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(1) Adams M. J.: Chemometrics in analytical
spectroscopy; The Royal Society of Chemistry: Cambridge (UK) (1995).
(2) Allmaier G.: Chemie (Wien), 10-13
(Dezember) (1994). Die Wiederentdeckung einer alten Technik. Die Renaissance
der Flugzeitmassenspektrometrie als Spurenbereichsmethode für die Bio- und
Umweltanalytik.
(3) Amici S., Piccioni G., Coradini A., Solazzo
S.: Planet. Space Sci., 48, 401-410 (2000). VIRTIS-M laboratory
spectral measurements of analogues cometary samples.
(4) Ashcroft A. E.: Ionization methods in
organic mass spectrometry; The Royal Society of Chemistry: Cambridge
(1997).
(5) Basiuk V. A., Douda J.: Planet. Space
Sci., 47, 577-584 (1999). Pyrolysis of simple amino acids and
nucleobases: survivability limits and implications for extraterrestrial
delivery.
(6) Beebe K. R., Pell R. J., Seasholtz M. B.: Chemometrics:
A practical guide; John Wiley & Sons: New York (1998).
(7) Benkhoff J.: Planet. Space Sci., 47,
735-744 (1999). Energy balance and the gas flux from the surface of comet
46P/Wirtanen.
(8) Benninghoven A.: Angew. Chem. Int. Ed.
Engl., 33, 1023-1043 (1994). Chemical analysis of inorganic and
organic surfaces and thin films by static time-of-flight secondary ion mass
spectrometry (TOF-SIMS).
(9) Benninghoven A., Sichtermann W. K.: Anal.
Chem., 50, 1180-1184 (1978). Detection, identification and
structural investigation of biologically important compounds by secondary ion
mass spectrometry.
(10) Bertaux J. L., Costa J., Mäkinen T.,
Quemerais E., Lallement R., Kyrölä E., Schmidt W.: Planet. Space Sci., 47,
725-733 (1999). Lyman-alpha observations of comet 46P/Wirtanen with SWAN on
SOHO: H2O production rate near 1997 perihelion.
(11) Blanco A., Fonti S., Orofino V.: Planet.
Space Sci., 47, 781-785 (1999). The 4.6 micron feature of -SiH
groups in silicate dust grains and infrared cometary spectra.
(12) Blanksby S. J., Dua S., Bowie J. H.: Rapid
Commun. Mass Spectrom., 13, 2249-2251 (1999). Interstellar
molecules. Conversion of C3O-. to C3O in the gas phase.
(13) Bourcier S., Hoppilliard Y., Kargar T.: Rapid.
Comm. Mass Spectrom., 11, 1046-1056 (1997). Analysis of aromatic
pesticides by mass spectrometry. Advantage of plasma desorption over electron
impact and NH3 or CH4 positive chemical ionization: The
competitive formation of M+. and MH+ ions.
(14) Brack A.: Planet. Space Sci., 48,
1023-1026 (2000). The exobiology exploration of Mars: a survey of the
European approaches.
(15) Broadhurst D., Goodacre R., Jones A., Rowland
J. J., Kell D. B.: Anal. Chim. Acta, 348, 71-86 (1997). Genetic
algorithms as a method for variable selection in multiple linear regression and
partial least squares regression, with applications to pyrolysis mass
spectromerty.
(16) Brucato J. R., Colangeli L., Mennella V.,
Palumbo P., Bussoletti E.: Planet. Space Sci., 47, 773-779
(1999). Silicates in Hale-Bopp: Hints from laboratory studies.
(17) Brunelle A., Della-Negra S., Depauw J., Joret
H., Le Beyec Y.: Rapid Commun. Mass Spectrom., 5, 40-43 (1991). Time-of-flight
mass spectrometry with a compact two-stage electrostatic mirror: Metastable-ion
studies with high mass resolution and ion emission from thick insulators.
(18) Carroll J. A., Beavis R. C.: Rapid. Comm.
Mass Spectrom., 10, 1683-1687 (1996). Using matrix convolution
filters to extract information from time-of-flight mass spectra.
(19) Chapman J. R.: Practical organic mass
spectrometry. A guide for chemical and biochemical analysis; 2 ed.; John
Wiley & Sons: Chichester (1993).
(20) Coles J., Guilhaus M.: Trends Anal. Chem.,
12, 203-213 (1993). Orthogonal acceleration - a new direction for
time-of-flight mass spectrometry: fast, sensitive mass analysis for continuous
ion sources.
