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<column properties>
<columnName="idcoordinates2D">
<columnProperty="parent	Structure">
<columnProperty="specialType	idcoordinates2D">
<columnName="FragFp">
<columnProperty="parent	Structure">
<columnProperty="specialType	FragFp">
<columnProperty="version	1.2.1">
<columnName="Structure">
<columnProperty="specialType	idcode">
</column properties>
idcoordinates2D	FragFp	Structure	delta	Reference	Reference 2	Reference 3	Beta	Reference 4	Beta 2	Comment	compound_indicating_nucleus	Method 2	ε (‰) enrichment in 13C relative to CO2 (g)	Fractionation_Factor	alpha	alpha_nucleus
!B_vp	/////.2!	eFBK@c@@		Shiner and Neumann 1989		C				calculations from full force fields (gas phase) 	*CH3Li	isotope ratio mass spectrometry - equilibrium isotope effects		0.906		
!B@AL	4/////-V!	eFHBN@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		C				calculations from full force fields (gas phase) 	*CO	isotope ratio mass spectrometry - equilibrium isotope effects		0.923		
!B@AMDp	2/////-1!	eMB@Lch@		Shiner and Neumann 1989		C				calculations from full force fields (gas phase) 	*CH3CdCH3	isotope ratio mass spectrometry - equilibrium isotope effects		0.928		
!B@AMDp	2/////-1!	eMBAxch@		Shiner and Neumann 1989		C				calculations from full force fields (gas phase) 	*CH3ZnCH3	isotope ratio mass spectrometry - equilibrium isotope effects		0.930		
!B@AMDp	2/////-1!	eMB@Jch@		Shiner and Neumann 1989		C				calculations from full force fields (gas phase) 	*CH3HgCH3	isotope ratio mass spectrometry - equilibrium isotope effects		0.933		
!B_vp	/////.4!	eFBBlc@@		Hartshorn and Shiner 1972		C				calculations from full force fields (gas phase) 	Methyl iodide	isotope ratio mass spectrometry - equilibrium isotope effects		0.935		
!BbOvw_x@mp	/////.1!	gJPB@fJ@t@XBOj`GyzK@		Shiner and Neumann 1989		C				calculations from full force fields (gas phase) 	*CH3SnH3	isotope ratio mass spectrometry - equilibrium isotope effects		0.938		
!B@AL	/////.V!	eF@Hx@		Hartshorn and Shiner 1972		C				calculations from full force fields (gas phase) 	Acetylene<NL>C2H2	isotope ratio mass spectrometry - equilibrium isotope effects		0.939		
!B@AL	/////.1!	eFBApc@@		Shiner and Neumann 1989		C				calculations from full force fields (gas phase) 	*CH3SiH3	isotope ratio mass spectrometry - equilibrium isotope effects		0.940		
!B_vp	/////.4!	eFBCDc@@		Hartshorn and Shiner 1972		C				calculations from full force fields (gas phase) 	Methyl bromide	isotope ratio mass spectrometry - equilibrium isotope effects		0.942		
!B@AL	//,8///$	eFB@Hc@@		Shiner and Neumann 1989		C				calculations from full force fields (gas phase) 	Methyl mercaptan<NL>methanethiol<NL>CH4S	isotope ratio mass spectrometry - equilibrium isotope effects		0.943		
	//////!	fH@@		Hartshorn and Shiner 1972		C				calculations from full force fields (gas phase) 	Methane<NL>CH4	isotope ratio mass spectrometry - equilibrium isotope effects		0.944		
!B_vp	//!2///.	eFBBHc@@		Hartshorn and Shiner 1972		C				calculations from full force fields (gas phase) 	Methyl chloride	isotope ratio mass spectrometry - equilibrium isotope effects		0.945		
!B@AL	/////.1!	eFBADc@@		Shiner and Neumann 1989		C				calculations from full force fields (gas phase) 	*CH3SeH	isotope ratio mass spectrometry - equilibrium isotope effects		0.947		
!B@AL	/////.1!	eFBBDc@@		Shiner and Neumann 1989		C				calculations from full force fields (gas phase) 	*CH3AsH2	isotope ratio mass spectrometry - equilibrium isotope effects		0.948		
!B@AL	/////.4!	eFBCpc@@		Shiner and Neumann 1989		C				calculations from full force fields (gas phase) 	*CH3PH2	isotope ratio mass spectrometry - equilibrium isotope effects		0.949		
!BbOs~@Hc}	VF8/$8////%4!	gC`DAbKDRZdAbZp@		Hartshorn and Shiner 1972		C			2	calculations from full force fields (gas phase) 	*CH2=CBr2	isotope ratio mass spectrometry - equilibrium isotope effects		0.950		
!BbOs~@Hc}	VF8/$8////%8!	gC`DAHJPRZdAbZp@		Hartshorn and Shiner 1972		C			2	calculations from full force fields (gas phase) 	*CH2=CF2	isotope ratio mass spectrometry - equilibrium isotope effects		0.953		
!B@AL	0F/%8////)	eF@Hh@		Hartshorn and Shiner 1972		C				calculations from full force fields (gas phase) 	Ethylene<NL>C2H4	isotope ratio mass spectrometry - equilibrium isotope effects		0.955		
!B@Ox@`	F02/////+V!	eM`AIxFIl@		Hartshorn and Shiner 1972		C			2	calculations from full force fields (gas phase) 	*CH3CN	isotope ratio mass spectrometry - equilibrium isotope effects		0.955		
!Bg~wP	F8/////,F!	eO@Hyj@		Hartshorn and Shiner 1972		C				calculations from full force fields (gas phase) 	Cyclopropane<NL>C3H6	isotope ratio mass spectrometry - equilibrium isotope effects		0.955		
