prof. RNDr. ŠPANĚL Patrik Dr. rer. nat.
Room 232, 216
Department Department of Chemistry of Ions in Gaseous Phase
Phone extension 3084, 3239
patrik.spanel@jh-inst.cas.cz
WWW
http://www.jh-inst.cas.cz/~spanel/
Bibliography
Externally maintained publication lists:
· ASEP
· PUBMED
updated February 2023.
|
No |
List of publications in
scientific journals and books |
||||
|
297 |
Recent developments and applications of selected
ion flow tube mass spectrometry, SIFT-MS. D. Smith, P. Španěl, N.
Demarais, V.S. Langford, M.J. McEwan, Mass Spectrom.
Rev., (2023) e21835. https://doi.org/10.1002/mas.21835 |
|
|||
|
296 |
Selected Ion Flow Tube Mass Spectrometry as a
Tool to Understand Hydride Atomization and the Fate of Free Analyte Atoms in
an Externally Heated Quartz Tube Atomizer. M. Lacko,
K. Dryahina, P. Španěl, J. Kratzer,
T. Matoušek, J. Dědina, Anal. Chem., 94
(2022) 13163-13170. https://doi.org/10.1021/acs.analchem.2c02682
|
|
|||
|
295 |
The Human Skin Volatolome:
A Systematic Review of Untargeted Mass Spectrometry Analysis. A. Mitra, S.
Choi, P.R. Boshier, A. Razumovskaya-Hough,
I. Belluomo, P. Spanel, G.B. Hanna, Metabolites, 12 (2022)
824. https://doi.org/10.3390/metabo12090824 |
|
|||
|
294 |
Diagnostic Performance of a Noninvasive
Breath Test for Colorectal Cancer: COBRA1 Study. G. Woodfield, I. Belluomo, I. Laponogov, K. Veselkov, Boshier, G. Lin, A. Myridakis, O. Ayrton, P. Španěl, A. Vidal-Diez, A.
Romano, J. Martin, L. Marelli, C. Groves, K. Monahan, C. Kontovounisios,
B.P. Saunders, A.J. Cross, G.B. Hanna, Gastroenterology, 163
(2022) 1447-1449.e1448. https://doi.org/10.1053/j.gastro.2022.06.084
|
|
|||
|
293 |
Kinetics of reactions
of NH4+ with some biogenic organic molecules and
monoterpenes in He and N2 carrier gases: a potential SIFT-MS reagent
ion. S.J. Swift, D. Smith, K. Dryahina, M. Omezzine Gnioua, P.
Španěl, Rapid Commun. Mass Spectrom., (2022) e9328. https://doi.org/10.1002/rcm.9328 |
|
|||
|
292 |
Mass Spectrometric Quantification
of Volatile Compounds Released by Fresh Atlantic Salmon Stored at 4 °C under
Modified Atmosphere Packaging and Vacuum Packaging for up to 16 Days. Hanne Dalsvĺg, Janna Cropotova, Anet Režek Jambrak,
Tibor Janči, Patrik Španěl*, Kseniya Dryahina, David Smith, and Turid
Rustad, ACS Food Sci. Technol., 2
(2022) 116835. https://doi.org/10.1021/acsfoodscitech.1c00259
|
|
|||
|
291 |
Relative influence of
helium and nitrogen carrier gases on analyte ion branching ratios in SIFT-MS.
P. Španěl, S.J. Swift, K. Dryahina, D. Smith, Int. J. Mass Spectrom.,
476 (2022) 116835. https://doi.org/https://doi.org/10.1016/j.ijms.2022.116835
|
|
|||
|
290 |
Ternary association
reactions of H3O+, NO+ and O2+•
with N2, O2, CO2 and H2O;
implications for selected ion flow tube mass spectrometry analyses of air and
breath. D. Smith, P. Španěl, Rapid Commun.
Mass Spectrom., 36 (2022) e9241. https://doi.org/https://doi.org/10.1002/rcm.9241
|
|
|||
|
289 |
Atomization of As and
Se volatile species in a dielectric barrier discharge atomizer after hydride
generation: Fate of analyte studied by selected ion flow tube mass
spectrometry. J. Kratzer, M. Lacko,
K. Dryahina, T. Matoušek,
P. Španěl, J. Dědina, Anal. Chim. Acta, 1190 (2022). https://doi.org/10.1016/j.aca.2021.339256
|
|
|||
|
288 |
Sensitivity of
secondary electrospray ionization mass spectrometry to a range of volatile
organic compounds: Ligand switching ion chemistry and the influence of Zspray™ guiding electric fields. K. Dryahina,
M. Polášek, D. Smith, P. Španěl,
Rapid Commun. Mass Spectrom., 35 (2021) e9187. https://doi.org/https://doi.org/10.1002/rcm.9187
|
|
|||
|
287 |
Ligand Switching Ion
Chemistry: An SIFDT Case Study of the Primary and Secondary Reactions of
Protonated Acetic Acid Hydrates with Acetone. A. Spesyvyi,
M. Lacko, K. Dryahina, D.
Smith, P. Španěl, J. Am. Soc.
Mass Spectrom., 32 (2021) 2251-2260. https://doi.org/10.1021/jasms.1c00174
|
|
|||
|
286 |
Ilaria
Belluomo, Piers R. Boshier,
Antonis Myridakis, Bhamini
Vadhwana, Sheraz R.