(21) Cotter R. J.: Anal. Chem., 64,
1027A-1039A (1992). Time-of-flight mass spectrometry for the structural
analysis of biological molecules.
(22) Cotter R. J.: Time-of-flight mass
spectrometry. Instrumentation and applications in biological research;
American Chemical Society: Washington, DC (1997).
(23) Cottin H., Gazeau M. C., Raulin F.: Planet.
Space Sci., 47, 1141-1162 (1999). Cometary organic chemistry: A
review from observations, numerical and experimental simulations.
(24) Crifo J. F., Rodionov A. V.: Planet. Space
Sci., 47, 797-826 (1999). Modelling the circumnuclear coma of
comets: Objectives, methods and recent results.
(25) Cuynen E., Van Vaeck L., Van Espen P.: Rapid
Commun. Mass Spectrom., 13, 2287-2301 (1999). Speciation analysis
of oxides with static secondary ion mass spectrometry.
(26) De Laeter J. R.: Mass Spectrom. Rev., 13,
3-22 (1994). Role of isotope mass spectrometry in cosmic abundance studies.
(27) De Sanctis M. C., Capaccioni F., Capria M.
T., Coradini A., Federico C., Orosei R., Salomone M.: Planet. Space Sci.,
47, 855-872 (1999). Models of P/Wirtanen nucleus: Active regions
versus non-active regions.
(28) Delsemme A. H.: Planet. Space Sci., 47,
125-131 (1999). The deuterium enrichment observed in recent comets is consistent
with the cometary origin of seawater.
(29) Demuth W.: Chemometrische Auswertung
massenspektrometrischer Daten zur Erkennung organischer Substanzen im
Kometenstaub (Diplomarbeit), Technische Universität Wien (1998).
(30) Doroshenko V. M., Cotter R. J.: J. Am.
Soc. Mass Spectrom., 10, 992-999 (1999). Ideal velocity focusing
in a reflectron time-of-flight mass spectrometer.
(31) Drablos F.: Anal. Chim. Acta, 256,
145-151 (1992). Transformation of mass spectra.
(32) Drouot C., Enjalbal C., Fulcrand P., Martinez
J., Aubagnac J.-L., Combarieu R., de Puydt Y.: Rapid. Comm. Mass Spectrom.,
10, 1509-1511 (1996). Step-by-step control by time-of-flight
secondary ion mass spectrometry of a peptide synthesis carried out on polymer
beads.
(33) Dua S., Blanksby S. J., Bowie J. H.: Rapid
Commun. Mass Spectrom., 14, 118-121 (1999). Potential
interstellar molecules. Formation of neutral C6CO from C6CO- in the gas phase.
(34) Enjalbal C., Martinez J., Subra G., Combarieu
R., Aubagnac J.-L.: Rapid. Comm. Mass Spectrom., 12, 1715-1720
(1998). Time-of-flight secondary ion mass spectrometry of Fmoc-amino acids
linked to solid supports through ionic interactions.
(35) Enke C. G.: In Advances in mass
spectrometry; Karjalainen E. J., Hesso A. E., Jalonen J. E., Karjalainen U.
P., Eds.; Elsevier: Amsterdam, Vol. 14, p. 197-219 (1998). The unique
capabilities of time-of-flight mass analyzers.
(36) Epifani E., Rotundi A., Foster M. J., Green
S. F., Colangeli L., Fulle M., Mennella V., Palumbo P.: Planet. Space Sci.,
47, 765-772 (1999). VRI imaging of comet 46P/Wirtanen.
(37) Eskinja M., Zöllner P., Linnemayr K., Mak M.,
Schmid E. R.: Rapid. Comm. Mass Spectrom., 11, 931-935 (1997). Characterization
of mercapturic acids by three different mass spectrometric methods.
(38) Fergenson D. P., Liu D. Y., Silva P. J.,
Prather K. A.: Chemom. Intell. Lab. Syst., 37, 197-203 (1997). SpectraSort:
A data analysis program for real-time aerosol analysis by aerosol
time-of-flight mass spectrometry.
(39) Fisher A. A., Hawkes R. L., Murray I. S.,
Campbell M. D., LeBlanc A. G.: Planet. Space Sci., 48, 911-920
(2000). Are meteoroids really dustballs?
(40) Franck S., Block A., von Bloh W., Bounama C.,
Schellnhuber H. J., Svirezhev Y.: Planet. Space Sci., 48,
1099-1105 (2000). Habitable zone for earth-like planets in the solar system.
