		USGS Home Contact USGS Search USGS
Reston Stable Isotope Laboratory

RSIL Home > Lab > Isotopic Reference Materials and Calibration

Reference Materials and Calibration Services

The Reston Stable Isotope Laboratory (RSIL) of the U.S. Geological Survey provides isotopic reference materials and calibrates user-supplied materials. Reference materials are suitable for use in calibration of analytical instrumentation, for testing analytical methodologies, and for use as quality control samples.

Isotopic Reference Materials and Calibration Services

Solid reference materials available from RSIL

To request Isotopic Reference Materials, a USGS FACILITY SERVICE/USER AGREEMENT or INTERAGENCY AGREEMENT (required for federal customers) needs to be filled out, signed, and transmitted to the RSIL. The signed agreement can either be scanned and saved as a pdf file and e-mailed to isotopes@usgs.gov or faxed to Jennifer Lorenz (secure fax number 703-648-5889). Generally, users only need to fill out this form for their first order. This form will be retained on file and can be used for subsequent orders.
Fill out the USGS RSIL Order Form and e-mail it to isotopes@usgs.gov or fax it to Jennifer Lorenz (secure fax number 703-648-5889).
After receiving the USGS FACILITY SERVICE/USER AGREEMENT or INTERAGENCY AGREEMENT and the USGS RSIL Order Form, an order confirmation will be sent to the customer, which is used by the customer to designate payment type (accepted forms of payment are credit card, check and wire transfer). For federal customers, the accepted form of payment is by IPAC. After payment information is received from the customer, both the payment and order are processed.
Solid isotopic reference materials can be shipped immediately after the required documents have been received and the payment has been processed.
The turnaround time for international distributed water references sealed in silver tubes is 1-3 weeks.
If UPW (user provided water) in silver tubes is required, the turnaround time is 1-2 weeks without calibration and 2-4 weeks with calibration. The user's samples should be sent to:

VSMOW reference materials available from RSIL

Reston Stable Isotope Laboratory (RSIL)
U.S. Geological Survey
Mail Stop 431, Room 5B142
12201 Sunrise Valley Drive
