Capture Vaporizer AMS Spectral Database

This page is a compilation of spectra obtained with the Capture Vaporizer Aerosol Mass Spectrometer contributted by the AMS User Community. It complements the unit mass resolution (UMR) database and high resolution (HR) database for the AMS.

Spectra are named according to the following system:

A = Ambient spectra
L = Laboratory spectra 		DEC = Deconvoluted
STD = Standard
SOA = SOA 		HR = High resolution
UMR = Unit mass resolution		 Database ID # (CV_xxx)

For instance, A_HR_CV_001 is an ambient sample analyzed at high resolution, and is the first ambient spectrum in the database.

Within each spectrum are several data waves. Waves that include "M" in their name are the open signal minus the closed signal (these are also the plotted waves), while waves with "C" in their name are the closed signal only.

If there are spectra that you would like added to the database please send them to Anne Handschy.

A standalone ipf to help with the creation of database files can be downloaded here. This ipf can be used within ACSM analysis experiments, PMF experiments or AMS analysis experiments (Squirrel and Pika, v 1.64+).

Note that replicates of spectra are of great interest. As in the NIST or Wiley databases, replicates allow the user to identify differences that may be due to impurities, different experimental conditions, instrumental differences, etc.

These spectra have been made available to the entire community. By using these spectra you agree to make appropriate citations of the papers referenced for the specific spectra that you use. Please honor this request so that the spectra can continue to be available to everyone. Also please cite this database as "Hu, W.; Handschy, A.; Jimenez, J. L., AMS Capture Vaporizer Spectral Database. URL: http://cires1.colorado.edu/jimenez-group/AMSsd_CV/." and the paper that describes it (Hu et al., AST, 2018) and Hu et al. ACS E&SC 2018.

Ambient

Spectra ID Source Group AMS Instrument Resolution EI Energy Vaporizer
Temp (oC)		 Citation Fig # Comments Data
A_HR_CV_001 COA (Cooking OA
(COA, PMF factor))		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder 		HR-ToF-AMS
(V-mode) 		HR 70 eV 525 Hu, W.W. et al, AST 2017 NA Boulder study, CU campus, Boulder, US, April 2013
A_HR_CV_001_COA.itx
A_HR_CV_002 HOA (Hydrocarbon-like OA
(HOA, PMF factor))		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder 		HR-ToF-AMS
(V-mode) 		HR 70 eV 525 Hu, W.W. et al, AST 2017 NA Boulder study, CU campus, Boulder, US, April 2013
A_HR_CV_001_HOA.itx
A_HR_CV_003 OOA (Oxygenated OA
(OOA, PMF factor))		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 525 Hu, W.W. et al, AST 2017 NA Boulder study, CU campus, Boulder, US, April 2013
A_HR_CV_003_OOA.itx
A_DEC_UMR_CV_004 Isoprene epoxydiols-derived SOA
(IEPOX-SOA, PMF factor)		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 C-AMS UMR 70 eV 550 Hu, W.W. et al, ACS E&SC 2018 Fig 4 SOAS Campaign, Centreville, AL, June-July 2013
A_DEC_UMR_CV_004_IEPOX_SOA.itx
A_DEC_UMR_CV_005 More-oxidized OOA
(MO-OOA, PMF factor)		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder 		C-AMS UMR 70 eV 550 Hu, W.W. et al, ACS E&SC 2018 Fig 4 SOAS Campaign, Centreville, AL, June-July 2013
A_DEC_UMR_CV_005_MO_OOA.itx
A_DEC_UMR_CV_006 Less-oxidized OOAI
(LO-OOAI, biogenic-origin, PMF factor)		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder 		C-AMS UMR 70 eV 550 Hu, W.W. et al, ACS E&SC 2018 Fig 4 SOAS Campaign, Centreville, AL, June-July 2013
A_DEC_UMR_CV_006_LO_OOA1.itx
A_DEC_UMR_CV_007 Less-oxidized OOAII
(LO-OOAII, Anthropogenic-origin, PMF factor)		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder 		C-AMS UMR 70 eV 550 Hu, W.W. et al, ACS E&SC 2018 Fig 4 SOAS Campaign, Centreville, AL, June-July 2013
A_DEC_UMR_CV_007_LO_OOAII.itx
A_HR_CV_008 Isoprene epoxydiols-derived SOA
(IEPOX-SOA, PMF factor)		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder 		HR-ToF-AMS
(V-mode) 		HR 70 eV 550 Hu, W.W. et al, ACS E&SC 2018 NA SOAS Campaign, Centreville, AL, June-July 2013
A_HR_CV_008_SOAS_IEPOX-SOA.itx
A_DEC_UMR_CV_009 More-oxidized OOA
(MO-OOA, PMF factor)		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 ACSM-Q UMR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 Fig 6 Billerica study, rural Boston area, Sep 2012
A_DEC_UMR_CV_009_MO_OOA.itx
A_DEC_UMR_CV_010 Less-oxidized OOA
(LO-OOA, PMF factor)		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 ACSM-Q UMR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 Fig 6 Billerica study, rural Boston area, Sep 2012
A_DEC_UMR_CV_010_LO_OOA.itx
A_DEC_UMR_CV_011 Hydrocarbon-like OA
(HOA, PMF factor)		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 ACSM-Q UMR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 Fig 6 Billerica study, rural Boston area, Sep 2012
A_DEC_UMR_CV_011_HOA.itx
A_HR_CV_012 More-oxidized OOA
(MO-OOA, PMF factor)		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 Fig 5 KORUS-AQ study (RF05), Flight, South Korean, May 2016
A_HR_CV_012_MO_OOA.itx
A_HR_CV_013 less-oxidized OOA
(LO-OOA, PMF factor)		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 Fig 5 KORUS-AQ study (RF05), Flight, South Korean, May 2016
A_HR_CV_013_LO_OOA.itx
A_HR_CV_014 Hydrocarbon-like OA
(HOA, PMF factor)		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 Fig 5 KORUS-AQ study (RF05), Flight, South Korean, May 2016
A_HR_CV_014_HOA.itx