(41) Fujii T., Arulmozhiraja S.: Int. J. Mass
Spectrom., 198, 15-21 (2000). Application of In+ ions in ion
attachment mass spectrometry.
(42) Fulle M.: Planet. Space Sci., 47,
827-837 (1999). Constraints on comet 46P/Wirtanen dust parameters provided
by in-situ and ground-based observations.
(43) Fürstenau N.: Z. Naturforsch., 33a,
563-570 (1978). A method for the study of correlated events in
time-of-flight mass-spectrometry and its application to fission-fragment
induced desorption.
(44) Fürstenau N., Knippelberg W., Krueger F. R.,
Weiß G., Wien K.: Z. Naturforsch., 32a, 711-719 (1977). Experimental
investigation about the mechanism of fission-fragment induced desorption.
(45) Gardner B. D., Holland J. F.: J. Am. Soc.
Mass Spectrom., 10, 1067-1073 (1999). Nonlinear ion acceleration
for improved space focusing in time-of-flight mass spectrometry.
(46) Geladi P., Kowalski B. R.: Anal. Chim.
Acta, 185, 1-17 (1986). Partial least-squares regression: A
tutorial.
(47) Greenberg J. M.: Astron. Astrophys., 330,
375-380 (1998). Making a comet nucleus.
(48) Greenberg J. M., Li A.: Planet. Space Sci.,
47, 787-795 (1999). All comets are born equal: Infrared emission by dust
as a key to comet nucleus composition.
(49) Gubskaya A. V., Aksyonov S. A., Kalinkevich
A. N., Lisnyak Y. V., Chuev V. P., Chivanov V. D.: Rapid. Comm. Mass
Spectrom., 11, 1874-1878 (1997). 252Cf plasma
desorption mass spectrometric study of the inclusion complexes of cyclodextrins
with coumarins.
(50) Guilhaus M.: J. Am. Soc. Mass Spectrom.,
5, 588-595 (1994). Spontaneous and deflected drift-trajectories
in orthogonal acceleration
time-of-flight mass spectrometry.
(51) Guilhaus M.: J. Mass Spectrom., 30,
1519-1532 (1995). Principles and instrumentation in time-of-flight mass
spectrometry. Physical and instrumental concepts.
(52) Guilhaus M.: In Advances in mass
spectrometry; Cornides I., Horvath G., Vekey K., Eds.; Wiley: Amsterdam,
Vol. 13, p. 213-226 (1995). The return of time-of-flight to analytical mass
spectrometry.
(53) Guilhaus M., Mlynski V., Selby D.: Rapid.
Comm. Mass Spectrom., 11, 951-962 (1997). Perfect timing:
Time-of-flight mass spectrometry.
(54) Hanley L., Kornienko O., Ada E. T., Fuoco E.,
Trevor J. L.: J. Mass Spectrom., 34, 705-723 (1999). Surface
mass spectrometry of molecular species.
(55) Harris R. D., Baker W. S., Van Stipdonk M.
J., Crooks R. M., Schweikert E. A.: Rapid. Comm. Mass Spectrom., 13,
1374-1380 (1999). Secondary ion yields produced by keV atomic and polyatomic
ion impacts on a self-assembled monolayer surface.
(56) Herique A., Kofman W., Hagfors T., Caudal G.,
Ayanides J.-P.: Planet. Space Sci., 47, 885-904 (1999). A characterization
of a comet nucleus interior: Inversion of simulated radio frequency data.
(57) Herrero A., Ortiz M. C.: Anal. Chim. Acta,
378, 245-259 (1999). Qualitative and quantitative aspects of the
application of genetic algorithm-based variable selection in polarography and
stripping voltammetry.
(58) Hibbert D. B.: Chemom. Intell. Lab. Syst.,
19, 277-293 (1993). Genetic algorithms in chemistry.
(59) Hilchenbach M., Küchemann O., Rosenbauer H.: Planet.
Space Sci., 48, 361-369 (2000). Impact on a comet: Rosetta lander
simulations.
(60) Hinz K. P., Greweling M., Drews F., Spengler
B.: J. Am. Soc. Mass Spectrom., 10, 648-660 (1999). Data
processing in on-line laser mass spectrometry of inorganic, organic, or
biological airborne particles.
(61) Hinz K. P., Kaufmann R., Spengler B.: Aerosol.
Sci. Technol., 24, 233-242 (1996). Simultaneous detection of
positive and negative ions from single airborne particles by real-time laser
mass spectrometry.