Reston, Virginia 20192
+1 (703) 648-5894

There is a 20% discount for an order of 10 or more of one reference material. *** This discount cannot be applied to references sealed in silver tubes or VSMOW (5 mL in glass ampoule).***

Prices for Isotopic Reference Materials and Calibration Services

ID #	Description of Material	Amount	Price	Comment	Report of Isotopic Composition
USGS24	graphite	0.8 g	$158	δ¹³C = —16.05 ‰	USGS24
USGS25	ammonium sulfate	> 0.6 g	$297	δ¹⁵N = —30.41 ‰	USGS25
USGS26	ammonium sulfate	> 0.8 g	$297	δ¹⁵N = +53.75 ‰	USGS26
USGS32	potassium nitrate	0.3 g	$344	δ¹⁵N = +180 ‰ δ¹⁸O = ~+25.5 ‰	USGS32
USGS34	potassium nitrate	0.3 g	$344	δ¹⁵N = —1.8 ‰ δ¹⁸O = ~—28 ‰	USGS34
USGS35	sodium nitrate	0.3 g	$344	δ¹⁵N = +2.7 ‰ δ¹⁸O = ~+57 ‰	USGS35
USGS37	potassium perchlorate	1 g	$600	δ³⁷Cl = +0.90 ‰ δ¹⁸O = —17.00 ‰ δ¹⁷O = —8.96 ‰	USGS37
USGS38	potassium perchlorate	1 g	$600	δ³⁷Cl = —87.90 ‰ δ¹⁸O = +52.50 ‰ δ¹⁷O = +102.40 ‰	USGS38
USGS39	potassium perchlorate	1 g	$600	δ³⁷Cl = +0.05 ‰ δ¹⁸O = +122.3 ‰ δ¹⁷O = +62.6 ‰	USGS39
USGS40	L-glutamic acid	2 g	$200	δ¹⁵N = —4.52 ‰ δ¹³C = —26.39 ‰	USGS40
USGS41a	L-glutamic acid enriched in ¹³C & ¹⁵N	0.5 g	$150	δ¹⁵N = +47.55 ‰ δ¹³C = +36.55 ‰	USGS41a
USGS41	L-glutamic acid enriched in ¹³C & ¹⁵N	0.5 g	supply exhausted	δ¹⁵N = +47.57 ‰ δ¹³C = +37.63 ‰	USGS41
USGS42	Tibetan human hair powder (< 100 mesh)	0.5 g	$390	δ²H = —72.9 ‰ δ¹⁸O = +8.56 ‰ δ¹⁵N = +8.05 ‰ δ¹³C = —21.09 ‰ δ³⁴S = +7.84 ‰	USGS42
USGS43	Indian human hair powder (< 60 mesh)	0.5 g	$390	δ²H = —44.4 ‰ δ¹⁸O = +14.11 ‰ δ¹⁵N = +8.44 ‰ δ¹³C = —21.28 ‰ δ³⁴S = +10.46 ‰	USGS43
CBS	Caribou Hoof Standard	0.5 g	$197	δ²H = —157.0 ‰ δ¹⁸O = +3.8 ‰	CBS
KHS	Kudu Horn Standard	0.5 g	$197	δ²H = —35.3 ‰ δ¹⁸O = +20.3 ‰	KHS
USGS44	Merck high purity CaCO₃ Intended for calibration of VPDB carbon-isotope-delta scale	0.5 g	$180	δ¹³C = —42.21 ‰	USGS44
USGS45	Set of 16 ampoules having 4 mL of Biscayne Aquifer Drinking Water per ampoule	64 mL	$283	δ²H = —10.3 ‰ δ¹⁸O = —2.238 ‰	USGS45
USGS45	Case of 144 ampoules having 4 mL of Biscayne Aquifer Drinking Water per ampoule	576 mL	$1,048	δ²H = —10.3 ‰ δ¹⁸O = —2.238 ‰	USGS45
USGS45	Case of 144 ampoules having 5 mL of Biscayne Aquifer Drinking Water per ampoule	720 mL	$1,312	δ²H = —10.3 ‰ δ¹⁸O = —2.238 ‰	USGS45
