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1SPECIFICITY OF TOXICOLOGY TEACHING AT THE EDUCATIONAL MILITARY CENTER OF THE N.M. SECHENOV UNIVERSITY
L. A. Kushnir,A. A. Timoshevskiy,V. M. Putilo
Toxicological Review.2017;(6)2
[DOI]
2Silibinin, dexamethasone, and doxycycline as potential therapeutic agents for treating vesicant-inflicted ocular injuries
Neera Tewari-Singh,Anil K. Jain,Swetha Inturi,David A. Ammar,Chapla Agarwal,Puneet Tyagi,Uday B. Kompella,Robert W. Enzenauer,J. Mark Petrash,Rajesh Agarwal
Toxicology and Applied Pharmacology.2012;264(1)23
[DOI]
3A Scheme for Ultrasensitive Detection of Molecules with Vibrational Spectroscopy in Combination with Signal Processing
Yong Tan,Ian Tay,Liang Loy,Ke Aw,Zhi Ong,Sergei Manzhos
Molecules.2019;24(4)776
[DOI]
4Comparative efficacy of Reactive Skin Decontamination Lotion (RSDL): A systematic review
Aileen M. Feschuk,Rebecca M. Law,Howard I. Maibach
Toxicology Letters.2021;349(4)109
[DOI]
5Comparative efficacy of Reactive Skin Decontamination Lotion (RSDL): A systematic review
Brenda A. Wilson,Mengfei Ho
Toxicology Letters.2015;349(4)141
[DOI]
6The chemical disruption of human metabolism
Stephen J. Genuis,Edmond Kyrillos
Toxicology Mechanisms and Methods.2017;27(7)477
[DOI]
7Doubly Protective MOF-Photo-Fabrics: Facile Template-Free Synthesis of PCN-222-Textiles Enables Rapid Hydrolysis, Photo-Hydrolysis and Selective Oxidation of Multiple Chemical Warfare Agents and Simulants
Heather F. Barton,Jovenal D. Jamir,Alexandra K. Davis,Gregory W. Peterson,Gregory N. Parsons
Chemistry – A European Journal.2021;27(4)1465
[DOI]
8Healthcare under siege: a qualitative study of health-worker responses to targeting and besiegement in Syria
Nasser Fardousi,Yazan Douedari,Natasha Howard
BMJ Open.2019;9(9)e029651
[DOI]
9Optical-Trapping Laser Techniques for Characterizing Airborne Aerosol Particles and Its Application in Chemical Aerosol Study
Aimable Kalume,Chuji Wang,Yong-Le Pan
Micromachines.2021;12(4)466
[DOI]
10Mass spectral studies of N-oxides of chemical weapons convention-related aminoethanols by gas chromatography/mass spectrometry after silylation
T Sony,L Sridhar,L Sai Sachin,VVS Lakshmi,S Prabhakar
European Journal of Mass Spectrometry.2018;24(6)442
[DOI]
11Skin decontamination efficacy of potassium ketoxime on rabbits exposed to sulfur mustard
Jing-Hai Sun,Pei-Pei Sun,Wei Zheng,Song Han,Ying Ying,Hong-Yan Liu,Cheng Zhang,Bao-Quan Zhao,Guo-Min Zuo,Hong Lu,Yu-Xu Zhong
Cutaneous and Ocular Toxicology.2015;34(1)1
[DOI]
12Phosgene oxime: a highly toxic urticant and emerging chemical threat
Satyendra K. Singh,Joshua A. Klein,Holly N. Wright,Neera Tewari-Singh
Toxicology Mechanisms and Methods.2021;31(4)288
[DOI]
13Phosgene oxime: Injury and associated mechanisms compared to vesicating agents sulfur mustard and lewisite
Dinesh Giri Goswami,Rajesh Agarwal,Neera Tewari-Singh
Toxicology Letters.2018;293(4)112
[DOI]
14Phosgene oxime: Injury and associated mechanisms compared to vesicating agents sulfur mustard and lewisite
Bernd Domres,Yasmeen M. Taalab,Norman Hecker
Toxicology Letters.2021;293(4)463
[DOI]
15Understanding the Interaction Modes and Reactivity of Trimedoxime toward MmAChE Inhibited by Nerve Agents: Theoretical and Experimental Aspects