Laboratory Standard

Spectra ID Source Group AMS Instrument Resolution EI Energy Vaporizer
Temp (oC)		 Citation Fig # Comments Data
L_STD_HR_CV_001 AcetylSalicylic Acid (C9H8O4) Weiwei Hu; Jimenez group,
University of Colorado at Boulder 		HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA AceylSalicylic Acid (C9H8O4); Purity>99%; Sigma Aldrich;
Laser ablation method with N2 as carrier gas; No solvent
L_STD_HR_CV_001_AA.itx
L_STD_HR_CV_002 Folic Acid (C19H19N7O6) Weiwei Hu; Jimenez group,
University of Colorado at Boulder 		HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Folic Acid (C19H19N7O6); Purity>=97%; Sigma Aldrich;
Laser ablation method with N2 as carrier gas; No solvent
L_STD_HR_CV_002_FA.itx
L_STD_HR_CV_003 Benzyl sulfone (C14H14SO2) Weiwei Hu; Jimenez group,
University of Colorado at Boulder 		HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Benzyl sulfone (C14H14SO2); Purity>=99%; Sigma Aldrich;
Laser ablation method with N2 as carrier gas; No solvent
L_STD_HR_CV_003_Benzylsulfone.itx
L_STD_HR_CV_004 Bis(4-HydroxyPhenyl)Sulfone (C12H10SO4) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Bis(4-HydroxyPhenyl)Sulfone (C12H10SO4); Purity>=98%; Sigma Aldrich;
Laser ablation method with N2 as carrier gas; No solvent
L_STD_HR_CV_004.itx
L_STD_HR_CV_005 1,2 bis(4-pyridyl)ethylene
(C12H10N2)		 Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 Fig.S3d2 1,2 bis(4-pyridyl)ethylene (C12H10N2); Purity>=97%; Sigma Aldrich;
Atomization with Ar as carrier gas;Isopropanol as solvent
L_STD_HR_CV_005.itx
L_STD_HR_CV_006 Caffeine (C8H10N4O2) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Caffeine (C8H10N4O2);Purity>=99%; Sigma Aldrich;
Laser ablation method with N2 as carrier gas; No solvent
L_STD_HR_CV_006.itx
L_STD_HR_CV_007 Histidine (C6H9N3O2) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Histidine (C6H9N3O2); Purity>=99%; Sigma Aldrich;
Laser ablation method with N2 as carrier gas; No solvent
L_STD_HR_CV_007.itx
L_STD_HR_CV_008 Trytophan (C11H12N2O2) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Trytophan (C11H12N2O2); Purity>=99%; Fisher scientific;
Laser ablation method with N2 as carrier gas; No solvent
L_STD_HR_CV_008.itx
L_STD_HR_CV_009 Diphenyl sulfone (C12H10SO2) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Diphenyl sulfone (C12H10SO2); Purity>=97%; Sigma Aldrich;
Laser ablation method with N2 as carrier gas; No solvent
L_STD_HR_CV_009.itx
L_STD_HR_CV_010 Nicotinic Acid (C6H5NO2) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Nicotinic Acid (C6H5NO2); Purity>=98%; Sigma Aldrich;
Atomization with Ar as carrier gas;H2O as solvent
L_STD_HR_CV_010.itx
L_STD_HR_CV_011 Sucrose (C12H22O11) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Sucrose (C12H22O11); Purity>=99%; Sigma Aldrich;
Laser ablation with Ar as carrier gas;No solvent
L_STD_HR_CV_011.itx
L_STD_HR_CV_012 Isopropanol (C3H8O) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Isopropanol (C3H8O); Purity>=99.5% Sigma Aldrich;
atomization with Ar as carrier gas
L_STD_HR_CV_012.itx
L_STD_HR_CV_013 Hexane (C6H14) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Hexane (C6H14); Purity>=95%; Sigma Aldrich;
Atomization with Ar as carrier gas
L_STD_HR_CV_013.itx
L_STD_HR_CV_014 OleicAcid (C18H34O2) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA OleicAcid (C18H34O2); Purity>98%; Sigma Aldrich;
Atomization with Ar as carrier gas; Isopropanol as solvent
L_STD_HR_CV_014.itx
L_STD_HR_CV_015 OleicAcid (C18H34O2) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA OleicAcid (C18H34O2); Purity>98%; Sigma Aldrich;
Atomization with air as carrier gas; Isopropanol as solvent;
Isopropanol contribution was not excluded which should be less than 5%
L_STD_HR_CV_015.itx
L_STD_HR_CV_016 Squalene (C30H50) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Squalene (C30H50); Purity>98%; Sigma Aldrich;
Atomization with Ar as carrier gas;Hexane as solvent
L_STD_HR_CV_016.itx
L_STD_HR_CV_017 Squalene (C30H50) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, ACS E&SC 2018 NA Squalene (C30H50); Purity>98%; Sigma Aldrich;
Atomization with air as carrier gas; Isopropanol as solvent;
Isopropanol contribution was not exluded which should be less than 5%
L_STD_HR_CV_017.itx
L_STD_HR_CV_018 Bis (2-ethylhexyl) ester (DOS) (C26H50O4) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, AST 2018 Fig. S3a2 Bis (2-ethylhexyl) ester (DOS) (C26H50O4);
Air as carrier gas; Heating-condense method in the chamber
L_STD_HR_CV_018.itx
L_STD_HR_CV_019 Isotope C13 labelled Oleic acid (j13C18H34O2) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, AST 2018 Fig. 3d Isotope labelled Oleic acid with all carbon being replaced with isotople C13;