Markar, Patrik Španěl and George B. Hanna. Selected ion
flow tube mass spectrometry for targeted analysis of volatile organic
compounds in human breath. Nat. Protoc. 16, 3419–3438 (2021). https://doi.org/10.1038/s41596-021-00542-0 |
|
|||
|
285 |
Cross Platform
Analysis of Volatile Organic Compounds Using Selected Ion Flow Tube and
Proton-Transfer-Reaction Mass Spectrometry. Geng-Ping
Lin, Bhamini Vadhwana,
Ilaria Belluomo, Piers R. Boshier,
Patrik Španěl, and George B. Hanna J. Am. Soc. Mass Spectrom. 2021, 32, 1215−1223 https://doi.org/10.1021/jasms.1c00027
|
|
|||
|
284 |
Soft Chemical Ionization
Mass Spectrometric Analyses of Hazardous Gases and Decomposition Products of
Explosives in Air. K. Dryahina, P. Španěl, in
M. F. Pereira, A. Apostolakis (eds.), Terahertz
(THz), Mid Infrared (MIR) and Near Infrared (NIR) Technologies for Protection
of Critical Infrastructures Against Explosives and CBRN, Springer,
Dordrecht, 2021. https://doi.org/10.1007/978-94-024-2082-1
|
|
|||
|
285 |
Cross Platform
Analysis of Volatile Organic Compounds Using Selected Ion Flow Tube and
Proton-Transfer-Reaction Mass Spectrometry. Geng-Ping
Lin, Bhamini Vadhwana,
Ilaria Belluomo, Piers R. Boshier,
Patrik Španěl, and George B. Hanna J. Am. Soc. Mass Spectrom. 2021, 32, 1215−1223 https://doi.org/10.1021/jasms.1c00027
|
|
|||
|
284 |
Soft Chemical
Ionization Mass Spectrometric Analyses of Hazardous Gases and Decomposition
Products of Explosives in Air. K. Dryahina, P.
Španěl, in M. F. Pereira, A. Apostolakis
(eds.), Terahertz (THz), Mid Infrared (MIR) and Near Infrared (NIR)
Technologies for Protection of Critical Infrastructures Against Explosives
and CBRN, Springer, Dordrecht, 2021. https://doi.org/10.1007/978-94-024-2082-1
|
|
|||
|
283 |
Reagent and analyte
ion hydrates in secondary electrospray ionization mass spectrometry
(SESI-MS), their equilibrium distributions and dehydration in an ion transfer
capillary: Modelling and experiments. K. Dryahina,
S. Som, D. Smith, P. Španěl, Rapid
Commun. Mass Spectrom.,
35 (2021) e9047. https://doi.org/https://doi.org/10.1002/rcm.9047
|
|
|||
|
282 |
Parallel secondary electrospray
ionisation mass spectrometry and selected ion flow tube mass spectrometry
quantification of trace amounts of volatile ketones. S. Som, J. Kubišta, K. Dryahina, P. Španěl, Rapid Commun.
Mass Spectrom., 35 (2021) e8981. https://doi.org/https://doi.org/10.1002/rcm.8981
|
|
|||
|
281 |
Experimental study of
the reaction of O- ions with CO2 molecules with
different ternary gases at temperatures relevant to the martian
ionosphere. I. Zymak, J. Zabka,
M. Polasek, T.D. Tran, P. Španěl, D. Smith. 354
(2021) 4. https://doi.org/10.1016/j.icarus.2020.114057
|
|
|||
|
280 |
The development of a
fully integrated 3D printed electrochemical platform and its application to
investigate the chemical reaction between carbon dioxide and hydrazine. J. Giorgini Escobar, E. Vaněčková,
Š. Nováková Lachmanová,
F. Vivaldi, J. Heyda, J. Kubišta,
V. Shestivska, P. Španěl, K. Schwarzová-Pecková, J. Rathouský,
T. Sebechlebská, V. Kolivoška, Electrochim. Acta, 360 (2020)
136984. https://doi.org/https://doi.org/10.1016/j.electacta.2020.136984
|
|
|||
|
279 |
Understanding Gas
Phase Ion Chemistry Is the Key to Reliable Selected Ion Flow Tube-Mass
Spectrometry Analyses. David Smith, Murray J. McEwan, and Patrik Španěl. Anal.
Chem. 92 (2020) 12750−12762. https://dx.doi.org/10.1021/acs.analchem.0c03050
|
|
|||
|
278 |
Dissociation of H3O+,
NO+ and O2+• reagent ions injected into nitrogen
carrier gas in SIFT-MS and reactivity of the ion fragments. P.
Španěl, D. Smith. International Journal of Mass Spectrometry 458
(2020) 116438. https://doi.org/10.1016/j.ijms.2020.116438
|
|
|||
|
277 |
Quantification of
volatile metabolites in exhaled breath by selected ion flow tube mass
spectrometry, SIFT-MS. P. Španěl, D. Smith. Clinical Mass
Spectrometry 16 (2020) 18–24. https://doi.org/10.1016/j.clinms.2020.02.001
|
|
|||
|
276 |
Book chapter:
Selected ion flow tube mass spectrometry. D. Smith, P. Španěl, G.B.
Hanna, R. Dweik in Breathborne
Biomarkers and the Human Volatilome, J.
Beauchamp, C. Davis, and J. Pleil, Editors. 2020,
Elsevier Science. p. 137-153. https://www.elsevier.com/books/breathborne-biomarkers-and-the-human-volatilome/beauchamp/978-0-12-819967-1 |
|
|||
|
257 |
Pentane and other
volatile organic compounds, including carboxylic acids, in the exhaled breath
of patients with Crohn’s disease and ulcerative colitis. Kseniya Dryahina, David Smith, Martin Bortlík,
Naděžda Machková,
Milan Lukáš, Patrik Španěl J. Breath Res. 12
(2018) 016002 10.1088/1752-7163/aa8468 |
|
|||
|
256 |
Ion chemistry at elevated
ion-molecule interaction energies in a selected ion flow-drift tube:
reactions of H3O+, NO+ and O2+
with saturated aliphatic ketones. Anatolii Spesyvyi, David Smith and Patrik Španěl Phys.Chem.Chem.Phys. 19 (2017) 31714
10.1039/c7cp05795d |
|
|||
|
255 |
On the importance of
accurate quantification of individual volatile metabolites in exhaled breath.