Alexandre de Castro,Daniel Polisel,Bruna Pereira,Elaine da Cunha,Kamil Kuca,Eugenie Nepovimova,Teodorico Ramalho
International Journal of Molecular Sciences.2020;21(18)6510
[DOI]
16Recent Advances in Electrochemical Sensors for Detecting Weapons of Mass Destruction. A Review
Virendra V. Singh
Electroanalysis.2016;28(5)920
[DOI]
17A Proposed Integrated Framework for Chemical Safety and Chemical Security
Goh Choo Ta,Mohamad Mahathir Amir Sultan,Khai Ern Lee,Mazlin Mokhtar,Ling Ling Tan,Azreen Shazwani Omar,Mohd Norhisyam Omar,Noor Hafizie Sulkafle
Journal of Chemical Education.2020;97(7)1769
[DOI]
18Effect of the low glutamate diet on inflammatory cytokines in veterans with Gulf War Illness (GWI): A pilot study
Kathleen F. Holton,Shalini S. Ramachandra,Sidney L. Murray,Michael Baron,James N. Baraniuk
Life Sciences.2021;280(7)119637
[DOI]
19Oxidative Destruction of Multilayer Diisopropyl Methylphosphonate Films by O(3P) Atomic Oxygen
Rebecca S. Thompson,Grant G. Langlois,S. J. Sibener
The Journal of Physical Chemistry B.2018;122(2)455
[DOI]
20Oxidative Destruction of Multilayer Diisopropyl Methylphosphonate Films by O(3P) Atomic Oxygen
Brenda A. Wilson,Mengfei Ho
The Journal of Physical Chemistry B.2014;122(2)1
[DOI]
21Dirty war: chemical weapon use and domestic repression
Robert Brathwaite
Defence Studies.2016;16(4)327
[DOI]
22Harnessing Nature’s Diversity: Discovering organophosphate bioscavenger characteristics among low molecular weight proteins
Reed B. Jacob,Kenan C. Michaels,Cathy J. Anderson,James M. Fay,Nikolay V. Dokholyan
Scientific Reports.2016;6(1)327
[DOI]
23Trends in the Recent Patent Literature on Cholinesterase Reactivators (2016–2019)
Alexandre A. de Castro,Letícia C. Assis,Flávia V. Soares,Kamil Kuca,Daniel A. Polisel,Elaine F. F. da Cunha,Teodorico C. Ramalho
Biomolecules.2020;10(3)436
[DOI]
24Application of stem cells in tissue engineering for defense medicine
Chinedu Cletus Ude,Azizi Miskon,Ruszymah Bt Hj Idrus,Muhamad Bin Abu Bakar
Military Medical Research.2018;5(1)436
[DOI]
25Advances and applications of chemical protective clothing system
M A Rahman Bhuiyan,Lijing Wang,Abu Shaid,Robert A Shanks,Jie Ding
Journal of Industrial Textiles.2019;49(1)97
[DOI]
26Micromotors for “Chemistry-on-the-Fly”
Emil Karshalev,Berta Esteban-Fernández de Ávila,Joseph Wang
Journal of the American Chemical Society.2018;140(11)3810
[DOI]
27Iron-montmorillonite clays as active sorbents for the decontamination of hazardous chemical warfare agents
F. Carniato,C. Bisio,C. Evangelisti,R. Psaro,V. Dal Santo,D. Costenaro,L. Marchese,M. Guidotti
Dalton Transactions.2018;47(9)2939
[DOI]
28Chemical Aspects of Human and Environmental Overload with Fluorine
Jianlin Han,Loránd Kiss,Haibo Mei,Attila Márió Remete,Maja Ponikvar-Svet,Daniel Mark Sedgwick,Raquel Roman,Santos Fustero,Hiroki Moriwaki,Vadim A. Soloshonok
Chemical Reviews.2021;121(8)4678
[DOI]
29Adsorption and sensor applications of C2N surface for G-series and mustard series chemical warfare agents
Muhammad Yar,Faiza Ahsan,Adnan Gulzar,Khurshid Ayub
Microporous and Mesoporous Materials.2021;317(8)110984
[DOI]
30Possible treatment with medicinal herbs and their ingredients of lung disorders induced by sulfur mustard exposures: a review