(62) Horneck G.: Planet. Space Sci., 48,
1053-1063 (2000). The microbial world and the case for Mars.
(63) Hughes D. W.: Planet. Space Sci., 48,
1-7 (2000). On the velocity of large cometary dust particles.
(64) Hutter H., Grasserbauer M.: Chemom.
Intell. Lab. Syst., 24, 99-116 (1994). Chemometrics for surface
analysis.
(65) Ingram J. C., Groenewold G. S., Appelhans A.
D., Delmore J. E., Olson J. E., Miller D. L.: Environ. Sci. Technol., 31,
402-408 (1997). Direct surface analysis of pesticides on soil, leaves,
grass, and stainless steel by static secondary ion mass spectrometry.
(66) Joblin C., Masselon C., Boissel P., de
Parseval P., Martinovic S., Muller J.-F.: Rapid. Comm. Mass Spectrom., 11,
1619-1623 (1997). Simulation of interstellar aromatic hydrocarbons using ion
cyclotron resonance. Preliminary results.
(67) Johnson K. J.: Numerical methods in
chemistry; Marcel Dekker: New York (1980).
(68) Juvet R. S., Allmaier G. M., Schmid E. R.: Anal.
Chim. Acta, 241, 241-248 (1990). Identification of chemical
background interferences in plasma desorption mass spectrometry.
(69) Kaiser R. I., Asvany O., Lee Y. T.: Planet.
Space Sci., 48, 483-492 (2000). Crossed beam investigation of
elementary reactions relevant to the formation of polycyclic aromatic
hydrocarbon (PAH)-like molecules in extraterrestrial environments.
(70) Keil K.: Planet. Space Sci., 48,
887-903 (2000). Thermal alteration of asteroids: evidence from meteorites.
(71) Keller B. A.: Helv. Phys. Acta, 69,
1-2 (Separanda) (1996). Time-of-flight secondary ion mass spectrometry: A
new versatile tool for surface analysis.
(72) Keller B. A., Hug P.: Anal. Chim. Acta,
393, 201-212 (1999). Time-of-flight secondary ion mass spectrometry
of industrial materials.
(73) Kimura T., Hasegawa K., Funatsu K.: J.
Chem. Inf. Comput. Sci., 38, 276-282 (1998). GA strategy for
variable selection in QSAR studies: GA-based region selection for CoMF modeling.
(74) Kissel J., Brownlee D. E., Büchler K., Clark
B. C., Fechtig H., Grün E., Hornung K., Igenbergs E. B., Jessberger E. K., Krueger
F. R., Kuczera H., Mc Donnell J. A. M., Morfill G. M., Rahe J., Schwehm G. H.,
Sekanina Z., Utterback N. G., Völk H. J., Zook H. A.: Nature, 321,
336-337 (1986). Composition of comet Halley dust particles from Giotto
observations.
(75) Kissel J., Krueger F. R.: Nature, 326,
755-760 (1987). The organic component in dust from comet Halley as measured
by the PUMA mass spectrometer on board Vega 1.
(76) Kissel J., Krueger F. R.: Spektrum der
Wissenschaft, 65-71 (2000). Urzeugung aus Kometenstaub?
(77) Kissel J., Sagdeev R. Z., Bertaux J. L.,
Angarov V. N., Audouze J., Blamont J. E., Büchler K., Evlanov E. N., Fechtig
H., Fomenkova M. N., von Hoerner H., Inogamov N. A., Khromov V. N., Knabe W.,
Krueger F. R., Langevin Y., Leonas V. B., Levasseur-Regourd A. C., Managadze G.
G., Podkolzin S. N., Shapiro V. D., Tabaldyev S. R., Zubkov B. V.: Nature,
321, 280-282 (1986). Composition of comet Halley dust particles from
Vega observations.
(78) Klawun C., Wilkins C. L.: J. Chem. Inf.
Comput. Sci., 36, 249-257 (1996). Joint neural network
interpretation of infrared and mass spectra.
(79) Klöppel K. D., Weyer K., Von Bünau G.: Int.
J. Mass Spectrom. Ion Phys., 51, 47-61 (1983). Secondary-ion mass
spectrometry (SIMS) of organic compounds. I. Sample preparation methods.
(80) Kminek G., Bada J. L., Botta O., Glavin D.
P., Grunthaner F.: Planet. Space Sci., 48, 1087-1091 (2000). MOD:
an organic detector for the future robotic exploration of Mars.