Purity>98% Laser ablation method With Ar as carrier gas
L_STD_HR_CV_019.itx
L_STD_HR_CV_020 OleicAcid (C18H34O2) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, AST 2018 Fig. 3c Normal Oleic acid; Purity>98%; Sigma Aldrich;
Laser ablation method with Ar as carrier gas; No solvent
L_STD_HR_CV_020.itx
L_STD_HR_CV_021 Squalene (C30H50) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, AST 2018 Fig. S8d Squalene (C30H50); Purity>98%; Sigma Aldrich;
Laser ablation method with Ar as carrier gas; No solvent
L_STD_HR_CV_021.itx
L_STD_HR_CV_022 Levoglucosan (C6H10O5) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, AST 2018 Fig. 1d2 Levoglucosan (C6H10O5); Purity>=98%; Sigma Aldrich;
Atomization with Ar as carrier gas; H2O as solvent
L_STD_HR_CV_022.itx
L_STD_HR_CV_023 Glutaric Acid (C5H8O4) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(V-mode) 		HR 70 eV 600 Hu, W.W. et al, AST 2018 Fig. S3c2 Glutaric Acid (C5H8O4); Purity>=99%; Sigma Aldrich;
Atomization with Ar as carrier gas; H2O as solvent
L_STD_HR_CV_023.itx
L_STD_HR_CV_024 Octacosane (C28H58) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 550 Hu, W.W. et al, AST 2018 Fig. S6a Octacosane (C28H58); Purity>=99%; Sigma Aldrich;
Atomization with Ar as carrier gas; Isopropanol solvent
L_STD_HR_CV_024.itx
L_STD_HR_CV_025 Citric Acid (C6H8O7) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, AST 2018 Fig. 1c Citric Acid (C6H8O7); Purity>=99.5%; Fisher scientific;
Atomization with Air as carrier gas; H2O as solvent
L_STD_HR_CV_025.itx
L_STD_HR_CV_026 Sucrose (C12H22O11) Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, AST 2018 Fig. S3b2 Sucrose (C12H22O11); Purity>=99%; Sigma Aldrich;
Atomization with Ar as carrier gas; H2O as solvent
L_STD_HR_CV_026.itx
L_STD_UMR_027 BBQ Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 barbecue
L_STD_UMR_027_BBQ.itx
L_STD_UMR_028 BeanOil Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 dry bean stalk burning
L_STD_UMR_028_Bean.itx
L_STD_UMR_029 BeanOil Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 stir-fried celery with bean oil
L_STD_UMR_029_BeanOil.itx
L_STD_UMR_030 Birchen Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 dry birchen burning
L_STD_UMR_030_Birchen.itx
L_STD_UMR_031 BlendOil Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 stir-fried celery with blend oil
L_STD_UMR_031_BlendOil.itx
L_STD_UMR_032 BrownCoalF Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 brown coal combustion under flaming conditions
L_STD_UMR_032_BrownCoalF.itx
L_STD_UMR_033 BrownCoalS Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 brown coal combustion under smoldering conditions
L_STD_UMR_033_BrownCoalS.itx
L_STD_UMR_034 Corn Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 dry corn stalk burning;
L_STD_UMR_034_Corn.itx
L_STD_UMR_035 CornOil1 Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 stir-fried garlic with corn oil
L_STD_UMR_035_CornOil1.itx
L_STD_UMR_036 CornOil2 Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 stir-fried celery with corn oil
L_STD_UMR_036_CornOil2.itx
L_STD_UMR_037 Cotton Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 dry cotton stalk burning
L_STD_UMR_037_Cotton.itx
L_STD_UMR_038 LardOil Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 stir-fried celery with lard oil
L_STD_UMR_038_LardOil.itx
L_STD_UMR_039 Oak Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 dry Chinese oak burning
L_STD_UMR_039_Oak.itx
L_STD_UMR_040 PeanutOil Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 stir-fried celery with peanut oil
L_STD_UMR_040_PeanutOil.itx
L_STD_UMR_041 Pinetree Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 dry pine tree burning
L_STD_UMR_041_Pinetree.itx
L_STD_UMR_042 Poplar Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 dry poplar burning
L_STD_UMR_042_Poplar.itx
L_STD_UMR_043 Rape Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 dry rape stalk burning
L_STD_UMR_043_Rape.itx
L_STD_UMR_044 SmokyCoalF Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 bituminous coal combustion under flaming conditions
L_STD_UMR_044_SmokyCoalF.itx
L_STD_UMR_045 SmokyCoalS Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 bituminous coal combustion under smoldering conditions
L_STD_UMR_045_SmokyCoalS.itx
L_STD_UMR_046 SunflowerOil Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 stir-fried celery with sunflower oil
L_STD_UMR_046_SunflowerOil.itx
L_STD_UMR_047 Wheat Yele Sun group,
Chinese Academy of Sciences 		HR-ToF-AMS
(W-mode) 		UMR 70 eV 600 Xu, W. et al, AMT 2020 Fig. 1 dry wheat stalk burning
L_STD_UMR_047_Wheat.itx