USGS46	Set of 16 ampoules having 4 mL of Ice Core Water per ampoule	64 mL	$283	δ²H = —235.8 ‰ δ¹⁸O = —29.80 ‰	USGS46
USGS46	Case of 144 ampoules having 4 mL of Ice Core Water per ampoule	576 mL	$1,048	δ²H = —235.8 ‰ δ¹⁸O = —29.80 ‰	USGS46
USGS46a	Set of 16 ampoules having 5 mL of Ice Core Water per ampoule	80 mL	coming soon
USGS46a	Case of 144 ampoules having 5 mL of Ice Core Water per ampoule	720 mL	coming soon
USGS47	Set of 16 ampoules having 5 mL of Lake Louise Drinking Water per ampoule	80 mL	$298	δ²H = —150.2 ‰ δ¹⁸O = —19.80 ‰	USGS47
USGS47	Case of 144 ampoules having 5 mL of Lake Louise Drinking Water per ampoule	720 mL	$1,312	δ²H = —150.2 ‰ δ¹⁸O = —19.80 ‰	USGS47
USGS48	Set of 16 ampoules having 5 mL of Puerto Rico Precipitation per ampoule	80 mL	$298	δ²H = —2.0 ‰ δ¹⁸O = —2.224 ‰	USGS48
USGS48	Case of 144 ampoules having 5 mL of Puerto Rico Precipitation per ampoule	720 mL	$1,312	δ²H = —2.0 ‰ δ¹⁸O = —2.224 ‰	USGS48
USGS49	Set of 16 ampoules having 5 mL of Antarctic Ice-core Water per ampoule	80 mL	$298	δ²H = —394.7 ‰ δ¹⁸O = —50.55 ‰	USGS49
USGS49	Case of 144 ampoules having 5 mL of Antarctic Ice-core Water per ampoule	720 mL	$1,312	δ²H = —394.7 ‰ δ¹⁸O = —50.55 ‰	USGS49
USGS50	Set of 16 ampoules having 5 mL of Lake Kyoga Water per ampoule	80 mL	$298	δ²H = +32.8 ‰ δ¹⁸O = +4.95 ‰	USGS50
USGS50	Case of 144 ampoules having 5 mL of Lake Kyoga Water per ampoule	720 mL	$1,312	δ²H = +32.8 ‰ δ¹⁸O = +4.95 ‰	USGS50
USGS51	Nitrous oxide in 6-mm glass tube	~200 μmol	$198	δ¹⁵N = +1.32 ‰ δ¹⁸O = +41.23 ‰	USGS51
USGS52	Nitrous oxide in 6-mm glass tube	~200 μmol	$198	δ¹⁵N = +0.44 ‰ δ¹⁸O = +40.64 ‰	USGS52
USGS53	Case of 32 ampoules having 5 mL of Lake Shala Distilled Water per ampoule	160 mL	$426	δ²H = +40.2 ‰ δ¹⁸O = +5.47 ‰	USGS53
USGS54	Canadian lodgepole pine wood powder	0.5 g	$340	δ²H = —150.4 ‰ δ¹⁸O = +17.79 ‰ δ¹³C = —24.43 ‰ δ¹⁵N = —2.42 ‰	USGS54
USGS55	Mexican ziricote wood powder	0.5 g	$340	δ²H = —28.2 ‰ δ¹⁸O = +19.12 ‰ δ¹³C = —27.13 ‰ δ¹⁵N = —0.3 ‰	USGS55
USGS56	South African red ivorywood powder	0.5 g	$340	δ²H = —44.0 ‰ δ¹⁸O = +27.23 ‰ δ¹³C = —24.34 ‰ δ¹⁵N = +1.8 ‰	USGS56
USGS57	biotite	0.5 g	$250	δ²H = —91.5 ‰	USGS57
USGS58	muscovite	0.5 g	$250	δ²H = —28.4 ‰	USGS58
USGS61	caffeine	0.5 g	$250	δ²H = +96.9 ‰ δ¹³C = —35.05 ‰ δ¹⁵N = —2.87 ‰	USGS61
USGS62	caffeine	0.5 g	$250	δ²H = —156.1 ‰ δ¹³C = —14.79 ‰ δ¹⁵N = +20.17 ‰	USGS62