(81) Kochan H., Feibig W., Konopka U., Kretschmer
M., Möhlmann D., Seidensticker K. J., Arnold W., Gebhardt W., Licht R.: Planet.
Space Sci., 48, 385-399 (2000). CASSE - The ROSETTA lander comet
acoustic surface sounding experiment - status of some aspects, the technical
realisation and laboratory simulations.
(82) Kohonen T.: Self-organizing maps;
Springer: Berlin (1995).
(83) Kramer R.: Chemometric techniques for
quantitative analysis; Marcel Dekker: New York (1998).
(84) Krueger F. R.: Nucl. Instr. and Meth.,
125, 285-287 (1975). Ein Verfahren zur Auswertung der Messdaten von
Neutronenmultiplizitäten.
(85) Krueger F. R.: Surface Science, 86, 246-256 (1979). Fast
ion induced desorption and collective electronic perturbation at the surface.
(86) Krueger F. R., Kissel J.: Origins of Life
& Evol. of the Biosph., 19, 87-93 (1989). Biogenesis by
cometary grains - thermodynamic aspects of self-organization.
(87) Krueger F. R., Kissel J.: Sterne und
Weltraum, 326-329 (2000). Erste direkte chemische Analyse interstellarer
Staubteilchen.
(88) Krüger H., Grün E., Hamilton D. P., Baguhl
M., Dermott S., Fechtig H., Gustafson B. A., Hanner M. S., Horanyi M., Kissel
J., Lindblad B. A., Linkert D., Linkert G., Mann I., Mc Donnell J. A. M.,
Morfill G. E., Polanskey C., Riemann R., Schwehm G., Srama R., Zook H. A.: Planet.
Space Sci., 47, 85-106 (1999). Three years of Galileo dust data:
II. 1993- 1995.
(89) Laffont C., Rousselot P., Clairemidi J.,
Moreels G.: Planet. Space Sci., 46, 585-601 (1998). Condensations
and diffuse source of C2 in comet Hyakutake C/1996 B2.
(90) Lampen P., Trauthan F., Dummel A., Arnold G.,
Jaumann R.: Anal. Chim. Acta, 420, 229-237 (2000). Spectroscopic
and photometric evaluation of images from the Mars Pathfinder camera.
(91) Landgraf M., Müller M., Grün E.: Planet.
Space Sci., 47, 1029-1050 (1999). Prediction of the in-situ dust
measurements of the stardust mission to comet 81P/Wild 2.
(92) Latkoczy C., Hutter H., Grasserbauer M.,
Wilhartitz P.: Mikrochim. Acta, 119, 1-12 (1995). Classification
of secondary ion mass spectrometry (SIMS) micrographs to characterize chemical
phases.
(93) Lawler M. E., Brownlee D. E.: Nature, 359,
810-812 (1992). CHON as a component of dust from comet Halley.
(94) Leardi R.: J. Chemom., 8, 65-79
(1994). Application of a genetic algorithm to feature selection under full
validation conditions and to outlier detection.
(95) Leardi R.: J. Chemom., in print
(2000). The application of genetic algorith-PLS for feature selection in
spectral data sets.
(96) Leardi R., Gonzales A. L.: Chemom. Intell.
Lab. Syst., 41, 195-207 (1998). Genetic algorithms applied to
feature selection in PLS regression: how and when to use them.
(97) Linnemayr K., Schmid E. R., Allmaier G.: Rapid.
Comm. Mass Spectrom., 11, 427-432 (1997). Characterization of calixarenes
by positive- and negative-ion Californium-252 plasma desorption mass
spectrometry.
(98) Maeder M., Ebel S.: Chemom. Intell. Lab.
Syst., 37, 205-207 (1997). Data evaluation for the
characterization of individual aerosol particles using time-of-flight mass
spectrometry.
(99) Mamyrin B. A.: Int. J. Mass Spectrom. Ion
Processes, 131, 1-19 (1994). Laser assisted reflectron
time-of-flight mass spectrometry.
(100) Mamyrin B. A., Shmikk D. V.: Sov. Phys.
JETP, 49, 762-764 (1979). The linear mass reflectron.
(101) Managadze G. G., Shutyaev I. Y.: In Laser
ionization mass analysis; Vertes A., Gijbels R., Adams F., Eds.; John Wiley
& Sons: New York, Vol. 124, p. 505-549 (1993). Exotic instruments and applications
of laser ionization mass spectrometry in space research.