Laboratory SOA

Spectra ID Source Group AMS Instrument Resolution EI Energy Vaporizer
Temp (oC)		 Citation Fig # Comments Data
L_SOA_HR_CV_001 ASOA from α-pinene + O3 dark chamber chemistry Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, AST 2018 Fig. S6b CU Chambers, a-pinene ozonolysis under dry conditon (RH<5%), average mass spectra with mass loading around 30 μg/m3
L_SOA_HR_CV_001.itx
L_SOA_HR_CV_002 SOA from 100ppb δ-Carene + NO3 Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, AST 2018 Fig. S3e2 CU Chambers, δ-Carene NO3 (continously 2 hr N2O3 injection) under dry conditons (RH<5%)
L_SOA_HR_CV_002.itx
L_SOA_HR_CV_003 SOA from 100ppb α-pinene + NO3 with (NH4)2SO4 seed Weiwei Hu; Jimenez group,
University of Colorado at Boulder		 HR-ToF-AMS
(W-mode) 		HR 70 eV 600 Hu, W.W. et al, AST 2018 Fig. 1e2 CU Chambers, α-pinene+ NO3 (5, 7*10 ppb N2O5 injeciton) under dry conditon (RH<5%); AS seed concentration is 31.7 μg/m3.
L_SOA_HR_CV_003.itx

This page is maintained by Anne Handschy of the Jimenez Group at the University of Colorado