David Smith, Patrik Španěl. J. Breath Res. 11
(2017) 047106 10.1088/1752-7163/aa7ab5 |
|
|||
|
254 |
Acetic acid is
elevated in the exhaled breath of cystic fibrosis patients. Patrik
Španěl, Kristýna Sovová,
Kseniya Dryahina, Tereza Doušová,
Pavel Dřevínek, David Smith. Journal of Cystic
Fibrosis 16 (2017) e17–e18 10.1016/j.jcf.2017.02.001 |
|
|||
|
253 |
Evaluation of peroxidative
stress of cancer cells in vitro by real-time quantification of volatile
aldehydes in culture headspace spectrometry. Violetta Shestivska,
Abigail V. Rutter, Josep Sulé‐Suso, David
Smith, Patrik Španěl. Rapid Commun. Mass Spectrom. 2017, 31, 1344–1352 10.1002/rcm.7911 |
|
|||
|
252 |
Selected ion flow
tube study of the reactions of H3O+and NO+
with a series of primary alcohols in the presence of water vapour in support
of selected ion flow tube mass spectrometry. Španěl P, Žabka J, Zymak I and Smith D. Rapid Commun. Mass Spectrom. 2017, 31, 437–446 10.1002/rcm.7811 |
|
|||
|
251 |
Selected Ion Flow
Tube (SIFT) Applications in Mass Spectrometry. In: Lindon, J.C.,
Tranter, G.E., and Koppenaal, D.W. (eds.) The Encyclopedia of Spectroscopy and Spectrometry, 3rd
edition vol. 4, pp. 56-68. (2016) Oxford: Academic Press. ISBN
:978-0128032244 |
|
|||
|
250 |
Spectroscopic investigations
of high-energy-density plasma transformations in a simulated early reducing
atmosphere containing methane, nitrogen and water |
|
|||
|
249 |
A pilot study of ion
- molecule reactions at temperatures relevant to the atmosphere of Titan |
|
|||
|
248 |
Selected ion flow
tube mass spectrometry analyses of laser decomposition products of a range of
explosives and ballistic propellants |
|
|||
|
247 |
Differentiation of
pulmonary bacterial pathogens in cystic fibrosis by volatile metabolites
emitted by their in vitro cultures: Pseudomonas aeruginosa, Staphylococcus
aureus, Stenotrophomonas maltophilia and the Burkholderia
cepacia complex |
|
|||
|
246 |
Do linear logistic
model analyses of volatile biomarkers in exhaled breath of cystic fibrosis
patients reliably indicate Pseudomonas aeruginosa infection? |
|
|||
|
245 |
In-tube
collision-induced dissociation for selected ion flow-drift tube mass
spectrometry, SIFDT-MS: a case study of NO+ reactions with isomeric
monoterpenes |
|
|||
|
244 |
Status of selected
ion flow tube MS: accomplishments and challenges in breath analysis and other
areas |
|
|||
|
243 |
Breath concentration
of acetic acid vapour is elevated in patients with cystic fibrosis David Smith, Kristýna Sovová, Kseniya Dryahina, Tereza Doušová, Pavel
Dřevínek and Patrik Španěl |
|
|||
|
242 |
SIFT-MS
quantification of several breath biomarkers of inflammatory bowel disease,
IBD: A detailed study of the ion chemistry |
|
|||
|
241 |
Selected Ion
Flow-Drift Tube Mass Spectrometry: Quantification of Volatile Compounds in
Air and Breath |
|
|||
|
240 |
Mass Spectrometric
Analysis of Exhaled Breath for the Identification of Volatile Organic
Compound Biomarkers in Esophageal and Gastric
Adenocarcinoma |
|
|||
|
239 |
Exhaled breath
hydrogen cyanide as a marker of early Pseudomonas aeruginosa infection in
children with cystic fibrosis |
|
|||
|
238 |
Increase of methanol
in exhaled breath quantified by SIFT-MS following aspartame ingestion |
|
|||
|
237 |
Product ion
distributions for the reactions of NO+ with some N-containing and O-containing
heterocyclic compounds obtained using SRI-TOF-MS |
|
|||
|
236 |
Determination of
residence times of ions in a resistive glass selected ion flow-drift tube
using the Hadamard transformation |
|
|||
|
235 |
Direct detection and
quantification of malondialdehyde vapour in humid air using selected ion flow
tube mass spectrometry supported by gas chromatography/mass spectrometry |
|
|||
|
234 |
The in vitro
identification and quantification of volatile biomarkers released by cystic
fibrosis pathogens. F. J. Gilchrist, P. Španěl D. Smith and W. Lenney |
|
|||
|
233 |
Release of toxic
ammonia and volatile organic compounds by heated cannabis and their relation
to tetrahydrocannabinol content. David Smith, Roger Bloor, Claire George,
Andriy Pysanenko and Patrik Španěl |
|
|||
|
232 |
SIFT-MS and FA-MS methods
for ambient gas phase analysis: developments and applications in the UK.
David Smith and Patrik Španěl |
|
|||
|
231 |
The SIFT and FALP
techniques; applications to ionic and electronic reactions studies and their
evolution to the SIFT-MS and FA-MS analytical methods. David Smith and Patrik
Španěl |
|
|||
|
230 |
Pitfalls in the
analysis of volatile breath biomarkers: suggested solutions and SIFT–MS
quantification of single metabolites. David Smith and Patrik Španěl |
|
|||
|
229 |
Quantitative analysis
of volatile metabolites released in vitro by bacteria of the genus Stenotrophomonas
for identification of breath biomarkers of respiratory infection in
cystic fibrosis. Violetta Shestivska, Kseniya Dryahina, Jaroslav Nunvář,
Kristýna Sovová, Dana Elhottová, Alexandr Nemec, David Smith and Patrik Španěl |
|
|||
|
228 |
Product ion
distributions for the reactions of NO+ with some physiologically
significant volatile organosulfur and organoselenium
compounds obtained using a selective reagent ionization time-of-flight mass spectrometer Paweł Mochalski,
Karl Unterkofler, Patrik Španěl, David Smith,
Anton Amann |
|
|||
|
227 |
Quantification by
SIFT-MS of volatile compounds emitted by Aspergillus fumigatus
cultures and in co-culture with Pseudomonas aeruginosa,
Staphylococcus aureus and Streptococcus pneumoniae |
|
|||
|
226 |
Counting cell number
in situ by quantification of dimethyl sulphide in culture headspace |
|
|||
|
225 |
Reactions of the
SIFT-MS reagent ions H3O+ and NO+ with a
series of volatile aldehydes of biogenic significance |
|
|||
|
224 |
Exhaled breath
concentrations of acetic acid vapour in gastro-esophageal
reflux disease Kseniya Dryahina, Veronika Pospíšilová,
Kristýna Sovová, Violetta
Shestivska, Jiří Kubišta, Anatolii Spesysyi, František Pehal, Jarmila Turzíková, Jiří Votruba
and Patrik Španěl |
|
|||
|
223 |
A selected ion flow
tube study of the ion molecule association reactions of protonated (MH+) , nitrosonated (MNO+)
and dehydroxidated (M-OH)+ carboxylic
acids (M) with H2O Regina Brůhová Michalčíková
and Patrik Španěl |
|
|||
|
222 |
Product ion
distributions for the reactions of NO+ with some physiologically
significant aldehydes obtained using a SRI-TOF-MS
instrument Paweł Mochalski,
Karl Unterkofler, Patrik Španěl, David Smith,
Anton Amann |
|
|||
|
221 |
Breath analysis of
ammonia, volatile organic compounds and deuterated water vapour in chronic
kidney disease and during dialysis |
|
|||
|
220 |
Mass spectrometry for
real-time quantitative breath analysis |
|
|||
|
219 |
Quantification by
SIFT-MS of volatile compounds emitted by in vitro cultures of S.