!B@AL	!2/////)1!V0	eF`BL@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		C				calculations from full force fields (gas phase) 	Methylamine<NL>*CH3NH2	isotope ratio mass spectrometry - equilibrium isotope effects		0.955		
!B_vp	F//////0	eF@Hp@		Hartshorn and Shiner 1972		C				calculations from full force fields (gas phase) 	Ethane<NL>C3H6	isotope ratio mass spectrometry - equilibrium isotope effects		0.956		
!B@Oy`JH	0F202/$V///&V*F#	gCl@aDIWIRl@@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		C				calculations from full force fields (gas phase) 	Methylazide<NL>*CH3N3	isotope ratio mass spectrometry - equilibrium isotope effects		0.957		
!B@AL	!2/////)1!V0	eF``fL@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		C				calculations from full force fields (gas phase) 	Protenated methylamine<NL>*CH3NH3+	isotope ratio mass spectrometry - equilibrium isotope effects		0.959		
!B@Fp@Dp	JF!4/////(8040	eMHAIXFIl@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		C			2	calculations from full force fields (gas phase) 	*CH3CHO	isotope ratio mass spectrometry - equilibrium isotope effects		0.959		
	4//////0	fIS`@		Green and Taube 1963		O				experimentally determined	*OH-	isotope ratio mass spectrometry - equilibrium isotope effects		0.960		
!B_vqDp	F8//////	eM@Df`Xbp@		Hartshorn and Shiner 1972		C			1	calculations from full force fields (gas phase) 	*CH3CH2CH3	isotope ratio mass spectrometry - equilibrium isotope effects		0.960		
!B_pp	4F2/////*F#	eFhHb`jd		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	NO-	isotope ratio mass spectrometry - equilibrium isotope effects		0.9615		
!B@AL	40V/////*2010	eFHBL@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		C				calculations from full force fields (gas phase) 	Methanol<NL>*CH3OH	isotope ratio mass spectrometry - equilibrium isotope effects		0.962		
!B_vp	/////.8!	eFBBPc@@		Hartshorn and Shiner 1972		C				calculations from full force fields (gas phase) 	Methyl fluoride	isotope ratio mass spectrometry - equilibrium isotope effects		0.964		
!B@AL@[@@S	6Fs0408!V#1/+8///08040	gC``@deZ@Xfl@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		C				calculations from full force fields (gas phase) 	*CH3OCHO	isotope ratio mass spectrometry - equilibrium isotope effects		0.964		
!B@AMDp	F8//////	eM@HzAbK@		Hartshorn and Shiner 1972		C			2	calculations from full force fields (gas phase) 	CH3*CH2CH3	isotope ratio mass spectrometry - equilibrium isotope effects		0.966		
!BmpK~@K_}	aF@02/$V/(8//)3#	gCh`hEIWILt@@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		C				calculations from full force fields (gas phase) 	Nirtromethane<NL>*CH3NO2	isotope ratio mass spectrometry - equilibrium isotope effects		0.966		
!B@AL	4F!4/////,	eFHBJ@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		C				calculations from full force fields (gas phase) 	Formaldehyde<NL>*CH2O	isotope ratio mass spectrometry - equilibrium isotope effects		0.971		
!B@Fp@Dp	JF!4/////(8040	eMHAIXFJl@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		C			1	calculations from full force fields (gas phase) 	CH3*CHO	isotope ratio mass spectrometry - equilibrium isotope effects		0.985		
!B@AL@[@@S	6Fs0408!V#1/+8///08040	gC``@deZ@@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		C				calculations from full force fields (gas phase) 	CH3O*CHO	isotope ratio mass spectrometry - equilibrium isotope effects		0.987		
!Bb@K~@Hc}b@K~@Hc}	xvsj4oVZ0D04015V!VV04F01,k040F%F+1#V/&6010	gNqa@jnR[YjhAbRp@		Edens, Urbauer, and Cleland 1997		C				confused by this writing convention - missing hydrogens<NL>experimentally determined	C_CHOH_CH2_*COO-	isotope ratio mass spectrometry - equilibrium isotope effects		0.988		
	4//////0	fI@@		Szapiro and Steckel 1967		O				experimentally determined	H2*O (gas)	isotope ratio mass spectrometry - equilibrium isotope effects		0.991		
	!2/////.	fJ@@		Thode, Graham, and Ziegler 1945		N				experimentally determined	NH3 gas	isotope ratio mass spectrometry - equilibrium isotope effects		0.993		
!B_vp	!2/////+V!	eF`BN@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	HCN	isotope ratio mass spectrometry - equilibrium isotope effects		0.995		
!Bg~w_Xc}bOs~_xa}bGt	xvsbBa0602@Z01BVW0FV02$8Z0V)4&V.40V8!F/!6010	daxBB@QnSdfyVjh@XbK@		Rendina, Hermes, and Cleland 1984		C				confused by this writing convention - missing hydrogen<NL>experimentally determined	C_(CHOH)2_*COO-	isotope ratio mass spectrometry - equilibrium isotope effects		0.996		
!B@Ox@`JwK\	F82/////+V!	gJT@@Te^l@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	H2C(CN)2<NL>Malononitrile	isotope ratio mass spectrometry - equilibrium isotope effects		0.997		