USGS63	caffeine	0.5 g	$250	δ²H = +174.5 ‰ δ¹³C = —1.17 ‰ δ¹⁵N = +37.83 ‰	USGS63
USGS64	glycine	0.5 g	$250	δ¹³C = —40.81 ‰ δ¹⁵N = +1.76 ‰	USGS64
USGS65	glycine	0.5 g	$250	δ¹³C = —20.29 ‰ δ¹⁵N = +20.68 ‰	USGS65
USGS66	glycine	0.5 g	$250	δ¹³C = —0.67 ‰ δ¹⁵N = +40.83 ‰	USGS66
USGS67	n-hexadecane	50 μL	$250	δ²H = —166.2 ‰ δ¹³C = —34.50 ‰	USGS67
USGS68	n-hexadecane	50 μL	$250	δ²H = —10.2 ‰ δ¹³C = —10.55 ‰	USGS68
USGS69	n-hexadecane	50 μL	$250	δ²H = +381.4 ‰ δ¹³C = —0.57 ‰	USGS69
USGS70	icosanoic acid methyl ester (C20 FAME)	100 mg	$250	δ²H = —183.9 ‰ δ¹³C = —30.53 ‰	USGS70
USGS71	icosanoic acid methyl ester (C20 FAME)	100 mg	$250	δ²H = —4.9 ‰ δ¹³C = —10.5 ‰	USGS71
USGS72	icosanoic acid methyl ester (C20 FAME)	100 mg	$250	δ²H = +348.3 ‰ δ¹³C = —1.54 ‰	USGS72
USGS73	L-valine	0.5 g	$250	δ¹³C = —24.03 ‰ δ¹⁵N = —5.21 ‰	USGS73
USGS74	L-valine	100 mg	$250	δ¹³C = —9.30 ‰ δ¹⁵N = +30.19 ‰	USGS74
USGS75	L-valine	100 mg	$250	δ¹³C = +0.49 ‰ δ¹⁵N = +61.53 ‰	USGS75
USGS76	methylheptadecanoate	50 μL	$250	δ²H = —210.8 ‰ δ¹³C = —31.36 ‰	USGS76
USGS77	polyethylene powder	1 g	$250	δ²H = —75.9 ‰ δ¹³C = —30.71 ‰	USGS77
NBS 22a	vacuum oil, regular	1 mL	$250	δ²H = —120.4 ‰ δ¹³C = —29.72 ‰	NBS 22a
USGS78	vacuum oil, ²H-enriched	1 mL	$250	δ²H = +397.0 ‰ δ¹³C = —29.72 ‰	USGS78
USGS80	silver phosphate	0.5 g	$310	δ¹⁸O = ~ +13.1 ‰	--
USGS81	silver phosphate	0.5 g	$340	δ¹⁸O = ~ +35.4 ‰	--
USGS82	honey from tropical Vietnam	1 mL	$250	δ²H = —43.1 ‰ δ¹⁸O = +19.44 ‰ δ¹³C = —24.31 ‰	USGS82
USGS83	honey from prairie in Canada	1 mL	$250	δ²H = —110.5 ‰ δ¹⁸O = +18.20 ‰ δ¹³C = —26.20 ‰	USGS83
USGS84	olive oil from Sicily, Italy	1 mL	$250	δ²H = —140.4 ‰ δ¹⁸O = +26.36 ‰ δ¹³C = —28.80 ‰	USGS84
USGS85	olive oil from coastal desert, Peru	1 mL	$250	δ²H = —158.6 ‰ δ¹⁸O = +22.00 ‰ δ¹³C = —29.74 ‰	USGS85
USGS86	peanut oil from tropical Vietnam	1 mL	$250	δ²H = —207.4 ‰ δ¹⁸O = +18.76 ‰ δ¹³C = —30.63 ‰	USGS86
USGS87	corn oil from USA	1 mL	$250	δ²H = —168.1 ‰ δ¹⁸O = +20.11 ‰ δ¹³C = —15.51 ‰	USGS87
USGS88	marine collagen from wild-caught fish	0.5 g	$250	δ²H = +20.1 ‰ δ¹⁸O = +15.91 ‰ δ¹³C = —16.06 ‰ δ¹⁵N = +14.96 ‰ δ³⁴S = +17.10 ‰	USGS88
USGS89	porcine collagen	0.5 g	$250	δ²H = —43.7 ‰ δ¹⁸O = +8.37 ‰ δ¹³C = —18.13 ‰ δ¹⁵N = +6.25 ‰ δ³⁴S = +3.86 ‰	USGS89