aureus, S. pneumoniae and H. influenzae isolated from
patients with respiratory diseases |
|
|||
|
218 |
Quantification of octanol–water
partition coefficients of several aldehydes in a bubble column using selected
ion flow tube mass spectrometry |
|
|||
|
217 |
Effects of dietary
nutrients on volatile breath metabolites |
|
|||
|
216 |
Is Hydrogen Cyanide a
Marker of Burkholderia cepacia Complex? |
|
|||
|
215 |
Hydrogen cyanide, a
volatile biomarker of Pseudomonas aeruginosa infection |
|
|||
|
214 |
On the features,
successes and challenges of selected ion flow tube mass spectrometry |
|
|||
|
213 |
Real Time Detection
of Aroma Compounds in Meat and Meat Products by SIFT-MS and Comparison to
Conventional Techniques (SPME-GC-MS) |
|
|||
|
212 |
Breath Analysis and the
Measurement of Total Body Water Using Isotope Dilution – Applications in the
Dialysis Clinic |
|
|||
|
211 |
SIFT Applications in
Mass Spectrometry |
|
|||
|
210 |
SIFT-MS Analysis of
Nose-Exhaled Breath; Mouth Contamination and the Influence of Exercise |
|
|||
|
209 |
Minimising the
Effects of Isobaric Product Ions in SIFT-MS Quantification of Acetaldehyde,
Dimethyl Sulphide and Carbon Dioxide |
|
|||
|
208 |
Advances in On-line
Absolute Trace Gas Analysis by SIFT-MS Current Analytical
Chemistry, 2013, 9, 525-539 10.2174/15734110113099990017
|
|
|||
|
207 |
Recent SIFT-MS
Studies of Volatile Compounds in Physiology, Medicine and Cell Biology |
|
|||
|
206 |
Quantification of
pentane in exhaled breath, a potential biomarker of bowel disease, using
selected ion flow tube mass spectrometry |
|
|||
|
205 |
Real time monitoring
of population dynamics in concurrent bacterial growth using SIFT-MS
quantification of volatile metabolites |
|
|||
|
204 |
Selected Ion Flow
Tube Mass Spectrometry Analysis of Exhaled Breath for Volatile Organic
Compound Profiling of Esophago-Gastric Cancer |
|
|||
|
203 |
Hydrogen cyanide
concentrations in the breath of adult cystic fibrosis patients with and without Pseudomonas
aeruginosa infection |
|
|||
|
202 |
Selected Ion Flow
Tube Mass Spectrometry Analysis of Volatile Metabolites in Urine Headspace
for the Profiling of Gastro-Esophageal Cancer |
|
|||
|
201 |
A quantitative study
of the influence of inhaled compounds on their concentrations in exhaled
breath |
|
|||
|
200 |
Quantification by
SIFT-MS of acetaldehyde released by lung cells in a 3D model |
|
|||
|
199 |
Selected Ion Flow
Tube-MS Analysis of Headspace Vapor from Gastric Content for
the Diagnosis of Gastro-Esophageal Cancer |
|
|||
|
198 |
Quantification of
hydrogen cyanide and 2-aminoacetophenone in the headspace of Pseudomonas
aeruginosa cultured under biofilm and planktonic conditions |
|
|||
|
197 |
Variability in the
concentrations of volatile metabolites emitted by genotypically different
strains of Pseudomonas aeruginosa |
|
|||
|
196 |
Analysis of volatile
compounds in the breath of patients with inflammatory bowel diseases [Analýza těkavých plynů ve vydechovaném vzduchu u nemocných s idiopatickými střevními záněty] |
|
|||
|
195 |
Injection of
deuterated water into the pulmonary/alveolar circulation; measurement of HDO
in exhaled breath and implications to breath analysis Boon K Tan, Simon J
Davies, Patrik Španěl and David Smith |
|
|||
|
194 |
An investigation of suitable
bag materials for the collection and storage of breath samples containing
hydrogen cyanide |
|
|||
|
193 |
Rapid detection of
lipid oxidation in beef muscle packed under modified atmosphere by measuring
volatile organic compounds using SIFT-MS |
|
|||
|
192 |
A selected ion flow
tube study of the reactions of H3O+, NO+ and
O2+• with seven isomers of hexanol in support of
SIFT-MS |
|
|||
|
191 |
The Potential for use
of Breath Analysis in Monitoring Diabetes Mellitus |
|
|||
|
190 |
Real-Time Quantification
of Traces of Biogenic Volatile Selenium Compounds in Humid Air by Selected
Ion Flow Tube Mass Spectrometry |
|
|||
|
189 |
Combining Fourier
transform nuclear quadrupole resonance (FT-NQR) spectroscopy and mass
spectrometry (MS) to study the electronic structure of titanocene
dichlorides |
|
|||
|
188 |
Variation in hydrogen
cyanide production between different strains of Pseudomonas aeruginosa |
|
|||
|
187 |
Comment on
‘Influences of mixed expiratory sampling parameters on exhaled volatile
organic compound concentrations’ |
|
|||
|
186 |
Quantification of
methyl thiocyanate in the headspace of Pseudomonas aeruginosa cultures and in
the breath of cystic fibrosis patients by selected ion flow tube mass
spectrometry |
|
|||
|
185 |
Volatile compounds in
health and disease |
|
|||
|
184 |
Time-resolved
selected ion flow tube mass spectrometric quantification of the volatile
compounds generated by E. coli JM109 cultured in two different media |
|
|||
|
183 |
Breath acetone
concentration; biological variability and the influence of
diet |
|
|||
|
182 |
On-line, real time
monitoring of exhaled trace gases by SIFT-MS in the perioperative setting: a
feasibility study |
|
|||
|