!B@Ox@`	F02/////+V!	eM`AIx@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	CH3C*N	isotope ratio mass spectrometry - equilibrium isotope effects		0.9983		
!B@Ox@`	402/////*3V!	eMXiCdfpXgp@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	*NNO	isotope ratio mass spectrometry - equilibrium isotope effects		0.9996		
!B_y`	4F!4////,V.	eMDARU@		Mook, Bommerson, and Staverman 1974		C				experimentally determined	CO2	isotope ratio mass spectrometry - equilibrium isotope effects		1.001		
!B_yovw	0F202/$V///&V*F#	gClAADNRUXAbCp@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	CH3NN*N	isotope ratio mass spectrometry - equilibrium isotope effects		1.0013		
!B@AL	!2/////+V!	eFPBc`@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	N2	isotope ratio mass spectrometry - equilibrium isotope effects		1.0029		
!B_cWoXb}b@JH_Xc|_`BH_P	xvwjZwoZY@0601ZV04V80Z40Y$8&V04%F4/#8/2#6010	diDLB@SdyImVZjh@XbK@		O'Leary and Yapp 1978		C				confused by this writing convention<NL>experimentally determined	(C_CHOH)(C_CH2)_CH_*COO-	isotope ratio mass spectrometry - equilibrium isotope effects		1.003		
!B@AL	!2/////)1!V0	eF`BL@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	CH3*NH2	isotope ratio mass spectrometry - equilibrium isotope effects		1.0060		
!BmvH[\Bb@Jw_x@`BHP	xFs_44040V0F41#80V#V*HF)8410V#F(810F0V-4$D040	diDJA@inEnGdiVYjY``IbBl@		Attwood, Tipton, and Cleland 1986		C				confused by this writing convention - missing hydrogen<NL>experimentally determined	-OOC_C=O_CH2_*COO-	isotope ratio mass spectrometry - equilibrium isotope effects		1.0075		
				Hunt and Taube 1959		O				experimentally determined	(NH3)5 Co(III) *OH-	isotope ratio mass spectrometry - equilibrium isotope effects		1.008		
!B@AL	4F//////	eFDBb`@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	*O2	isotope ratio mass spectrometry - equilibrium isotope effects		1.008		
!B_vqDp	4Fc04)1////-D040	eMDa^RV@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	HCO2-	isotope ratio mass spectrometry - equilibrium isotope effects		1.008		
!Bg~wXc}	ZFc04)1////-6030	gCaa@mnRYh@		Mook, Bommerson, and Staverman 1974		C				experimentally determined	CO3H-<NL>bicarbonate	isotope ratio mass spectrometry - equilibrium isotope effects		1.009		
!B_xBbG~	0F202/$V///&V*F#	gClAAMnRedAbCp@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	CH3*NNN	isotope ratio mass spectrometry - equilibrium isotope effects		1.0096		
!Bg~wXc}	ZFe04)1/&V///$360V0	gChaLDnRYhAbRp@		Tipton and Cleland 1988		C				experimentally determined	NH2*CO2-	isotope ratio mass spectrometry - equilibrium isotope effects		1.011		
!B_vqDp	4F@/&V////!3#	eMdhWde`@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	NO2	isotope ratio mass spectrometry - equilibrium isotope effects		1.0115		
!B^e~wPC~KA`lYvAeXAh	;dzWx6lFEZ0589140F228$4VV08!g)2&F4%802!8-V%26#	daFDBLADyInUnZjh@XbK@		Attwood, Tipton, and Cleland 1986		C				experimentally determined		isotope ratio mass spectrometry - equilibrium isotope effects		1.0123		
!B_vqDp	4Fc04)1////-D040	eMDa^RV@		Hermes et al. 1984		O				experimentally determined	HC*O2-	isotope ratio mass spectrometry - equilibrium isotope effects		1.0124		
!B@hbw@hc}_[^w_ympH	jrvdJk8Z0Z5JV11$V!HV*2V#8VF$9FV(4)1+2%334V0	dazJaNaLI`|LxnrRSFMTp@qEV@		Tipton and Cleland 1988		C				experimentally determined	NH2-*C=O_OPO3 2-	isotope ratio mass spectrometry - equilibrium isotope effects		1.013		
!B@AL@[@@S	aFs0408!V0F01/+8///09240	gC`iIahBTei@XdR@		Hermes et al. 1984		O				experimentally determined	Na formate (solid)<NL>HCOONa	isotope ratio mass spectrometry - equilibrium isotope effects		1.0140		
!B_vqDp	JF!4/////(8040	eMHAIX@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	CH3 CH=*O	isotope ratio mass spectrometry - equilibrium isotope effects		1.016		
!B@AL	!2/////)111V0	eFbHVXp@		Hermes, Weiss, and Cleland 1985		N				experimentally determined	amino acid (unprotonated NH2)	isotope ratio mass spectrometry - equilibrium isotope effects		1.0163		
				Hermes et al. 1984		O				experimentally determined	Formate, Bu4N+ salt in CHCl3	isotope ratio mass spectrometry - equilibrium isotope effects		1.0165		
				Hermes et al. 1984		O				experimentally determined	Formate on Dowex-1	isotope ratio mass spectrometry - equilibrium isotope effects		1.0167		
!B@AL	40V/////*2010	eFHBL@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	CH3*OH	isotope ratio mass spectrometry - equilibrium isotope effects		1.017<NL>		
!Bb@K~@Hc}	aF@/&V/(8//)3#	gCiahEiJ{\dsP@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	NO3-	isotope ratio mass spectrometry - equilibrium isotope effects		1.017		