(102) Mancinelli R. L.: Planet. Space Sci., 48,
1035-1042 (2000). Accessing the Martian deep subsurface to search for life.
(103) Mancinelli R. L., Klovstad M.: Planet.
Space Sci., 48, 1093-1097 (2000). Martian soil and UV radiation:
microbial viability assessment on spacecraft surfaces.
(104) Martens H., Naes T.: Multivariate
calibration; Wiley: Chichester (1989).
(105) Massart D. L., Vandeginste B. G. M., Buydens
L. C. M., De Jong S., Smeyers-Verbeke J.: Handbook of chemometrics and
qualimetrics: Part A; Elsevier: Amsterdam (1997).
(106) Maurette M., Duprat J., Engrand C., Gounelle
M., Kurat G., Matrajt G., Toppani A.: Planet. Space Sci., 48,
1117-1137 (2000). Accretion of neon, organics, CO2, nitrogen and water from
large interplanetary dust particles on the early Earth.
(107) McLafferty F. W., Loh S. Y., Stauffer D. S.:
In Computer-enhanced analytical spectroscopy; Meuzelaar H. L. C., Ed.;
Plenum Press: New York, Vol. 2, p. 163-181 (1990). Computer identification
of mass spectra.
(108) Milani A., Chesley S. R., Valsecchi G. B.: Planet.
Space Sci., 48, 945-954 (2000). Asteroid close encounters with
Earth: risk assessment.
(109) Mileikowsky C., Cucinotta F. A., Wilson J. W.,
Gladman B., Horneck G., Lindegren L., Melosh J., Rickman H., Valtonen M., Zheng
J. Q.: Planet. Space Sci., 48, 1107-1115 (2000). Risks
threatening viable transfer of microbes between bodies in our solar system.
(110) Möhlmann D.: Planet. Space Sci., 47,
971-974 (1999). Activity and nucleus properties of 46P/Wirtanen.
(111) Moskovets E., Vertes A.: Rapid Commun. Mass
Spectrom., 13, 2244-2248 (1999). A novel scheme for the
time-of-flight analysis of extended ion packets.
(112) Mucke H.: Chemie (Wien), 10-12 (März)
(1996). Chemie ohne Grenzen.
(113) Niehuis E.: Entwicklung und Anwendung von
hochauflösenden Flugzeitspektrometern für die statische
Sekundärionen-Massenspektrometrie (Doktorarbeit), Westfälische Wilhelms-
Universität (1988).
(114) Oro J.: Nature, 190, 389-390
(1961). Comets and the formation of biochemical compounds on the primitive
earth.
(115) Orosei R., Capaccioni F., Capria M. T.,
Coradini A., De Sanctis M. C., Federico C., Salomone M., Huot J.-P.: Planet.
Space Sci., 47, 839-853 (1999). Numerically improved
thermochemical evolution models of comet nuclei.
(116) Pailer N., Grün E., Bahr D., Lang D.: Planet.
Space Sci., 31, 11-23 (1983). Laboratory simulation of cometary
dust collection and analysis.
(117) Picciono G., Amici S., Fonti S., Coradini A.,
Capaccioni F., Dami M.: Planet. Space Sci., 48, 411-417 (2000). Efficiency
measurements of the VIRTIS-M grating.
(118) Pilipenko V. V., Sukhodub L. F., Aksyonov S.
A., Kalinkevich A. N., Kintia P. K.: Rapid Commun. Mass Spectrom., 14,
819-823 (2000). 252Cf plasma desorption mass spectrometric study of
interactions of steroid glycosides with amino acids.
(119) Price D.: Trends Anal. Chem., 9,
21-25 (1990). The resurgence in time-of-flight mass spectrometry.
(120) Rossi A., Fulchignoni M.: Planet. Space
Sci., 47, 873-881 (1999). Study of the environment around the
Rosetta candidate target asteroids.
(121) Rotundi A., Rietmeijer F. J. M., Brucato J.
R., Colangeli L., Mennella V., Palumbo P., Bussoletti E.: Planet. Space Sci.,
48, 371-384 (2000). Refractory comet dust analogues by laser
bombardment and arc discharge production: a reference frame for "dusty
experiments" on-board ROSETTA.
(122) Rüdenauer F., Riedler W., Cherepin V. T.: In Advances
in mass spectrometry; Karjalainen E. J., Hesso A. E., Jalonen J. E.,
Karjalainen U. P., Eds.; Elsevier: Amsterdam, Vol. 14, p. 705-711 (1998). MIGMAS
- an analytical ion microprobe for the space station MIR.