USGS90	millet flour from Tuscany, Italy	0.5 g	$250	δ²H = —13.9 ‰ δ¹⁸O = +35.90 ‰ δ¹³C = —13.75 ‰ δ¹⁵N = +8.84 ‰ δ³⁴S = —15.14 ‰	USGS90
USGS91	rice flour from tropical Vietnam	0.5 g	$250	δ²H = —45.7 ‰ δ¹⁸O = +21.13 ‰ δ¹³C = —28.28 ‰ δ¹⁵N = +1.78 ‰ δ³⁴S = —20.85 ‰	USGS91
GFLES-1	water enriched in ²H	5 mL	$132	δ²H = +80.1 ‰ δ¹⁸O = —6.25 ‰ δ¹⁷O = —3.32 ‰	GFLES
GFLES-2	water enriched in ²H	5 mL	$132	δ²H = +159.9 ‰ δ¹⁸O = —6.21 ‰ δ¹⁷O = —3.3 ‰	GFLES
GFLES-3	water enriched in ²H	5 mL	$132	δ²H = +280.2 ‰ δ¹⁸O = —6.14 ‰ δ¹⁷O = —3.28 ‰	GFLES
GFLES-4	water enriched in ²H	5 mL	$132	δ²H = +399.8 ‰ δ¹⁸O = —6.08 ‰ δ¹⁷O = —3.25 ‰	GFLES
GFLES-Set	Set of 4 ampoules; 1 each of GFLES-1 through GFLES-4	20 mL	$317	See above values	GFLES
NBS 22a	vacuum oil, regular	1 mL	$250	δ²H = —120.4 ‰ δ¹³C = —29.72 ‰	NBS 22a
VSMOW (original reference water)	Water, 5 mL in glass ampoule	5 mL	$580	δ²H = 0 exactly δ¹⁸O = 0 exactly	VSMOW
NBS 22-0.15 μL	oil in silver tube, batch of 50	0.15 μL each	$150	δ²H = —117.2 ‰ δ¹³C = —30.02 ‰	NBS 22-0.15 μL
NBS 22-0.25 μL	oil in silver tube, batch of 50	0.25 μL each	$150	δ²H = —117.2 ‰ δ¹³C = —30.02 ‰	NBS 22-0.25 μL
NBS 22a-0.15 μL	oil in silver tube, batch of 50	0.15 μL each	$150	δ²H = —120.4 ‰ δ¹³C = —29.72 ‰	NBS 22a-0.15 μL
NBS 22a-0.25 μL	oil in silver tube, batch of 50	0.25 μL each	$150	δ²H = —120.4 ‰ δ¹³C = —29.72 ‰	NBS 22a-0.25 μL
USGS78-0.15 μL	oil in silver tube, batch of 50	0.15 μL each	$150	δ²H = +397.0 ‰ δ¹³C = —29.72 ‰	USGS78-0.15 μL
USGS78-0.25 μL	oil in silver tube, batch of 50	0.25 μL each	$150	δ²H = +397.0 ‰ δ¹³C = —29.72 ‰	USGS78-0.25 μL
VSMOW-0.15 μL	water in silver tube, batch of 50	0.15 μL each	$150	δ²H = 0 exactly δ¹⁸O = 0 exactly	VSMOW-0.15 μL
VSMOW-0.25 μL	water in silver tube, batch of 50	0.25 μL each	$150	δ²H = 0 exactly δ¹⁸O = 0 exactly	VSMOW-0.25 μL
VSMOW2-0.15 μL	water in silver tube, batch of 50	0.15 μL each	$150	δ²H = 0.0 ‰ δ¹⁸O = 0.00 ‰	VSMOW2-0.15 μL
VSMOW2-0.25 μL	water in silver tube, batch of 50	0.25 μL each	$150	δ²H = 0.0 ‰ δ¹⁸O = 0.00 ‰	VSMOW2-0.25 μL
SLAP-0.15 μL	water in silver tube, batch of 50	0.15 μL each	$150	δ²H = —428.0 ‰ δ¹⁸O = —55.50 ‰	SLAP-0.15 μL
SLAP-0.25 μL	water in silver tube, batch of 50	0.25 μL each	$150	δ²H = —428.0 ‰ δ¹⁸O = —55.50 ‰	SLAP-0.25 μL
SLAP2-0.15 μL	water in silver tube, batch of 50	0.15 μL each	$150	δ²H = —427.5 ‰ δ¹⁸O = —55.50 ‰	SLAP2-0.15 μL