	!2/////.	fJRP@		Hermes, Weiss, and Cleland 1985		N				experimentally determined	NH4+	isotope ratio mass spectrometry - equilibrium isotope effects		1.0192		
!BmpJw_ympH	VF@/8%V!F*1/08$F/+1180	gJXMH@g^I\YJRttID		Hermes, Weiss, and Cleland 1985		N				experimentally determined	protonated imine	isotope ratio mass spectrometry - equilibrium isotope effects		1.0192		
				Hunt and Taube 1959		O				experimentally determined	(NH3)5 Co(III) *OH2	isotope ratio mass spectrometry - equilibrium isotope effects		1.0196		
!B_x@`	!202/////)V!	eM`BO`@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	CH3*NC	isotope ratio mass spectrometry - equilibrium isotope effects		1.0208		
	4//////0	fIRP@		Thornton 1962		O				experimentally determined	H3*O+	isotope ratio mass spectrometry - equilibrium isotope effects		1.023		
!B_vp	4F!4/////,	eFHBJ@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	H2C=*O	isotope ratio mass spectrometry - equilibrium isotope effects		1.023		
!B_y`	4F2////.V.	eMdHTeP@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	NO2	isotope ratio mass spectrometry - equilibrium isotope effects		1.023		
!B_vqDp	o0V4/////)2010	eMHAIh@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	CH3CH2*OH	isotope ratio mass spectrometry - equilibrium isotope effects		1.025		
!Bg~H[_}	aF@02/$V/(8//)3#	gCh`hEIWILt@@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	CH3 NO2	isotope ratio mass spectrometry - equilibrium isotope effects		1.026		
!B@AL	4F2/////*F#	eFhHb`jd		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	NO	isotope ratio mass spectrometry - equilibrium isotope effects		1.027		
!B_y`	4F2////.V*F#	eMXYJWdeP@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	NNO	isotope ratio mass spectrometry - equilibrium isotope effects		1.027		
!B@AL@[@@S	6Fs0408!V#1/+8///08040	gC``@deZ@X`R@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	HC=*O OCH3	isotope ratio mass spectrometry - equilibrium isotope effects		1.029		
!B@AL	!2/////)1!V0	eF``fL@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	CH3NH3+	isotope ratio mass spectrometry - equilibrium isotope effects		1.0296		
!B_vqDp	4Fc04)1////-D070	eMDARVAbD`		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	HC=*O OH	isotope ratio mass spectrometry - equilibrium isotope effects		1.030		
!B`Bw@h`B`BwXc}b@K~@Hc}	xtwbZao4W@0T014Va4c8$W080F84#F#4#a!4(V0F#4$V0808)420806#	dedJA@JafnglbbbJcSTp@q@I@		Rife and Cleland 1980		O				experimentally determined	-OOC C=*O CH2 CH2 COO-	isotope ratio mass spectrometry - equilibrium isotope effects		1.031		
!Bg~wXc}g~w@h`B`BHP	xvwjBqkaVD2o0WCVY4VV04F0108JF(m440F0V#F$F%10Z0V/04$6010	diDJA@JnFnGlbbbLjZX@X`D`		Blanchard and Cleland 1980		O				experimentally determined	-OOC CH*OH CH2 COO-	isotope ratio mass spectrometry - equilibrium isotope effects		1.033		
!B@AL	!2/////)111V0	eFbhVZXp@		Hermes, Weiss, and Cleland 1985		N				experimentally determined	amino acid (protonated NH3+)	isotope ratio mass spectrometry - equilibrium isotope effects		1.0333		
!B@Fp@Dp	4Fc04)1////-D070	eMDARV@		Hermes et al. 1984		O				experimentally determined	HC*O2H	isotope ratio mass spectrometry - equilibrium isotope effects		1.0345		
!B_vqDp	4Fc04)1////-D070	eMDARYAbD`		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	HC=O *OH	isotope ratio mass spectrometry - equilibrium isotope effects		1.037		
!B@Fp@Dp	X02/////*W1k0	eMah|UqiRZ@		Hermes, Weiss, and Cleland 1985		N				experimentally determined	protonated secondary amine	isotope ratio mass spectrometry - equilibrium isotope effects		1.038		
!B_qL@Dp	60V&V/////&	eMHBN`@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	CH3*OCH3	isotope ratio mass spectrometry - equilibrium isotope effects		1.040		
!B_y`	4F!4////,V.	eMDARU@		O'Neil, Adami, and Epstein 1975		O				experimentally determined	C*O2 (gas)	isotope ratio mass spectrometry - equilibrium isotope effects		1.0412		
!B@Oy`JH	0F202/$V///&V*F#	gClAADnReXAbCp@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	CH3N*NN	isotope ratio mass spectrometry - equilibrium isotope effects		1.0428		
!B_y`	402/////*3V!	eMXiCdfpXkp@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	N*NO	isotope ratio mass spectrometry - equilibrium isotope effects		1.0527		
!B_qL@Dw}l	6Fs0408!V#1/+8///08040	gC``Adii@X`R@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		O				calculations from full force fields (gas phase) 	HC=O *OCH3	isotope ratio mass spectrometry - equilibrium isotope effects		1.058		
!Bg~wXc}	aF@02/$V/(8//)3#	gChaHDnRYh@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	CH3*NO2	isotope ratio mass spectrometry - equilibrium isotope effects		1.0590		