(123) Scheeres D. J., Marzari F., Tomasella L.,
Vanzani V.: Planet. Space Sci., 46, 649-671 (1998). ROSETTA
mission: Satellite orbits around a cometary nucleus.
(124) Scheifers S. M., Hollar R. C., Busch K. L.,
Cooks R. G.: Int. Lab., 12-22 (1982). Molecular secondary ion mass
spectrometry.
(125) Scsibrany H., Varmuza K.: In Software
development in chemistry; Jochum C., Ed.; Gesellschaft Deutscher Chemiker:
Frankfurt am Main, Vol. 8, p. 235-249 (1994). ToSiM: PC-Software for the
investigation of topological similarities in molecules.
(126) Sharaf M. A., Illman D. L., Kowalski B. R.: Chemometrics;
John Wiley & Sons: New York (1986).
(127) Stein S. E.: J. Am. Soc. Mass Spectrom.,
6, 644-655 (1995). Chemical substructure identification by mass
spectral library searching.
(128) Suma K., Raju N. P., Vairamani M.: Rapid. Comm.
Mass Spectrom., 11, 1939-1944 (1997). Liquid secondary ion mass
spectral study of fatty acid methyl esters: Silver cationization and collision
induced dissociation studies.
(129) Sundqvist B., Macfarlane R. D.: Mass
Spectrom. Rev., 4, 421-460 (1985). 252Cf-Plasma
desorption mass spectrometry.
(130) Terzieva R., Herbst E.: Int. J. Mass
Spectrom., 201, 135-142 (2000). Radiative electron attachment to
small linear carbon clusters and its significance for the chemistry of diffuse
interstellar clouds.
(131) Toyoda M., Ishihara M., Yamaguchi S. I., Ito
H., Matsuo T., Roll R., Rosenbauer H.: J. Mass Spectrom., 35,
163-167 (2000). Construction of a new multi-turn time-of-flight mass
spectrometer.
(132) Vacher J. R., Le Duc E., Fitaire M.: Planet.
Space Sci., 47, 151-162 (1999). Titan's atmosphere: Possible
clustering reactions of HCNH+, HCNH+ (N2) and
HCNH+ (CH4) ions with acetylene.
(133) Van Deursen M. M., Beens J., Janssen H. G.,
Leclercq P. A., Cramers C. A.: J. Chromatogr. A, 878, 205-213
(2000). Evaluation of time-of-flight mass spectrometric detection for fast
gas chromatography.
(134) Van Stipdonk M. J., Harris R. D., Schweikert
E. A.: Rapid. Comm. Mass Spectrom., 11, 1794-1798 (1997). Time-of-flight-secondary
ion mass spectrometry of NaBF4: A comparison of atomic and
polyatomic primary ions at constant impact energy.
(135) Vandeginste B. G. M., Massart D. L., Buydens
L. C. M., De Jong S., Smeyers-Verbeke J.: Handbook of chemometrics and
qualimetrics: Part B; Elsevier: Amsterdam (1998).
(136) Vanden Eynde X., Oike H., Hamada M., Tezuka
Y., Bertrand P.: Rapid. Comm. Mass Spectrom., 13, 1917-1923
(1999). Evidence of simple intramolecular rearrangement at polymer end
groups in secondary ion mass spectrometry.
(137) Varmuza K.: In The encyclopedia of computational
chemistry; Schleyer P. v. R., Allinger N. L., Clark T., Gasteiger J.,
Kollman P. A., Schaefer I. H. F., Schreiner P. R., Eds.; Wiley & Sons:
Chichester, Vol. 1, p. 346-366 (1998). Chemometrics: Multivariate view on
chemical problems.
(138) Varmuza K.: In Encyclopedia of spectroscopy
and spectrometry; Lindon J. C., Tranter G. E., Holmes J. L., Eds.; Academic
Press: Londonp. 232-243 (2000). Chemical structure information from mass
spectra.
(139) Varmuza K., Scsibrany H.: J. Chem. Inf.
Comput. Sci., 40, 308-313 (2000). Substructure isomorphism matrix.
(140) Varmuza K., Werther W.: J. Chem. Inf.
Comput. Sci., 36, 323-333 (1996). Mass spectral classifiers for
supporting systematic structure elucidation.
(141) Varmuza K., Werther W.: In Advances in mass
spectrometry; Karjalainen E. J., Hesso A. E., Jalonen J. E., Karjalainen U.