181 |
Direct, rapid
quantitative analyses of BVOCs using SIFT-MS and PTRMS obviating sample
collection |
|
|||
|
180 |
Can volatile compounds
in exhaled breath be used to monitor control in diabetes mellitus? |
|
|||
|
179 |
Selected ion flow
tube, SIFT, studies of the reactions of H3O+, NO+
and O2+ with some biologically active isobaric
compounds in preparation for SIFT-MS analyses |
|
|||
|
178 |
Spektroskopie tabákového
kouře |
|
|||
|
177 |
Ambient analysis of
trace compounds in gaseous media by SIFT-MS |
|
|||
|
176 |
SPME-GC-MS versus Selected
Ion Flow Tube Mass Spectrometry (SIFT-MS) Analyses for the Study of Volatile
Compound Generation and Oxidation Status during Dry Fermented Sausage
Processing |
|
|||
|
175 |
HNC/HCN Ratio in
Acetonitrile, Formamide, and BrCN Discharge |
|
|||
|
174 |
Laser Ablation of
FOX-7: Proposed Mechanism of Decomposition |
|
|||
|
173 |
Determination of the
Deuterium Abundances in Water from 156 to 10,000 ppm by SIFT-MS J. Am. Soc. Mass Spectrom. 22 (2011) 179-186 doi:10.1007/s13361-010-0019-2
|
|
|||
|
172 |
Progress in SIFT-MS:
breath analysis and other applications Mass Spectrometry
Reviews 30 (2011) 236-267 doi:10.1002/mas.20303 |
|
|||
|
171 |
Selected ion flow
tube (SIFT) studies of the reactions of H3O+, NO+
and O2+• with six volatile phytogenic esters |
|
|||
|
170 |
Selected ion flow
tube mass spectrometry, SIFT-MS; new horizons in real time air and breath
analysis |
|
|||
|
169 |
Plasma Volume,
Albumin, and Fluid Status in Peritoneal Dialysis Patients |
|
|||
|
168 |
Selected Ion Flow
Tube-Mass Spectrometry for Absolute Quantification of Aroma Compounds in the
Headspace of Dry Fermented Sausages Patrik
Španěl |
|
|||
|
167 |
A study of the composition
of the products of laser-induced breakdown of hexogen, octogen, pentrite and trinitrotoluene using selected ion flow tube
mass spectrometry and UV-Vis spectrometry |
|
|||
|
166 |
Advantages of breath
testing for the early diagnosis of lung cancer |
|
|||
|
165 |
Quantification of
methane in humid air and exhaled breath using selected ion flow tube mass
spectrometry |
|
|||
|
164 |
Dynamics of Formation
of Products D2CN+, DCN+, and CD3+
in the Reaction of N+ with CD4: A Crossed-Beam and
Theoretical Study† |
|
|||
|
163 |
Dispersal kinetics of
deuterated water in the lungs and airways following mouth inhalation: real-time
breath analysis by flowing afterglow mass spectrometry (FA-MS) |
|
|||
|
162 |
Kinetics of ethanol
decay in mouth- and nose-exhaled breath measured on-line by selected ion flow
tube mass spectrometry following varying doses of alcohol |
|
|||
|
161 |
Isoprene levels in
the exhaled breath of 200 healthy pupils within the age range 7–18 years
studied using SIFT-MS |
|
|||
|
160 |
Combining
Near-Subject Absolute and Relative Measures of Longitudinal Hydration in Hemodialysis |
|
|||
|
159 |
Quantification of
acetaldehyde and carbon dioxide in the headspace of malignant and non-malignant
lung cells in vitro by SIFT-MS |
|
|||
|
158 |
Quantification of
methylamine in the headspace of ethanol of agricultural origin by selected
ion flow tube mass spectrometry |
|
|||
|
157 |
Analysis of the
isobaric compounds propanol, acetic acid and methyl formate in humid air and breath by selected ion flow tube
mass spectrometry, SIFT-MS |
|
|||
|
156 |
Concentrations of some
metabolites in the breath of healthy children aged 7–18 years measured using
selected ion flow tube mass spectrometry (SIFT-MS) |
|
|||
|
155 |
The quantification of
carbon dioxide in humid air and exhaled breath by selected ion flow tube mass
spectrometry |
|
|||
|
154 |
Acetone, butanone, pentanone,
hexanone and heptanone in the headspace of aqueous solution and urine studied
by selected ion flow tube mass spectrometry |
|
|||
|
153 |
Ionic diffusion and
mass discrimination effects in the new generation of short flow tube SIFT-MS
instruments |
|
|||
|
152 |
Influence of weakly bound
adduct ions on breath trace gas analysis by selected ion flow tube mass
spectrometry (SIFT-MS) |
|
|||
|
151 |
SIFT-MS Analysis of
Molecular Gas Mixtures Exposed to High-Power Laser Plasmas: Laboratory
Simulation of High-Energy-Density Events in Early Earth’s Atmospheres |
|
|||
|
150 |
Spectroscopic
Investigations of High-Power Laser Sparks in Gas Mixtures Containing Methane: A Laboratory
Model of Energetic Events in Strongly Reduced Planetary Atmospheres |
|
|||
|
149 |
A study of thermal
decomposition and combustion products of disposable polyethylene terephthalate
(PET) plastic using high resolution Fourier transform infrared spectroscopy,
selected ion flow tube mass spectrometry and gas chromatography mass
spectrometry |
|
|||
|
148 |
A study of sulfur-containing compounds in mouth- and nose-exhaled
breath and in the oral cavity using selected ion flow tube mass spectrometry |
|
|||
|
147 |
Ammonia release from
heated ‘street’ cannabis leaf and its potential toxic effects on cannabis
users |
|
|||
|
146 |
Selected ion flow
tube mass spectrometry of exhaled breath condensate headspace |