!Bb@K~@Hc}	aF@/&V/(8//)3#	gCiahEiJ{\dsP@		W.E. Buddenbaum and V.J. Shiner, Jr. Unpublished results		N				calculations from full force fields (gas phase) 	NO3-	isotope ratio mass spectrometry - equilibrium isotope effects		1.0817		
!B_y`	4F!4////,V.	eMDARU@		Bottinga 1968		O	1.1172				CO2	Bond Additivity - spectral method				
!B@AL	4F!4/////,	eFHBJ@		Urey 1947		O	1.1053				CO	Bond Additivity - spectral method				
!Bg~wXc}	ZFc04)1////-6#	gCa``lnwILt@@		Urey 1947		O	1.0945			value is given for the completely isotopically replaced form	CO3 2-	Bond Additivity - spectral method				
!Bmw~_x@bOt	aF8/&V/08%8/-V*3#	gJPXhlPD[ct^m@@		Urey 1947		O	1.0924				SO4 2-	Bond Additivity - spectral method				
!B@Oy`	4F//*8//$V.	eMFI@bMP@		Urey 1947		O	1.0888				SO2	Bond Additivity - spectral method				
!B@AL	4F//////	eFDBb`@		Urey 1947		O	1.0818				O2	Bond Additivity - spectral method				
	4//////0	fI@@		Bottinga 1968		O	1.0636			delta 18O value for water vapor is given		Bond Additivity - spectral method				
!BXFUSYyKF\	HFP0209!F(8#8,2F01/$4*1%4+V0FV	gKX@@eKcRp@		Ivlev 1974b		N	1.1074				C4H4*NH<NL>pyrrole	Bond Additivity - spectral method				
!Bb@JW@h`}esv~@Hc|oe~W@i\BbCvHO[x@oe|	0F@F2!1*801080V+F#V//2#48.	dg}@@@aJVYU^Svv`@@@@`H		Ivlev 1974b		N	1.0970				C6H5*N=NC6H5<NL><NL>azobenzene	Bond Additivity - spectral method				
	!2/////.	fJRP@		Ivlev 1974b		N	1.0947					Bond Additivity - spectral method				
!B_vp	!2/////)1!V0	eF`BL@		Ivlev 1974b		N	1.0853				CH3*NH2	Bond Additivity - spectral method				
!B_vp	!2/////+V!	eFPBc`@		Urey 1947		N	1.0814				N2	Bond Additivity - spectral method				
	!2/////.	fJ@@		Ivlev 1974b		N	1.0683					Bond Additivity - spectral method				
!B@AL	!2/////+V!	eF`BN@		Urey 1947		N	1.0655				HCN	Bond Additivity - spectral method				
!B_vp	0F2///-F/+F#	eF``zJ@		Urey 1947		N	1.0641				CN-	Bond Additivity - spectral method				
!BbOs~@H`}	oFc444(1////-6030	gC``@dfZ@Xdl@		Ivlev 1974a<NL><NL>		C<NL>	1.1978<NL><NL><NL><NL>		1<NL>		CH3*COOH	Bond Additivity - spectral method<NL>				
!B_}Qtp	JF!4/////(8040	eMHAIXFJl@		Ivlev 1974a		C<NL>	1.1731<NL>		1		CH3*CHO	Bond Additivity - spectral method				
!BbOs~@H`}	oFc444(1////-6030	gC``@dfZ@Xfl@		Ivlev 1974a		C<NL>	1.1381<NL><NL>		2		*CH3COOH	Bond Additivity - spectral method				
!Bb@K~@OybOt	V2#F-2/!4///%8!	gJPBAHJPt`YAIjj@@		Galimov 1973b		C	1.2241					Bond Additivity - spectral method				
!BbOq~@Hb}	ZFc04)1////-6#	gCa``lnwILt@@		Urey 1947		C	1.2057<NL>		1		CO3 2-	Bond Additivity - spectral method				
!Bb@K~@Hc}	ZFc04)1////-6#	gCa``lnwILt@@		Urey 1947		C	1.2057					Bond Additivity - spectral method				
!Bb@K~@Hc}	ZFc04)1////-6#	gCa``lnwILt@@		Bottinga 1969		C	1.2020<NL>					Bond Additivity - spectral method				
!Bg~wXc}	ZFc04)1////-6#	gCa``lnwILt@@		Hartshorn and Shiner 1972		C	1.1988			<NL>		Bond Additivity - spectral method				
!B_vqDp	4Fc04)1////-D070	eMDARV@		Johansen 1964		C	1.197				HCOOH	Bond Additivity - spectral method				
!B_y`	4F!4////,V.	eMDARU@		Vojta 1960c		C	1.1948					Bond Additivity - spectral method				
!B_gp_P	4F!4////,V.	eMDARU@		Urey 1947<NL>		C	1.1909		1<NL>		CO2	Bond Additivity - spectral method				
!B_y`	4F!4////,V.	eMDARU@		Urey 1947<NL>		C	1.1909					Bond Additivity - spectral method				
!B_y`	4F!4////,V.	eMDARU@		Singh and Wolfsberg 1975		C	1.1904					Bond Additivity - spectral method				
!B@Fp@Dp	4F804/////(8840	eMJDdDfP@		Johansen 1964		C	1.186					Bond Additivity - spectral method				
!BuwwWGx@uwt	xFsZ4404#F01/!2//&2/!6030	gJPhLQDIKTpCDU`		Johansen 1964<NL>		C	1.177		1		CClH2*COOH	Bond Additivity - spectral method				
!B@FL@[@Ac	JF!4/////(8V40	gCa@@dkXCDe`		Johansen 1964		C	1.170		1<NL>		CHC*CHO	Bond Additivity - spectral method				
!BbGu~@M]}b@JH@gx@	FF0F$8-8////)	gOp@DjWkB@@FHK@		Galimov and Ivlev 1973-74		C	1.1677		1		carbon 1 on the benzene ring, bound to the methyl group	Bond Additivity - spectral method				
!B_vqDp	4Fc04)1////-D040	eMDa^RV@		Johansen 1964		C	1.162				HCOO-	Bond Additivity - spectral method				
!B_rqDp	JF!4/////(8040	eMHAIXFJl@		Johansen 1964		C	1.160		1		CH3*CHO	Bond Additivity - spectral method				
!B@W~w@k]}mwvw@m]}	FF0F$8-8////)	gOp@DiWM@B@FJKBVBlMXFp@		Galimov and Ivlev 1973-74		C	1.1545		2		all other carbons of benzene with no substituents	Bond Additivity - spectral method				
!Bg~w@k_}mvw@`	0F0F/#8////)	gFp@DiTt@@@		Galimov and Ivlev 1973-74		C	1.1544			listed as Cyclo-C6H6 which is benzene 	Cyclo-C6H6	Bond Additivity - spectral method				
!Bg~w@k_}mvw@`	0F0F/#8////)	gFp@DiTt@@@		Galimov and Ivlev 1973-74		C	1.1533		all			Bond Additivity - spectral method				
!B@Lps@BSOyL	Nc$V$2/////$	gJP@DiZhAbBp@		Galimov and Ivlev 1973-74		C	1.1519		3		CH3CH2*CH2CH2CH3	Bond Additivity - spectral method				
