsonii	+45.3 (0.5, mc)	Xin 2012
389		hyperhenone L	H. henryi	−6 (0.08, m)	Duan 2018
390		hyperacmotone D[c]	H. acmosepalum	+20 (0.10, m)	A.-Z. Wang 2022
391		hyperacmotone E[c]	H. acmosepalum	–1 (0.10, m)	A.-Z. Wang 2022
392		hyperacmotone F[c]	H. acmosepalum	+60 (0.10, m)	A.-Z. Wang 2022
393		hyperacmotone B[c]	H. acmosepalum	–92 (0.05, m)	A.-Z. Wang 2022
394
394.1	R1 = Me R2 = prenyl R3 = prenyl X = H	harperoid C	Harrisonia perforata	+26 (0.4, m)	P.-P. An 2026
394.2	R1 = i-Pr R2 = Me R3 = prenyl X = H	sampsonol F	H. sampsonii	+12.4 (0.5, mc)	Xin 2012
394.3	R1 = i-Pr R2 = prenyl R3 = Me X = H	hyperhenone I	H. henryi	−516 (0.12, m)	Duan 2018
394.4	R1 = i-Pr R2 = prenyl R3 = prenyl X = H	hyperlagarin A	H. lagarocladum	−87.9 (0.29, m)	K. Wang 2019
394.5	R1 = i-Bu R2 = Me R3 = prenyl X = H	sampsonol E	H. sampsonii	+25.8 (0.5, mc)	Xin 2012
394.6	R1 = s-Bu R2 = Me R3 = prenyl X = H	hyperhenone H[e]	H. henryi	−71 (0.15, m)	Duan 2018
394.7	R1 = (S)-s-Bu R2 = Me R3 = prenyl X = H	hyperpatulol G[cc]	H. patulum	−40.6 (0.1, m)	Y.-Y. Liu 2019
394.8	R1 = s-Bu R2 = prenyl R3 = prenyl X = H	hyperlagarin B[e]	H. lagarocladum	−87.9 (0.18, m)	K. Wang 2019
394.9	R1 = Ph R2 = prenyl R3 = Me X = H	sampsonol C	H. sampsonii	+16.5 (0.5, mc)	Xin 2012
394.10	R1 = Ph R2 = prenyl R3 = prenyl X = H	hypercohone G	H. cohaerens	−56.1 (0.16, m)	J.-J. Zhang 2014a
394.11	R1 = Ph R2 = prenyl R3 = prenyl X = OH	kouytchin A[c][m]	H. kouytchense	−20.0 (0.5, m)	C. Jing 2026
394.12	R1 = Ph R2 = (E)-CH=CHCMe2OH R3 = Me X = H	sampsonol D	H. sampsonii	+35.2 (0.5, mc)	Xin 2012
394.13	R1 = Ph R2 = (E)-CH=CHCMe2OH R3 = prenyl X = H	hyperhenone J	H. henryi	−15 (0.22, m)	Duan 2018
395
395.1	R1 = Me R2 = prenyl R3 = prenyl	harperoid D	Harrisonia perforata	−22 (0.4, m)	P.-P. An 2026
395.2	R1 = i-Pr R2 = Me R3 = prenyl	hyperhenone G	H. henryi	−99 (0.07, m)	Duan 2018
395.3	R1 = i-Pr R2 = prenyl R3 = Me	hyperpatulol I[c]	H. patulum	−9.4 (0.1, m)	Y.-Y. Liu 2019
395.4	R1 = i-Pr R2 = prenyl R3 = prenyl	hyperlagarin C	H. lagarocladum	−89.7 (0.25, m)	K. Wang 2019
395.5	R1 = (S)-s-Bu R2 = prenyl R3 = Me	hyperpatulol H[c]	H. patulum	−31.2 (0.1, m)	Y.-Y. Liu 2019
395.6	R1 = Ph R2 = prenyl R3 = prenyl	hyperbeanol F	H. beanii	−46 (0.5, m)	Y.-R. Li 2019
396		hyperbeanol G	H. beanii	+15 (0.09, m)	Y.-R. Li 2019
397		hunascynol A, a.k.a. hyperlagarol A	H. ascyron, H. beanii	+15 (0.5, m)	Y.-L. Hu 2023, R.-D. Hu 2024