|
|||
|
145 |
Quantification of
trace levels of the potential cancer biomarkers formaldehyde, acetaldehyde
and propanol in breath by SIFT-MS Patrik Španěl
and David Smith |
|
|||
|
144 |
Analysis of breath, exhaled
via the mouth and nose, and the air in the oral cavity |
|
|||
|
143 |
Selected ion flow
tube mass spectrometry of 3-hydroxybutyric acid, acetone and other ketones in
the headspace of aqueous solution and urine |
|
|||
|
142 |
A non-invasive,
on-line deuterium dilution technique for the measurement of total body water
in haemodialysis patients |
|
|||
|
141 |
Experimental and
theoretical investigation of electron attachment to SF5Cl |
|
|||
|
140 |
Compounds enhanced in
a mass spectrometric profile of smokers’ exhaled breath versus non-smokers as
determined in a pilot study using PTR-MS |
|
|||
|
139 |
A selected ion flow tube
mass spectrometry study of ammonia in mouth- and nose-exhaled breath and in
the oral cavity |
|
|||
|
138 |
An exploratory
comparative study of volatile compounds in exhaled breath and emitted by skin
using selected ion flow tube mass spectrometry |
|
|||
|
137 |
Selected ion flow
tube mass spectrometry for on-line trace gas analysis in biology and medicine |
|
|||
|
136 |
The concentration distributions
of some metabolites in the exhaled breath of young adults |
|
|||
|
135 |
Volatile metabolites
in the exhaled breath of healthy volunteers: their levels and distributions |
|
|||
|
134 |
Acetone, ammonia and
hydrogen cyanide in exhaled breath of several volunteers aged 4–83 years |
|
|||
|
133 |
Microwave plasma ion
sources for selected ion flow tube mass spectrometry: Optimizing their
performance and detection limits for trace gas analysis |
|
|||
|
132 |
The challenge of
breath analysis for clinical diagnosis and therapeutic monitoring |
|
|||
|
131 |
Breath Analysis: The
approach towards clinical applications |
|
|||
|
130 |
Quantification of
breath carbon disulphide and acetone following a single dose of disulfiram
(Antabuse) using selected ion flow tube mass spectrometry (SIFT-MS) |
|
|||
|
129 |
Increase of acetone emitted
by urine in relation to ovulation |
|
|||
|
128 |
The increase of
breath ammonia induced by niacin ingestion quantified
by selected ion flow tube mass spectrometry |
|
|||
|
127 |
A longitudinal study
methanol in the exhaled breath of 30 subjects using selected ion flow tube
mass spectrometry, SIFT-MS |
|
|||
|
126 |
A longitudinal study
of ammonia, acetone and propanol in the exhaled breath of 30 subjects using
selected ion flow tube mass spectrometry, SIFT-MS |
|
|||
|
125 |
A general method for
the calculation of absolute trace gas concentrations in air and breath from
selected ion flow tube mass spectrometry data |
|
|||
|
124 |
Combined use of gas
chromatography and selected ion flow tube mass spectrometry for absolute
trace gas quantification |
|
|||
|
123 |
Generation of volatile
compounds on mouth exposure to urea and sucrose: implications for exhaled
breath analysis Physiological
Measurement 27 (2006) N7-N17 |
|
|||
|
122 |
A longitudinal study
of ethanol and acetaldehyde in the exhaled breath of healthy volunteers using
selected-ion flow-tube mass spectrometry |
|
|||
|
121 |
A longitudinal study of
breath isoprene in healthy volunteers using selected ion flow tube mass
spectrometry (SIFT-MS) |
|
|||
|
120 |
Coordinated FA-MS and
SIFT-MS analyses of breath following ingestion of D2O and ethanol; total body
water, dispersal kinetics and ethanol metabolism. |
|
|||
|
119 |
Bronchoalveolar
lavage examined by solid phase microextraction, gas chromatography–mass
spectrometry and selected ion flow tube mass spectrometry. Journal of
Microbiological Methods 65 (2006) 76– 86. |
|
|||
|
118 |
Influence of
convection on the diffusive transport and sieving of water and small solutes
across the peritoneal membrane. Journal of the
American Society Of Nephrology, 16 (2005): 437-443. |
|
|||
|
117 |
Detection of volatile
compounds emitted by Pseudomonas aeruginosa using selected ion flow tube mass
spectrometry Pediatric Pulmonology, 39
(2005) 452-456. |
|
|||
|
116 |
A convenient method
for calculation of ionic diffusion coefficients for accurate selected ion
flow tube mass spectrometry, SIFT-MS. International Journal
of Mass Spectrometry 244 (2005) 148–154. |
|
|||
|
115 |
The combined use of
SIFT-MS and FA-MS to investigate first-pass metabolism of ethanol. in A. Amann, D. Smith
(Eds.), Breath Analysis for Clinical Diagnosis and Therapeutic Monitoring,
World Scientific, Singapore, 2005. pp. 479-490. |
|
|||
|
114 |
Flowing afterglow
mass spectrometry (FA-MS) for the determination of the deuterium abundance in
breath water vapour and aqueous liquid headspace. in A. Amann, D. Smith
(Eds.), Breath Analysis for Clinical Diagnosis and Therapeutic Monitoring,
World Scientific, Singapore, 2005. pp. 439-455. |
|
|||
|
113 |
Applications of selected
ion flow tube mass spectrometry, SIFT-MS, in addiction research. |
|
|||
|
112 |
Detection of H.