SLAP2-0.25 μL	water in silver tube, batch of 50	0.25 μL each	$150	δ²H = —427.5 ‰ δ¹⁸O = —55.50 ‰	SLAP2-0.25 μL
GISP-0.15 μL	water in silver tube, batch of 50	0.15 μL each	$150	δ²H = —189.7 ‰ δ¹⁸O = —24.78 ‰	GISP-0.15 μL
GISP-0.25 μL	water in silver tube, batch of 50	0.25 μL each	$150	δ²H = —189.7 ‰ δ¹⁸O = —24.78 ‰	GISP-0.25 μL
UC03-0.15 μL	water in silver tube, batch of 50	0.15 μL each	$150	δ²H = +68.5 ‰ δ¹⁸O = +29.79 ‰	UC03-0.15 μL
UC03-0.25 μL	water in silver tube, batch of 50	0.25 μL each	$150	δ²H = +68.5 ‰ δ¹⁸O = +29.79 ‰	UC03-0.25 μL
UC04-0.15 μL	water in silver tube, batch of 50	0.15 μL each	$150	δ²H = +113.6 ‰ δ¹⁸O = +38.95 ‰	UC04-0.15 μL
UC04-0.25 μL	water in silver tube, batch of 50	0.25 μL each	$150	δ²H = +113.6 ‰ δ¹⁸O = +38.95 ‰	UC04-0.25 μL
USGS46-0.15 μL	Ice Core Water in silver tube, batch of 50	0.15 μL each	$150	δ²H = —235.8 ‰ δ¹⁸O = —29.80 ‰	USGS46-0.15 μL
USGS46-0.25 μL	Ice Core Water in silver tube, batch of 50	0.25 μL each	$150	δ²H = —235.8 ‰ δ¹⁸O = —29.80 ‰	USGS46-0.25 μL
USGS47-0.15 μL	Lake Louise Drinking Water in silver tube, batch of 50	0.15 μL each	$150	δ²H = —150.2 ‰ δ¹⁸O = —19.80 ‰	USGS47-0.15 μL
USGS47-0.25 μL	Lake Louise Drinking Water in silver tube, batch of 50	0.25 μL each	$150	δ²H = —150.2 ‰ δ¹⁸O = —19.80 ‰	USGS47-0.25 μL
USGS48-0.15 μL	Puerto Rico Precipitation in silver tube, batch of 50	0.15 μL each	$150	δ²H = —2.0 ‰ δ¹⁸O = —2.224 ‰	USGS48-0.15 μL
USGS48-0.25 μL	Puerto Rico Precipitation in silver tube, batch of 50	0.25 μL each	$150	δ²H = —2.0 ‰ δ¹⁸O = —2.224 ‰	USGS48-0.25 μL
USGS49-0.15 μL	Antarctic Ice-core Water in silver tube, batch of 50	0.15 μL each	$150	δ²H = —394.7 ‰ δ¹⁸O = —50.55 ‰	USGS49-0.15 μL
USGS49-0.25 μL	Antarctic Ice-core Water in silver tube, batch of 50	0.25 μL each	$150	δ²H = —394.7 ‰ δ¹⁸O = —50.55 ‰	USGS49-0.25 μL
USGS50-0.15 μL	Lake Kyoga Water in silver tube, batch of 50	0.15 μL each	$150	δ²H = +32.8 ‰ δ¹⁸O = +4.95 ‰	USGS50-0.15 μL
USGS50-0.25 μL	Lake Kyoga Water in silver tube, batch of 50	0.25 μL each	$150	δ²H = +32.8 ‰ δ¹⁸O = +4.95 ‰	USGS50-0.25 μL
USGS53-0.15 μL	Lake Shala Distilled Water in silver tube, batch of 50	0.15 μL each	$150	δ²H = +40.2 ‰ δ¹⁸O = +5.47 ‰	USGS53-0.15 μL
USGS53-0.25 μL	Lake Shala Distilled Water in silver tube, batch of 50	0.25 μL each	$150	δ²H = +40.2 ‰ δ¹⁸O = +5.47 ‰	USGS53-0.25 μL