398		hunascynol B, a.k.a. hyperlagarol B	H. ascyron, H. beanii	+57 (0.14, m)	Y.-L. Hu 2023, R.-D. Hu 2024
399		hyperlagarol G[c]	H. beanii	NR	R.-D. Hu 2024
400		hunascynol C	H. ascyron	+29 (0.14, m)	Y.-L. Hu 2023
401		hyperpatulone G[c]	H. patulum	+62.0 (0.10, m)	Y.-x. Zhang 2021
402		hyperbeanol H	H. beanii	+52 (0.7, m)	Y.-R. Li 2019
403		hyperhenone K	H. henryi	−6 (0.07, m)	Duan 2018
404		hyperispirone B[c]	H. beanii	−53 (0.18, m)	B. Yang 2022
405		hyperispirone A[c]	H. beanii	+70 (0.15, m)	B. Yang 2022
406		hyperlagarol J[c]	H. beanii	NR	R.-D. Hu 2024
407
407.1	R1 = i-Pr R2 = Me	hymoin C[c]	H. monogynum	−76.00 (0.11, m)	Y.-R. Zeng 2021b
407.2	R1 = s-Bu R2 = Me	hymoin D[c][e]	H. monogynum	−30.22 (0.13, m)	Y.-R. Zeng 2021b
407.3	R1 = Ph R2 = prenyl	hypatulone A[c]	H. patulum	+11.2 (0.10, m)	Y.-Y. Liu 2018, X.-W. Yang 2020
408
408.1	R = i-Pr	hymoin A[c] (one of two by that name)	H. monogynum	−78.50 (0.08, m)	Y.-R. Zeng 2021b
408.2	R = s-Bu	hymoin B[c][e] (one of two by that name)	H. monogynum	−64.29 (0.13, m)	Y.-R. Zeng 2021b
409
409.1	R = i-Pr	hyperilongenol C[c]	H. longistylum	+82.3 (0.5, m)	N. Zhang 2019a, N. Zhang 2019b
409.2	R = i-Bu	hyperilongenol B[c]	H. longistylum	+85.2 (0.3, m)	N. Zhang 2019a, N. Zhang 2019b
409.3	R1 = s-Bu R2 = (mixture of s-Bu epimers)	hyperilongenol A[c]	H. longistylum	+89.4 (0.6, m)	N. Zhang 2019a, N. Zhang 2019b
410		hyperlagarol C[c]	H. beanii	NR	R.-D. Hu 2024
411		hyperlagarol D[c]	H. beanii	NR	R.-D. Hu 2024
412
412.1	R = i-Bu	spihyperglucinol A[c]	H. longistylum	−130.0 (0.8, m)	Z. Shi 2022
412.2	R = s-Bu	spihyperglucinol B[c][e]	H. longistylum	−112.6 (0.1, m)	Z. Shi 2022
413
413.1	R = i-Bu	spihyperglucinol C[c]	H. longistylum	−53.4 (0.4, m)	Z. Shi 2022
413.2	R = s-Bu	spihyperglucinol D[c][e]	H. longistylum	−61.6 (0.4, m)	Z. Shi 2022
414
414.1	R = Me	biyouyanagiol[y]	H. chinense	+10.5 (0.5)	Tanaka 2009a
414.2	R = prenyl	uralin D[c]	H. uralum	+32 (0.1, m)	Q.-Q. Fang 2021
415
415.1	R = i-Pr	biyoulactone D	H. chinense	−39.4 (0.1, m)	Tanaka 2012
415.2	R = s-Bu	biyoulactone E[e]	H. chinense	−14.4 (0.07, m)	Tanaka 2012
416		hyperbeanone A[c]	H. beanii	−134 (0.15, m)	B. Yang 2021a
417
417.1	R = i-Pr	hypermonone B[c]	H. monogynum	+56.31 (0.07, m)	Y.-R. Zeng 2021c
417.2	R = s-Bu	hypermonone C[c][e]	H. monogynum	−40.83 (0.07, m)	Y.-R. Zeng 2021c
418		hypermonone D[c]	H. monogynum	+47.26 (0.12, m)	Y.-R. Zeng 2021c