Pylori infection by breath ammonia following urea ingestion. |
|
|||
|
111 |
Analysis of breath
using SIFT-MS: a comparison of the breath composition of healthy volunteers
and seriously-ill ICU patients. |
|
|||
|
110 |
Selected ion flow
tube mass spectrometry, SIFT-MS, for on-line trace gas analysis of breath. |
|
|||
|
109 |
Selected ion flow
tube mass spectrometry (SIFT-MS) for on-line trace gas analysis. |
|
|||
|
108 |
Longitudinal
measurements of total body water and body composition in healthy volunteers by
online breath deuterium measurement and other near-subject methods. |
|
|||
|
107 |
A selected ion flow
tube study of the reactions of H3O+, NO+ and O2+•with some phenols, phenyl
alcohols and cyclic carbonyl compounds in support of SIFT-MS and PTR-MS. International Journal
of Mass Spectrometry 239 (2004) 139-146. |
|
|||
|
106 |
On-line analysis of
diesel engine exhaust gases by selected ion flow tube mass spectrometry. |
|
|||
|
105 |
Theoretical Study of
Diffusion of Ions Important for Breath Analysis by the SIFT-MS Method. |
|
|||
|
104 |
A selected ion flow
tube, SIFT, study of the ion chemistry of H3O+, NO+ and O2+• ions |
|
|||
|
103 |
Quantification of
hydrogen cyanide in humid air by selected ion flow tube mass |
|
|||
|
102 |
A selected ion flow
tube, SIFT, study of the reactions of H3O+, NO+ and O2+ ions with |
|
|||
|
101 |
A directly coupled
monolithic rectangular resonator forming a robust microwave plasma ion |
|
|||
|
100 |
Selected ion flow
tube, SIFT, studies of the reactions of H3O+, NO+ and O2+ with |
|
|||
|
99 |
Selected ion flow
tube mass spectrometry (SIFT-MS) and flowing afterglow mass |
|
|||
|
98 |
Analysis of Petrol and
Diesel Vapor using selective ion flow tube/mass spectrometry |
|
|||
|
97 |
Analysis of ketones
by selected ion flow tube mass spectrometry |
|
|||
|
96 |
A SIFT study of the
reactions of H2ONO+ ions with several types of organic molecules |
|
|||
|
95 |
Selected ion flow
tube, SIFT, studies of the reactions of H3O+,NO+ and
O2+ with eleven |
|
|||
|
94 |
Measuring transport
of water across the peritoneal membraane |
|
|||
|
93 |
A SIFT study of the reactions
of H3O+, NO+ and O2+ with hydrogen peroxide and |
|
|||
|
92 |
Quantification of
acetonitrile in exhaled breath and urinary headspace using selected ion |
|
|||
|
91 |
The influence of
electron–electron collisions on electron thermalization in He and Ar |
|
|||
|
90 |
Quantification of
acetaldehyde released by lung cancer cells in vitro using selected ion flow |
|
|||
|
89 |
Time variation of ammonia,
acetone, isoprene and ethanol in breath: a quantitative SIFT- |
|
|||
|
88 |
Increase of acetone
and ammonia in urine headspace and breath during ovulation |
|
|||
|
87 |
Comparative
measurements of total body water in healthy volunteers by online breath |
|
|||
|
86 |
Quantification of
volatile compounds in the headspace of aqueous liquids using selected |
|
|||
|
85 |
Selected ion flow
tube studies of the reactions of H3O+, NO+ and O2+ with the |
|
|||
|
84 |
A selected ion flow tube,
SIFT, study of the reactions of H3O+, NO+ and O2+ ions with a |
|
|||
|
83 |
Analysis of petrol and
diesel vapour and vehicle engine exhaust gases using selected ion |
|
|||
|
82 |
A selected ion flow
tube (SIFT), study of the reactions of H3O+,NO+ and
O2+ ions with a |
|
|||
|
81 |
On-line,
simultaneous quantification of ethanol, some metabolites and water vapour in |
|
|||
|
80 |
Ion Formation
in Microwave Discharge through Moist Air |
|
|||
|
79 |
Monte Carlo simulations
of the influence of ion-neutral collisions on the ion currents |
|
|||
|
78 |
A selected ion flow
tube study of the reactions of H3O+, NO+ and O2+ with saturated and |
|
|||
|
77 |
Kinetics and isotope
patterns of ethanol and acetaldehyde emissions from yeast |
|
|||
|
76 |
Rapid measurement of
deuterium content of breath following oral ingestion to determine |
|
|||
|
75 |
Concurrent use of
H3O+, NO+ and O2+ precursor ions for the detection and quantification |
|
|||
|
74 |
Quantitative selected
ion flow tube mass spectrometry: the influence of ionic diffusion and |
|
|||
|
73 |
Accuracy and
precision of flowing afterglow mass spectrometry for the determination of the
|
|
|||
|
72 |
Assessment of Rumen
Processes Using Selected-Ion-Flow-Tube Mass Spectrometric |
|
|||
|
71 |
On-line measurement
of the absolute humidity of air, breath and liquid headspace samples |
|
|||
|
70 |
A new ‘online’ method
to measure increased exhaled isoprene in end-stage renal failure |
|
|||
|
69 |
Product ion
distributions and rate coefficients for the attachment reactions of electrons
with |
|
|||
|
68 |
On-line determination
of the deuterium abundance in breath water vapour by flowing |
|
|||
|
67 |
Influence of water
vapour on SIFT-MS analyses of trace gases in humid air and breath |
|
|||
|
66 |
Selected ion flow
tube mass spectrometry analyses of stable isotopes in water: Isotopic |
|
|||
|
65 |
Quantification of
hydrogen sulphide in humid air by selected ion flow tube mass |
|
|||
|
64 |
Analysis of volatile
emissions from porcine faeces and urine using selected ion flow tube |
|
|||
|
63 |
An investigation of
the reactions of H3O+ and O2+ with NO, NO2, N2O and HNO2 in |
|
|||
|
62 |
Competitive
association and charge transfer in the reactions of NO+ with some ketones: a |
|
|||
|
61 |
Trace gases on the breath
of healthy volunteers when fasting and following a protein calorie |
|
|||
|
60 |
Quantification of breath