USGS82-0.15 μL	honey from tropical Vietnam in silver tube, batch of 50	0.15 μL	$270	δ²H = —43.1 ‰ δ¹⁸O = +19.44 ‰ δ¹³C = —24.31 ‰	USGS82-0.15 μL
USGS82-0.25 μL	honey from tropical Vietnam in silver tube, batch of 50	0.25 μL	$270	δ²H = —43.1 ‰ δ¹⁸O = +19.44 ‰ δ¹³C = —24.31 ‰	USGS82-0.25 μL
USGS83-0.15 μL	honey from prairie in Canada in silver tube, batch of 50	0.15 μL	$270	δ²H = —110.5 ‰ δ¹⁸O = +18.20 ‰ δ¹³C = —26.20 ‰	USGS83-0.15 μL
USGS83-0.25 μL	honey from prairie in Canada in silver tube, batch of 50	0.25 μL	$270	δ²H = —110.5 ‰ δ¹⁸O = +18.20 ‰ δ¹³C = —26.20 ‰	USGS83-0.25 μL
USGS84-0.15 μL	olive oil from Sicily, Italy in silver tube, batch of 50	0.15 μL	$240	δ²H = —140.4 ‰ δ¹⁸O = +26.36 ‰ δ¹³C = —28.80 ‰	USGS84-0.15 μL
USGS84-0.25 μL	olive oil from Sicily, Italy in silver tube, batch of 50	0.25 μL	$240	δ²H = —140.4 ‰ δ¹⁸O = +26.36 ‰ δ¹³C = —28.80 ‰	USGS84-0.25 μL
USGS85-0.15 μL	olive oil from coastal desert, Peru in silver tube, batch of 50	0.15 μL	$240	δ²H = —158.6 ‰ δ¹⁸O = +22.00 ‰ δ¹³C = —29.74 ‰	USGS85-0.15 μL
USGS85-0.25 μL	olive oil from coastal desert, Peru in silver tube, batch of 50	0.25 μL	$240	δ²H = —158.6 ‰ δ¹⁸O = +22.00 ‰ δ¹³C = —29.74 ‰	USGS85-0.25 μL
USGS86-0.15 μL	peanut oil from tropical Vietnam in silver tube, batch of 50	0.15 μL	$240	δ²H = —207.4 ‰ δ¹⁸O = +18.76 ‰ δ¹³C = —30.63 ‰	USGS86-0.15 μL
USGS86-0.25 μL	peanut oil from tropical Vietnam in silver tube, batch of 50	0.25 μL	$240	δ²H = —207.4 ‰ δ¹⁸O = +18.76 ‰ δ¹³C = —30.63 ‰	USGS86-0.25 μL
USGS87-0.15 μL	corn oil from USA in silver tube, batch of 50	0.15 μL	$240	δ²H = —168.1 ‰ δ¹⁸O = +20.11 ‰ δ¹³C = —15.51 ‰	USGS87-0.15 μL
USGS87-0.25 μL	corn oil from USA in silver tube, batch of 50	0.25 μL	$240	δ²H = —168.1 ‰ δ¹⁸O = +20.11 ‰ δ¹³C = —15.51 ‰	USGS87-0.25 μL
W-62001-0.15 μL	RSIL DI water in silver tube, batch of 50	0.15 μL each	$150	δ²H = —41.1 ‰ δ¹⁸O = —6.25 ‰	--
W-62001-0.25 μL	RSIL DI water in silver tube, batch of 50	0.25 μL each	$150	δ²H = —41.1 ‰ δ¹⁸O = —6.25 ‰	--
GFLES-1-0.15 μL	water enriched in ²H in silver tube, batch of 50	0.15 μL each	$150	δ²H = +80.1 ‰ δ¹⁸O = —6.25 ‰ δ¹⁷O = —3.32 ‰	GFLES-1-0.15 μL
GFLES-1-0.25 μL	water enriched in ²H in silver tube, batch of 50	0.25 μL each	$150	δ²H = +80.1 ‰ δ¹⁸O = —6.25 ‰ δ¹⁷O = —3.32 ‰	GFLES-1-0.25 μL