419		hypermonone A[c]	H. monogynum	+123.49 (0.09, m)	Y.-R. Zeng 2021c
420
420.1	R = i-Pr	hybeanone B[c]	H. beanii	+72.3 (0.17, m)	B. Yang 2021b
420.2	R = (S)-s-Bu	hybeanone A[c]	H. beanii	+48.9 (0.09, m)	B. Yang 2021b
421
421.1	R = i-Pr	hypermonol A[c]	H. monogynum	+25.8 (0.1, m)	J. Wei 2024b
421.2	R = (S)-s-Bu	hypermonol E[c]	H. monogynum	+18.8 (0.1, m)	J. Wei 2024b
422
422.1	R = i-Pr	hypermonol B[c]	H. monogynum	−64.6 (0.1, m)	J. Wei 2024b
422.2	R = (R)-s-Bu	hypermonol C[c]	H. monogynum	+10.4 (0.1, m)	J. Wei 2024b
422.3	R = (S)-s-Bu	hypermonol D[c]	H. monogynum	+5.4 (0.1, m)	J. Wei 2024b
423		biyoulactone A[c]	H. chinense	+8.1 (0.1, m)	Tanaka 2011
424
424.1	R = i-Pr	hypemoin A[c]	H. monogynum	+24 (0.2, m)	Y.-N. Li 2011
424.2	R = (S)-s-Bu	biyoulactone B	H. chinense	+9.7 (0.2, m)	Tanaka 2011
425
425.1	R = i-Pr	hypemoin B[c]	H. monogynum	+48 (0.2, m)	Y.-N. Li 2011
425.2	R = (S)-s-Bu	biyoulactone C	H. chinense	+15.7 (0.09, m)	Tanaka 2011
426
426.1	R1 = i-Pr R2 = Me	furanmonogone B[c][e]	H. monogynum	−8 (0.1, m)	W.-J. Xu 2017
426.2	R1 = i-Pr R2 = (E)-CH=CHCMe2OH	hyperascone A[c][aa]	H. ascyron Linn.	+6.3 (0.03, m)	S. Wang 2024
426.3	R1 = i-Bu R2 = (E)-CH=CHCMe2OH	hyperascone B[c][aa]	H. ascyron Linn.	+5.7 (0.03, m)	S. Wang 2024
426.4	R1 = s-Bu R2 = Me	furanmonogone A[c][e]	H. monogynum	−12 (0.1, m)	W.-J. Xu 2017
426.5	R1 = Ph R2 = (E)-CH=CHCMe2OH	hyperhenone M[e]	H. henryi	−31 (0.10, m)	Duan 2018
427
427.1	R = H	hypemoin E[c]	H. monogynum	−76 (0.1, m)	Y.-N. Li 2011
427.2	R = CO2Me	hypemoin D[c]	H. monogynum	+52 (0.1, m)	Y.-N. Li 2011
427.3	R = COCHMeCH2CH=CMe2	hypemoin C[c][e]	H. monogynum	+48 (0.2, m)	Y.-N. Li 2011
428		longisglucinol A[c]	H. longistylum	−31.2 (0.5, m)	N. Zhang 2020
429		hymoin B[c] (one of two by that name)	H. monogynum	+160.00 (0.10, m)	C. Yuan 2025
430
430.1	R1 = i-Pr R2 = Me	spirohypatone A[c]	H. patulum	+105.54 (0.10, m)	Y. Ye 2020
430.2	R1 = i-Bu R2 = Me	longisglucinol C[c][ff]	H. longistylum	+99.8 (0.5, m)	N. Zhang 2020
430.3	R1 = (S)-s-Bu R2 = Me	longisglucinol B[c][ff]	H. longistylum	+106.9 (0.5, m)	N. Zhang 2020
430.4	R1 = Ph R2 = prenyl	hyperacmotone C[c]	H. acmosepalum	+101 (0.20, m)	A.-Z. Wang 2022
431		harperoid A[c]	Harrisonia perforata	+12 (0.2, m)	P.-P. An 2026
432		hymoin A[c] (one of two by that name)	H. monogynum	+77.92 (0.15, m)	C. Yuan 2025
433		hyperzrone A[c]	H. beanii	+19.8 (0.1, m)	X.-Y. Li 2025
434		hyperzrone B[c]	H. beanii	−1.7 (0.1, m)	X.-Y. Li 2025