isoprene using the selected ion flow tube mass spectrometric |
|
|||
|
59 |
Book chapter: SIFT
applications in mass spectrometry |
|
|||
|
58 |
SIFT studies of the
reactions of H3O+, NO+ and O2+ with several aromatic and aliphatic |
|
|||
|
57 |
Analysis of
formaldehyde in the headspace of urine from bladder and prostate cancer |
|
|||
|
56 |
Selected Ion Flow
Tube Mass Spectrometry of Urine Headspace |
|
|||
|
55 |
Selected Ion Flow
Tube studies of the reactions of H3O+, NO+ and O2+ with eleven amine |
|
|||
|
54 |
Selected ion flow
tube - mass spectrometry: detection and real-time monitoring of flavours |
|
|||
|
53 |
Selected ion flow
tube studies of the reactions H3O+, NO+ and O2+ with some |
|
|||
|
52 |
The Selected Ion Flow
Tube Method for Workplace Analyses of Trace Gases in Air and |
|
|||
|
51 |
SIFT studies of the reactions
of H3O+, NO+ and O2+ with several aromatic and aliphatic |
|
|||
|
50 |
The influences of gas
and electron temperatures on electron attachment in gas electrical |
|
|||
|
49 |
SIFT studies of the
reactions of H3O+, NO+ and O2+ with several amines and other |
|
|||
|
48 |
SIFT studies of the
reactions of H3O+, NO+ and O2+ with some organosulphur
molecules |
|
|||
|
47 |
Quantification of
Ammonia in Human Breath by the Selected Ion Flow Tube Analytical |
|
|||
|
46 |
SIFT studies of the
reactions of H3O+, NO+ and O2+ with several ethers |
|
|||
|
45 |
SIFT studies of the
reactions of H3O+, NO+ and O2+ with a series of volatile carboxylic |
|
|||
|
44 |
A coordinated flowing
afterglow and crossed beam study of electron attachment to CCl3Br |
|
|||
|
43 |
SIFT studies of the
reactions of H3O+, NO+ and O2+ with a series of alcohols |
|
|||
|
42 |
SIFT studies of the
reactions of H3O+, NO+ and O2+ with a series of aldehydes and |
|
|||
|
41 |
Quantitative analysis
of ammonia on the breath of patients in end-stage renal failure |
|
|||
|
40 |
Validation of the SIFT
technique for trace gas analysis of breath using the syringe injection |
|
|||
|
39 |
Gas phase reactions
of some positive ions with atomic and molecular hydrogen at 300K |
|
|||
|
38 |
Quantitative analysis
of metabolites on the breath of patients with renal failure |
|
|||
|
37 |
Electron Attachment
to C60 and C70 in the Gas Phase |
|
|||
|
36 |
Radiation from the
Reactions of NO+ with Cl- and I- |
|
|||
|
35 |
Selected Ion Flow
Tube: a Technique for Quantitative Trace Gas
Analysis of Air and Breath |
|
|||
|
34 |
The selected ion flow
tube (SIFT) - a novel technique for biological monitoring, |
|
|||
|
33 |
The novel SIFT
approach to trace gas analysis of air and breath |
|
|||
|
32 |
Application of ion
chemistry and the SIFT technique |
|
|||
|
31 |
A selected ion flow
tube study of the reactions of NO+ and O2+ ions with some organic |
|
|||
|
30 |
Ions in the Terrestrial
Atmosphere and in Interstellar Clouds |
|
|||
|
29 |
An on-line Langmuir
probe technique for the study of afterglow plasmas |
|
|||
|
28 |
Reactions of hydrated
hydronium ions and hydrated hydroxide ions with some |
|
|||
|
27 |
The Influence of
Ion-Neutral Collisions in the Plasma Sheath on the Ion Current to an |
|
|||
|
26 |
Reactions of H3O+ and
OH- ions with organic molecules applications to trace gas analysis |
|
|||
|
25 |
The varying
influences of gas and electron temperatures on the rates of electron |
|
|||
|
24 |
Formation of SF5- in
electron attachment to SF6 swarm and beam results reconciled |
|
|||
|
23 |
Book chapter: Swarm
techniques |
|
|||
|
22 |
Recent studies of
electron attachment and electron-ion recombination at thermal |
|
|||
|
21 |
The influence of
collisions in the space charge sheath on the ion current collected by a |
|
|||
|
20 |
The reactions of some
interstellar ions with benzene, cyclopropane and cyclohexane |
|
|||
|
19 |
Formation and decay
of C60- following free electron capture by C60 |
|
|||
|
18 |
A Study of electron
attachment to C70 using the FALP technique |
|
|||
|
17 |
Book chapter: FALP
studies of electron-ion recombination and electron attachment |
|
|||
|
16 |
electron temperature
relaxation in afterglow plasmas: diffusion cooling |
|
|||
|
15 |
The role of H+ and
H3+ ions in the degradation of interstellar molecules |
|
|||
|
14 |
Book chapter: Studies
of electron attachment at thermal energies using the FALP |
|
|||
|
13 |
electron attachment
to C60 at low energies |
|
|||
|
12 |
Dissociative
recombination of H3+: experiment and theory reconciled |
|
|||
|
11 |
FALP studies of electron
attachment at elevated electron temperatures: The influence of |
|
|||
|
10 |
FALP studies of the
dissociative recombination coefficients for O2+ and NO+
within the |
|
|||
|
9 |
Dissociative
recombination of H3+ and some other interstellar ions:
a controversy |
|
|||
|
8 |
SIFT studies of the
reactions of rare gas atomic ions with Cl2 and Br2. |
|
|||
|
7 |
A further
investigation of the reaction of C2H2+ with
H2 |
|
|||
|
6 |
SIFDT studies of
reactions of C+, CH+ and CH2+
with HCl and CO2 and CH3+ with HCl |
|
|||
|
5 |
The reactions of
positive and negative halogen ions with Cl2 and Br2 |
|
|||
|
4 |
Energy dependences of
fast reactions of positive ions X+ with HCl from near thermal to 2 |
|
|||
|
3 |
Studies of
interstellar ion reactions using the SIFT technique: isotope fractionation |
|
|||
|
2 |
Some reactions of the
highly polar ion ArH3+ |
|
|||
|
1 |
A SIFT study of the
reactions of O+, H+ and HeH+
with Several Molecular Gases at 300 K |
|
|||
|
|
|
|
|||