Mohammad Reza Khazdair,Mohammad Hossein Boskabady
Environmental Science and Pollution Research.2021;317(8)110984
[DOI]
31Mesoporous MgAl2O4 and MgTiO3 nanoparticles modified polyacrylonitrile nanofibres for 2-chloroethyl ethyl sulfide degradation
Arun Karthick Selvam,Gobi Nallathambi
Fibers and Polymers.2015;16(10)2121
[DOI]
32Chemical warfare agents. Classes and targets
Michael Schwenk
Toxicology Letters.2018;293(10)253
[DOI]
33Selective and rapid detection of nerve agent simulants by polymer fibers with a fluorescent chemosensor in gas phase
Fentahun Wondu Dagnaw,Wei Feng,Qin-Hua Song
Sensors and Actuators B: Chemical.2020;318(10)127937
[DOI]
34Selective and rapid detection of nerve agent simulants by polymer fibers with a fluorescent chemosensor in gas phase
Avi Weissberg,Moran Madmon,Shai Dagan
Sensors and Actuators B: Chemical.2020;318(10)1
[DOI]
35Development of technologies applied to the biodegradation of warfare nerve agents: Theoretical evidence for asymmetric homogeneous catalysis
Ander Francisco Pereira,Alexandre A. de Castro,Flavia Villela Soares,Daniel Henriques Soares Leal,Elaine F.F. da Cunha,Daiana Teixeira Mancini,Teodorico C. Ramalho
Chemico-Biological Interactions.2019;308(10)323
[DOI]
36Electronic properties of novel bismuthene nanosheets with adsorption studies of G-series nerve agent molecules – a DFT outlook
R. Bhuvaneswari,V. Nagarajan,R. Chandiramouli
Physics Letters A.2019;383(33)125975
[DOI]
37Are chemical warfare exercises effective in knowledge retention of hospital personnel?
Raya Madar,Ronen Toledano,Bruria Adini
The American Journal of Emergency Medicine.2017;35(1)188
[DOI]
38Are chemical warfare exercises effective in knowledge retention of hospital personnel?
Denise D. P. Thompson
The American Journal of Emergency Medicine.2018;35(1)1
[DOI]
39Trocylation of 3-quinuclidinol, a key marker for the chemical warfare agent 3-quinuclidinyl benzilate, for its enhanced detection at low levels in complex soil matrices by electron ionization gas chromatography–mass spectrometry
Carlos A. Valdez,Roald N. Leif,Alexander K. Vu,Edmund P. Salazar
Rapid Communications in Mass Spectrometry.2021;35(15)1
[DOI]
40Layer by layer nanocomposite filter for ABC filtration
Arun Karthick Selvam,Devi Baskar,Gobi Nallathambi
Chemical Engineering Communications.2021;208(6)863
[DOI]
41Graphene oxide as sensitive layer in Love-wave surface acoustic wave sensors for the detection of chemical warfare agent simulants
Isabel Sayago,Daniel Matatagui,María Jesús Fernández,José Luis Fontecha,Izabela Jurewicz,Rosa Garriga,Edgar Muñoz
Talanta.2016;148(6)393
[DOI]
42Nitrogen mustard-induced corneal injury involves the sphingomyelin-ceramide pathway
Georgia Charkoftaki,James V. Jester,David C. Thompson,Vasilis Vasiliou
The Ocular Surface.2018;16(1)154
[DOI]
43Evaluation of the efficacy of a portable LIBS system for detection of CWA on surfaces
D. L’Hermite,E. Vors,T. Vercouter,G. Moutiers
Environmental Science and Pollution Research.2016;23(9)8219
[DOI]
44In vivo protection studies of bis-quaternary 2-(hydroxyimino)-N-(pyridin-3-yl) acetamide derivatives against sarin poisoning in mice
Devyani Swami,Hitendra N Karade,Jyotiranjan Acharya,Pravin Kumar
Human & Experimental Toxicology.2017;36(1)23