P., Eds.; Elsevier: Amsterdam, Vol. 14, p. 611-626 (1998). Systematic
structure elucidation of organic compounds based on mass spectra classification
and isomer generation.
(142) Varmuza K., Werther W., Krueger F. R., Kissel
J., Schmid E. R.: Int. J. Mass Spectrom., 189, 79-92 (1999). Organic
substances in cometary grains: Comparison of secondary ion mass spectral data and
Californium-252 plasma desorption data from reference compounds.
(143) Varmuza K., Werther W., Stancl F., Kerber A.,
Laue R.: In Software development in chemistry; Gasteiger J., Ed.;
Gesellschaft Deutscher Chemiker: Frankfurt am Main, Vol. 10, p. 303-314 (1996).
Computer-assisted structure elucidation of organic compounds, based on mass
spectra classification and exhaustive isomer generation.
(144) Vergne J., Dumas L., Décout J. L., Maurel M.
C.: Planet. Space Sci., 48, 1139-1142 (2000). Possible prebiotic
catalysts formed from adenine and aldehyde.
(145) Viggiano A. A., Hunton D. E.: J. Mass
Spectrom., 34, 1107-1129 (1999). Airborne mass spectrometers:
Four decades of atmospheric and space research at the Air Force Research
Laboratory.
(146) Wegmann R., Jockers K., Bonev T.: Planet.
Space Sci., 47, 745-763 (1999). H2O+ ions
in comets: Models and observations.
(147) Werther W., Varmuza K.: In Software
development in chemistry; Jochum C., Ed.; Gesellschaft Deutscher Chemiker:
Frankfurt am Main, Vol. 8, p. 129-134 (1994). EDAS 2.0 - Software for the
detection of spectra-structure relationships in infrared and mass spectra.
(148) Whipple F. L.: Planet. Space Sci., 47,
301-304 (1999). Note on the structure of comet nuclei.
(149) Whipple F. L.: Planet. Space Sci., 48,
1011-1019 (2000). Oort-cloud and Kuiper-belt comets.
(150) White F. A., Wood G. M.: In Mass
spectrometry. Applications in science and engineering; John Wiley &
Sons: New York
Chichesterp.
323-334 (1986). Comets.
(151) Wiley W. C., Mc Laren I. H.:, 32, 4-11
(1997). Time-of-flight mass spectrometer with improved resolution. Reprint
from Scientific Instruments, 26, 1150-1157 (1955).
(152) Wold S.: In Computer applications in
chemical research and education; Brandt J., Ugi I. K., Eds.; Hüthig Verlag:
Heidelbergp. 101-128 (1989). Multivariate data analysis: Converting chemical
data tables to plots.
(153) Wollnik H.: Optics of charged particles;
Academic Press: Orlando (1987).
(154) Wollnik H.: J. Mass Spectrom., 34,
991-1006 (1999). Ion optics in mass spectrometers.
(155) Wouterloot J. G. A., Lingmann A., Miller M.,
Vowinkel B., Winnewisser G., Wyrowki F.: Planet. Space Sci., 46,
579-584 (1998). HCN, CO, CS, CN and CO+ observations of comet
Hyakutake (1996 B2).
(156) Xhoffer C., Bernard P., Van Grieken R.: Environ.
Sci. Technol., 25, 1470-1478 (1991). Chemical characterization
and source apportionment of individual aerosol particles over the North Sea and
the English Channel using multivariate techniques.
(157) Zenker A., Pittenauer E., Pfanzagl B.,
Löffelhardt W., Allmaier G.: Rapid. Comm. Mass Spectrom., 10,
1956-1960 (1996). Characterization of peptidoglycan trimers after gel
chromatography and reversed-phase high-performance liquid chromatography by
positive-ion plasma desorption mass spectrometry.
(158) Zheng P., Harrington P. B., Craig A., Fleming
R.: Anal. Chim. Acta, 310, 485-492 (1995). Variable alignment
of high resolution data by cluster analysis.
(159) Zubarev R. A., Abeywarna U. K., Demirev P.,
Eriksson J., Papaleo R., Hakansson P., Sundqvist B. U. R.: Rapid. Comm. Mass
Spectrom., 11, 963-972 (1997). Delayed, gas-phase ion formation
in plasma desorption mass spectrometry.
(160) Zupan J., Gasteiger J.: Neural networks in
chemistry and drug design; 2 ed.; VCH: Weinheim (1999).
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