!BOyL@dsL	N8$V/////*	gC`@Dij@X`l@		Galimov and Ivlev 1973-74		C	1.1507		2		CH3*CH2CH2CH3	Bond Additivity - spectral method				
!B_}L@dsLOyL	Nc$V$2/////$	gJP@DizhAbBp@		Galimov and Ivlev 1973-74		C	1.1506		2		CH3*CH2CH2CH2CH3	Bond Additivity - spectral method				
!BWrL@Hp	F8//////	eM@HzAbK@		Galimov and Ivlev 1973-74		C	1.1493		2		CH3*CH2CH3	Bond Additivity - spectral method				
!BOvL@Xp	F8//////	eM@HzAbK@		Hartshorn and Shiner 1972		C	1.1492		2		CH3*CH2CH3	Bond Additivity - spectral method				
!BWrL@Hp	F8//////	eM@HzAbK@		Singh and Wolfsberg 1975		C	1.1483		2		CH3*CH2CH3	Bond Additivity - spectral method				
!B_vp	/////.8!	eFBBPc@@		Singh and Wolfsberg 1975		C	1.1457					Bond Additivity - spectral method				
!BbOq~@Ha}	VF8/$8)2//&2/&	gC`DADJHRZdAbRp@		Hartshorn and Shiner 1972		C	1.1436		1		CH2*CCl2	Bond Additivity - spectral method				
!B_wy_`	F02/////+V!	eM`AIxFIl@		Vojta 1960c		C	1.1424		2		*CH3CN	Bond Additivity - spectral method				
!B_vpXp	F8//////	eM@Df`Xbp@		Hartshorn and Shiner 1972<NL>		C	1.1418		1		*CH3CH2CH3	Bond Additivity - spectral method<NL>				
!B_vpXp	F8//////	eM@Df`Xbp@		Singh and Wolfsberg 1975		C	1.1411		1		*CH3CH2CH3	Bond Additivity - spectral method				
!B_rqDp	JF!4/////(8040	eMHAIXFIl@		Johansen 1964		C	1.140		2		*CH3CHO	Bond Additivity - spectral method				
!B@Ox@`	4F!4//&8//$V.	eMJDBDeP@		Vojta 1960b		C	1.140				COS	Bond Additivity - spectral method				
!B_vp	/////.8!	eFBBPc@@		Hartshorn and Shiner 1972		C	1.1368					Bond Additivity - spectral method				
!B@AL	!2/////)1!V0	eF`BL@		Galimov 1973b		C	1.1361<NL>		1		*CH3NH2	Bond Additivity - spectral method				
!B_vp	!2/////)1!V0	eF`BL@		Galimov 1973b		C	1.1361				*CH3NH2	Bond Additivity - spectral method				
!B_wy_`	F02/////+V!	eM`AIxFIl@		Hartshorn and Shiner 1972		C	1.1358		2		*CH3CN	Bond Additivity - spectral method				
!Bg~wP	F8/////,F!	eO@Hyj@		Hartshorn and Shiner 1972		C	1.1355			listed as Cyclo-C3H8 which can't exist, typo for Cyclo-C3H6 (cyclopropane)?	Cyclo-C3H8 (?)	Bond Additivity - spectral method				
!B@AL	0F/%8////)	eF@Hh@		Hartshorn and Shiner 1972		C	1.1354					Bond Additivity - spectral method				
!Bg~wP	F8/////,F!	eO@Hyj@		Singh and Wolfsberg 1975		C	1.1353			listed as Cyclo-C3H8 which can't exist, typo for Cyclo-C3H6 (cyclopropane)?	Cyclo-C3H8 (?)	Bond Additivity - spectral method				
!B_vp	0F/%8////)	eF@Hh@		Singh and Wolfsberg 1975		C	1.1351					Bond Additivity - spectral method				
!B_vp	!2/////)1!V0	eF`BL@		Ivlev 1974a		C	1.1344				*CH3NH2	Bond Additivity - spectral method				
!B@AL	!2/////)1!V0	eF`BL@		Ivlev et al. 1974a		C	1.1344		1		*CH3NH2	Bond Additivity - spectral method				
!B_gp[_}	VF8/$8////%8!	gC`DAHJPRZdAbZp@		Ivlev 1974a		C	1.1334		2	<NL>	*CH2CF2	Bond Additivity - spectral method				
!B_zpdsL	N8$V/////*	gC`@Dej@X`l@		Galimov and Ivlev 1973-74		C	1.1331		1		*CH3CH2CH2CH3	Bond Additivity - spectral method				
!B_|ppp	F8//////	eM@Df`Xbp@		Galimov and Ivlev 1973-74<NL>		C	1.1331		1		*CH3CH2CH3	Bond Additivity - spectral method				
!B_qqDs}lOvL	Nc$V$2/////$	gJP@DeZhAbBp@		Galimov and Ivlev 1973-74		C	1.1330		1		*CH3CH2CH2CH2CH3	Bond Additivity - spectral method				
!BbGvHHa}_`@	xFsZ4404#F01/!2//&2/!6030	gJPhLQDIKTpCDe`		Johansen 1964		C	1.133		2		*CH2ClCOOH	Bond Additivity - spectral method				
!Bg|	40V/////*2010	eFHBL@		Ivlev 1974a<NL><NL>		C	1.1328		1		CH3OH	Bond Additivity - spectral method				
!B_wy_`	F02/////+V!	eM`AIxFJl@		Vojta 1960c		C	1.1325		1		CH3*CN	Bond Additivity - spectral method				
!Br@JH_Wx@b@JH@gx@	FF0F$8-8////)	gOp@DfUk`@@FHK@		Galimov and Ivlev 1973-74		C	1.1293				methyl substituent	Bond Additivity - spectral method				
!B_gp[_}	VF8/$8////%4!	gC`DAbKDRZdAbZp@		Hartshorn and Shiner 1972		C	1.1293		2		*CH2CBr2	Bond Additivity - spectral method				
!B_{Qtp	JF!4/////(8040	eMHAIXFIl@		Ivlev 1974a		C	1.1293		2		*CH3CHO	Bond Additivity - spectral method				
!B_y`	!2/.2//&2/#V!	eMbDbDfp@		Vojta 1960b		C	1.126		1		ClCN	Bond Additivity - spectral method				
!B_vp	//!2///.	eFBBHc@@		Singh and Wolfsberg 1975		C	1.1240<NL>				CH3Cl	Bond Additivity - spectral method				
!B@BD	!2/////+V!	eF`BN@		Urey 1947		C	1.1206		1<NL>	<NL>	H*CN	Bond Additivity - spectral method				
!B_y`	!2/////+Z!	eMbDqDfp@		Vojta 1960b		C	1.119				BrCN	Bond Additivity - spectral method				
!B_vp	/////.4!	eFBCDc@@		Johansen 1964		C	1.1177					Bond Additivity - spectral method				
!B_vp	/////.V!	eF@Hx@		Hartshorn and Shiner 1972		C	1.1173				CHCH	Bond Additivity - spectral method				
!Buq~@Gx@	JF!4/////(8V40	gCa@@dkXCDu`		Johansen 1964		C	1.117		3		*CHCCHO	Bond Additivity - spectral method				
!Buq~@Gx@	JF!4/////(8V40	gCa@@dkXCDU`		Johansen 1964		C	1.116		2		CH*CCHO	Bond Additivity - spectral method				