GFLES-2-0.15 μL	water enriched in ²H in silver tube, batch of 50	0.15 μL each	$150	δ²H = +159.9 ‰ δ¹⁸O = —6.21 ‰ δ¹⁷O = —3.3 ‰	GFLES-2-0.15 μL
GFLES-2-0.25 μL	water enriched in ²H in silver tube, batch of 50	0.25 μL each	$150	δ²H = +159.9 ‰ δ¹⁸O = —6.21 ‰ δ¹⁷O = —3.3 ‰	GFLES-2-0.25 μL
GFLES-3-0.15 μL	water enriched in ²H in silver tube, batch of 50	0.15 μL each	$150	δ²H = +280.2 ‰ δ¹⁸O = —6.14 ‰ δ¹⁷O = —3.28 ‰	GFLES-3-0.15 μL
GFLES-3-0.25 μL	water enriched in ²H in silver tube, batch of 50	0.25 μL each	$150	δ²H = +280.2 ‰ δ¹⁸O = —6.14 ‰ δ¹⁷O = —3.28 ‰	GFLES-3-0.25 μL
GFLES-4-0.15 μL	water enriched in ²H in silver tube, batch of 50	0.15 μL each	$150	δ²H = +399.8 ‰ δ¹⁸O = —6.08 ‰ δ¹⁷O = —3.25 ‰	GFLES-4-0.15 μL
GFLES-4-0.25 μL	water enriched in ²H in silver tube, batch of 50	0.25 μL each	$150	δ²H = +399.8 ‰ δ¹⁸O = —6.08 ‰ δ¹⁷O = —3.25 ‰	GFLES-4-0.25 μL
IAEA-604-0.15 μL	water enriched in ²H in silver tube, batch of 50	0.15 μL each	$150	δ²H = +799.9 ‰ δ¹⁸O = —5.86 ‰ δ¹⁷O = —3.2 ‰	IAEA-604-0.15 μL
IAEA-604-0.25 μL	water enriched in ²H in silver tube, batch of 50	0.25 μL each	$150	δ²H = +799.9 ‰ δ¹⁸O = —5.86 ‰ δ¹⁷O = —3.2 ‰	IAEA-604-0.25 μL
NBS 1	glass ampoule of steam condensate from Potomac River water	50 mL	$130	δ²H = —47.1 ‰ δ¹⁸O = —7.91 ‰	NBS 1
NBS 1a	glass ampoule of snow meltwater from Yellowstone, Wyoming	50 mL	$130	δ²H = —183.2 ‰ δ¹⁸O = —24.36 ‰	NBS 1a
W-64444-S	Set of 8 ampoules having 7 mL of water per ampoule	56 mL	$118	δ²H = —399.1 ‰ δ¹⁸O = —51.14 ‰	--
W-67400-S	Set of 8 ampoules having 7 mL of water per ampoule	56 mL	$118	δ²H = +1.2 ‰ δ¹⁸O = —1.97 ‰	W-67400-S
W-43156	Water, 40 mL in glass ampoule	40 mL	$66	δ²H = —112.8 ‰ δ¹⁸O = —14.42 ‰	--
W-32633	Water, 40 mL in glass ampoule	40 mL	$66	δ²H = —58.0 ‰ δ¹⁸O = —8.95 ‰	--
W-115143A	Water, 40 mL in glass ampoule	40 mL	$66	δ²H = —4.8 ‰ δ¹⁸O = —1.19 ‰	--
W-133887	Water, D2O with relatively low δ¹⁸O	10 mL	$200	D2O = 99.8 % δ¹⁸O = +62 ‰	--

ID #	Description of Service	Amount	Price	Comment
Cal-δ²H	calibration of user provided water for δ²H relative to VSMOW-SLAP	--	$1180	--
Cal-δ¹⁸O	calibration of user provided water for δ¹⁸O relative to VSMOW-SLAP	--	$1180	--
Cal-solid	On request	--	Contact RSIL	--
LIMS	LIMS database modification requests	--	$175/hr	--
Other	On request	--	Contact RSIL	--

Return to Top