!B_vp	//!2///.	eFBBHc@@		Hartshorn and Shiner 1972		C	1.1149					Bond Additivity - spectral method				
	//////!	fH@@		Galimov and Ivlev 1973-74<NL>		C	1.1136		1		<NL>	Bond Additivity - spectral method				
!B_vp	/////.4!	eFBCDc@@		Hartshorn and Shiner 1972		C	1.111					Bond Additivity - spectral method				
!B_vp	/////.4!	eFBBlc@@		Johansen 1964		C	1.1101					Bond Additivity - spectral method				
!B_y`	0F//*8//$V.	eMA@HPaIT@		Vojta 1960b		C	1.104				CS2	Bond Additivity - spectral method				
!B_vp	/////.4!	eFBBlc@@		Hartshorn and Shiner 1972		C	1.103					Bond Additivity - spectral method				
!B@AL	4/////-V!	eFHBN@		Urey 1947		C	1.0970					Bond Additivity - spectral method				
!BOg|	4/////-V!	eFHPfzN@		Urey 1947		C	1.0970<NL>		1		CO	Bond Additivity - spectral method				
!B@MT	!2/////+V!	eF`bzN@		Urey 1947		C	1.0875		1		*CN-	Bond Additivity - spectral method				
!BOwx@_`	!202/////)V!	eM`BO`Xjp@		Vojta 1960b		C	1.0789		1		CH3N*C	Bond Additivity - spectral method				
!B_y`	!2/////+Z!	eMbDkDfp@		Vojta 1960b		C	1.07				ICN	Bond Additivity - spectral method				
!B@AL	F//////0	eF@Hp@		Hartshorn and Shiner 1972<NL>			1.1368					Bond Additivity - spectral method				
!B_vp	F//////0	eF@Hp@		Singh and Wolfsberg 1975			1.1366					Bond Additivity - spectral method				
!B@AL	F//////0	eF@Hp@		Glimov and Ivlev 1973-74			1.1317<NL>					Bond Additivity - spectral method				
	//////!	fH@@		Hartshorn and Shiner 1972<NL>			1.1224					Bond Additivity - spectral method				
	//////!	fH@@		Craig 1953			1.122					Bond Additivity - spectral method				
	//////!	fH@@		Bottinga 1969<NL>			1.112					Bond Additivity - spectral method				
	//////!	fH@@		Singh and Wolfsberg 1975			1.1112<NL>					Bond Additivity - spectral method				
!BbOw~_x`BbOt	xFuZ4504#F01/!V/2/(V.160Y0	gJX`BDdvu@@		Rustad 2009							Glycine, Gly	ab initio molecular orbital (MP2)	-10.4			
!BbOw~_xc|bOw~@@	xPua4K0a020k0G4VW*8J!V0V%4&2)V$4(V.160Y0	gGX`BDdwMT@@		Rustad 2009							Alanine, Ala	ab initio molecular orbital (MP2)	-16.8			
!BbGw~_xc}mvwOy	xvubBr0a022o0lBVW!V&8J!V0V%48%X4(V$4(V.160Y0	gNxhMV@aI[ji`@		Rustad 2009							Cysteine, Cys	ab initio molecular orbital (MP2)	-16.5			
!BbOw~_xc|`BH_X`B	xvubBr0a022o0lBVW!V&8J!V0V%4&X4(V$40V%V.160Y0	gNy`BDtf{Zj@@		Rustad 2009							Serine, Ser	ab initio molecular orbital (MP2)	-9.6			
!BmpK~@K_}s}Hqorn{wyd	;jyrpaWP@qXpBVWZVN0220W09KkcV0c012!4&641#4!VV4!J!8#8V%80V!2#a0I0	daFD@BADfyVyjj`@		Rustad 2009							Proline, Pro	ab initio molecular orbital (MP2)	-19.6			
!BbOw~_xc|bOw~@H`BmpH	xvujBrVa0D2o0pCVW0l#F01F8KHFV0V1!F042F$244&V!104(V%4%V0160Y0	dazD@BADf{fjh@@		Rustad 2009							Valine, Val	ab initio molecular orbital (MP2)	-21.0			
!BbOw~_xc|bOw~@K\Bb@H	xvujBrVa0D2o0pCVW0WV04F01F8KHFV0V1!k042F$XJ(V!1040V%Z%4$V!160Y0	dazL@BAFR[nZj`@		Rustad 2009							Threonine, Thr	ab initio molecular orbital (MP2)	-14.4			
!BbOw~_x`B`BHX`B`BHP	xvyjBrkaVD2o0pCVY4VV!F0108Kk0V0V0V02440F0V!2J1&V!30Z(V.160Y0	diEL@BDDyInvZjX@@		Rustad 2009							Asparagine, Asn	ab initio molecular orbital (MP2)	-7.0			
!BbOw~_x`B`BHX`B`BHP	xvyjBrkaVD2o0pCVY4VV!F0108KF0V0V#H440F0V!2J(V!10Z(V)2$160Y0	diFB@BANEInvZjX@@		Rustad 2009							Aspartic Acid, Asp	ab initio molecular orbital (MP2)	-5.7			
!BbOw~_xc|bOw~@K\Bmww~@@	xvyjBzkaVD2q0pRVW4k80110108Kk8V0V%5!4#6410F$V!X04&8V+2!160Y0	diFD@BADf{Yjj`@		Rustad 2009							Leucine, Leu	ab initio molecular orbital (MP2)	-22.2			
!BbOw~_x`B`BHX`Bg~HP	xvyjBrkaVD2q0pCVW4l8!F0GF8pmNV0V1!F042F$645&V!104%48V%4$2V0160Y0	diFD@BADf{ejj`@		Rustad 2009							Isoleucine, Ile	ab initio molecular orbital (MP2)	-23.5			
!BmvH[\Bmw~_{\Bmw~@@	;jhzoi_D2o0pgkY4Z04#508KF0V0V#204B%24(V$4#2#V.160Y0	diFD`JxPBDivzji`@		Rustad 2009							Methionine, Met	ab initio molecular orbital (MP2)	-27.2			
!BbOw~_xc|bOw~hI^bjBWhoz`	xvyjgzqabA2q9pgVW4Z84V4050cKk8V0X$1408#F641&V$4&8V#8&@!160Y0	deeDBBdDfTf{UZjj@@		Rustad 2009							Lysine, Lys	ab initio molecular orbital (MP2)	-19.1			
!BbOw~_xc|bGw~@K\B`BH@k\B	xvyjgzoa_@2q0pwVY4Z@41!_08Kk8V0V0V#4$F0641!2!VV!V04#4!8V%8$208160Y0	deeL@BdDEInufji`@		Rustad 2009							Glutamine, Gln	ab initio molecular orbital (MP2)	-11.2			
!BbOw~_xc|bOw~@K\B`BH@k\B	xvyjgzoa_@2q0pwVY4Z@41!_08Kk8V0V%4$F0641!2!VV!V04#4!8V+208160Y0	defB@BAAeInufji`@		Rustad 2009							Glutamic Acid, Glu	ab initio molecular orbital (MP2)	-11.8			
!BbOw~_xc|bOw~@@NlIaB_TQ\B}_@	;jjzxi_T6w1phsfBgV680cb0NKs0V1V2F03544F0m042JY0XV080V40H0Z0122010V18F4%2#1a0vV	dmwDBByPQYR[meeVjii@@		Rustad 2009							Histidine, His	ab initio molecular orbital (MP2)	-14.4			
!BbGw~_x`BbGw~@K\Bmw~@K\BmpK~@@	xvurBrkq8@2o0pCVY0VVV8!108KF0V0V4#46#k!HJ!8!10V$Z!2$V%248%160Y0	dcND@BADf{YU]Zj@@@@		Rustad 2009							Phenylalanine, Phe	ab initio molecular orbital (MP2)	-20.5			
!BrHMA_ABrHL~@OABO`CpPcx@|DKWo@	;j;irQLrOxwcW5Z@6#h0gKk8V0XV#1408$641$20V!F04#4!8V%8F!22!Wq0v0	dctdBBE]AEeInuVZjjX@@		Rustad 2009							Arginine, Arg	ab initio molecular orbital (MP2)	-13.0			
!BbOw~_xc|bOw~@@nlkrTfXEoTV}PfXEoT	xvurBrkr8@2o0pCVn0VVV8!108KF0d2V4#46!1k!HJ!8!10V#8Z!2$V%X480F010160Y0	dknL@BACR[me]]Zj@B@@		Rustad 2009							Tyrosine, Tyr	ab initio molecular orbital (MP2)	-18.4			
!Bb@K~@Hc}g~H@hc}tMINouR{FfC@f\BfpJXZX@	zvyzDrtrdP2q0pEaYBVdVO!W0NKsAV0VHFV54a#kG66J10A3!ZZJk20Z14Y1018X180J1!1!60F5a0nV	foAP`@BZ@aInvYWejsfjiB@`@@		Rustad 2009							Tryptophan, Trp	ab initio molecular orbital (MP2)	-18.8			
!B_vp	!2/////+V!	eFPBc`@		Urey 1947		N	1.081				N2					
!B_vp	!2/////+V!	eFPBc`@		Richet et al. 1977		N	1.082				N2<NL>	isotope ratio mass spectrometry - gaseous substances with Born-Oppenheimer approximation (1927)				
	!2/////.	fJ@@		Urey 1947		N	1.069				NH3					
	!2/////.	fJ@@		Richet et al. 1977		N	1.070				NH3	isotope ratio mass spectrometry - gaseous substances with Born-Oppenheimer approximation (1927)				
!B@AL	4F2/////*F#	eFhHb`jd		Urey 1947		N	1.066				NO					
!B_vp	4F2/////*F#	eFhHb`jd		Richet et al. 1977		N	1.066				NO	isotope ratio mass spectrometry - gaseous substances with Born-Oppenheimer approximation (1927)				
!B_vp	!2/////+V!	eF`BN@		Urey 1947		N	1.066				HCN					
!B_vp	!2/////+V!	eF`BN@		Richet et al. 1977		N	1.072				HCN	isotope ratio mass spectrometry - gaseous substances with Born-Oppenheimer approximation (1927)				
!Bm{spoGy	4F//*8//$V.	gCahHl@bNj@@		Tudge & Thode 1950		S	1.084				SO3					
!B@Oy`	4F//*8//$V.	eMFI@bMP@		Tudge & Thode 1950<NL>		S	1.045				SO2					
!B@Ox@`	4F!4//&8//$V.	eMJDBDePX`H@		Tudge & Thode 1950		S	1.019				OCS					
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	//,8///$	fH`P@@		Tudge & Thode 1950		S	1.013				H2S					
!B@Oy`	4F//*8//$V.	eMFI@bMP@		Sakai 1957		S	1.053				SO2					
	//,8///$	fH`P@@		Sakai 1957		S	1.013				H2S					
!BmrHOy	4F//*8//$V.	gCahHl@bNj@@		Richet et al. 1977		S	1.081				SO3	isotope ratio mass spectrometry - gaseous substances with Born-Oppenheimer approximation (1927)				
!B@Oy`	4F//*8//$V.	eMFI@bMP@		Richet et al. 1977		S	1.044				SO2	isotope ratio mass spectrometry - gaseous substances with Born-Oppenheimer approximation (1927)				
!B_y`	4F!4//&8//$V.	eMJDBDePX`H@		Richet et al. 1977		S	1.019<NL>				OCS	isotope ratio mass spectrometry - gaseous substances with Born-Oppenheimer approximation (1927)				
!B_y`	0F//*8//$V.	eMA@HPaIT@		Richet et al. 1977		S	1.019				CS2	isotope ratio mass spectrometry - gaseous substances with Born-Oppenheimer approximation (1927)				
!B_vp	0F//*8///$	eFA@H`bJ@		Richet et al. 1977		S	1.013				S2	isotope ratio mass spectrometry - gaseous substances with Born-Oppenheimer approximation (1927)				
	//,8///$	fH`P@@		Richet et al. 1977		S	1.011				H2S	isotope ratio mass spectrometry - gaseous substances with Born-Oppenheimer approximation (1927)				
!B_qM[@	4F@/&V////!3010	eMdHTe`@		Walters & Michalski 2015							HNO2	computational quantum chemistry, enrichment factor (1000(alpha-1)) between gaseous and aqueous phases at 270 K			0.9984	N
!B_vqDp	4F@/&V////!3#	eMdhWde`@		Walters & Michalski 2015							NO2-	computational quantum chemistry, enrichment factor (1000(alpha-1)) between gaseous and aqueous phases at 270 K			0.9977	N
!BbOw~_x`BbOt	aFP#8$F,V+F+9/$V/#3#	gJU`i`cIWIMmH@		Walters & Michalski 2015							N2O3	computational quantum chemistry, enrichment factor (1000(alpha-1)) between gaseous and aqueous phases at 270 K			0.9974	N
!Bg~wXc}	aF@/&V/(8//)3010	gCi`hEiNyIf`@		Walters & Michalski 2015							HNO3	computational quantum chemistry, enrichment factor (1000(alpha-1)) between gaseous and aqueous phases at 270 K			0.9960	N
!BbOvH@oybOt	jJPV!84#F,V/(9//02&3010	gJXPhEcIwILmP@		Walters & Michalski 2015							HNO4	computational quantum chemistry, enrichment factor (1000(alpha-1)) between gaseous and aqueous phases at 270 K			0.9947	N
!BbOw~_x`B`BHP	jJPV!84#F,V+F+9/$V+2&3#	gGTPY`cYJ{S^R[ff@@		Walters & Michalski 2015							N2O4	computational quantum chemistry, enrichment factor (1000(alpha-1)) between gaseous and aqueous phases at 270 K			0.9946	N
!Bg~wXc}	aF@/&V/(8//)3#	gCiahEiJ{\dsP@		Walters & Michalski 2015							NO3-	computational quantum chemistry, enrichment factor (1000(alpha-1)) between gaseous and aqueous phases at 270 K			0.9939	N
!Bb@JH_x@b@K~@Hc}	jpQWFV84!4J(V!2V*2,90V(4/%2&3#	gNuPXPmWIwFWrSOMS@@		Walters & Michalski 2015							N2O5	computational quantum chemistry, enrichment factor (1000(alpha-1)) between gaseous and aqueous phases at 270 K			0.9935	N
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