[DOI]
45Assessment of exogenous melatonin action on mouse liver cells after exposure to soman
Teodora Król,Wojciech Trybus,Ewa Trybus,Anna Kopacz-Bednarska,Marek Kowalczyk,Marek Brytan,Malgorzata Paluch,Bozena Antkowiak,Marek Saracyn,Grzegorz Król,Magdalena Ciechanowska
Environmental Toxicology and Pharmacology.2018;64(1)147
[DOI]
46The stability of Tenax TA thermal desorption tubes in simulated field conditions on the HAPSITE®ER
Sean W. Harshman,Victoria L. Dershem,Maomian Fan,Brandy S. Watts,Grant M. Slusher,Laura E. Flory,Claude C. Grigsby,Darrin K. Ott
International Journal of Environmental Analytical Chemistry.2015;64(1)1
[DOI]
47A Triage Model for Chemical Warfare Casualties
Mohammad Ali Khoshnevis,Yunes Panahi,Mostafa Ghanei,Hojat Borna,Amirhossein Sahebkar,Jafar Aslani
Trauma Monthly.2015;20(3)1
[DOI]
48IRRITANT COMPOUNDS: MILITARY RESPIRATORY IRRITANTS. PART II. STERNUTATORS
Jirí Patocka,Kamil Kuca
Military Medical Science Letters.2016;85(2)50
[DOI]
49Gas Chromatography-Mass Spectrometry Analysis of Synthetic Opioids Belonging to the Fentanyl Class: A Review
Carlos A. Valdez
Critical Reviews in Analytical Chemistry.2021;85(2)1
[DOI]
50Sample preparation of chemical warfare agent simulants on a digital microfluidic (DMF) device using magnetic bead-based solid-phase extraction
Hyunji Lee,Seyeong Lee,Inae Jang,Jinwoo Kim,Gwangro You,Eunhee Kim,Kihwan Choi,Jae Hwan Lee,Sunkyung Choi,Kwanwoo Shin,Myung-Han Yoon,Han Bin Oh
Microfluidics and Nanofluidics.2017;21(8)1
[DOI]
51Molecular Modeling Study of Uncharged Oximes Compared to HI-6 and 2-PAM Inside Human AChE Sarin and VX Conjugates
Felipe Rodrigues de Souza,Danielle Rodrigues Garcia,Teobaldo Cuya,André Silva Pimentel,Arlan da Silva Gonçalves,Ricardo Bicca de Alencastro,Tanos Celmar Costa França
ACS Omega.2020;5(9)4490
[DOI]
52Capture and Decomposition of the Nerve Agent Simulant, DMCP, Using the Zeolitic Imidazolate Framework (ZIF-8)
Amani M. Ebrahim,Anna M. Plonka,Ning Rui,Sooyeon Hwang,Wesley O. Gordon,Alex Balboa,Sanjaya D. Senanayake,Anatoly I. Frenkel
ACS Applied Materials & Interfaces.2020;12(52)58326
[DOI]
53Tuning the Lewis acidity of metal–organic frameworks for enhanced catalysis
Venkata Swaroopa Datta Devulapalli,Mélissandre Richard,Tian-Yi Luo,Mattheus L. De Souza,Nathaniel L. Rosi,Eric Borguet
Dalton Transactions.2021;50(9)3116
[DOI]
54Tuning the Lewis acidity of metal–organic frameworks for enhanced catalysis
Pancheva Hanna,Pilipenko Alexei
Dalton Transactions.2020;50(9)309
[DOI]
55Quenching Action of Monofunctional Sulfur Mustard on Chlorophyll Fluorescence: Towards an Ultrasensitive Biosensor
Simerjit Kaur,Minni Singh,Swaran Jeet Singh Flora
Applied Biochemistry and Biotechnology.2013;171(6)1405
[DOI]
56Quenching Action of Monofunctional Sulfur Mustard on Chlorophyll Fluorescence: Towards an Ultrasensitive Biosensor
Anna Staerz,Frank Roeck,Udo Weimar,Nicolae Barsan
Applied Biochemistry and Biotechnology.2020;171(6)335
[DOI]
57Skin permeation of oxides of nitrogen and sulfur from short-term exposure scenarios relevant to hazardous material incidents
Sharyn Gaskin,Linda Heath,Dino Pisaniello,Michael Logan,Christina Baxter
Science of The Total Environment.2019;665(6)937
[DOI]
58Fabrication of a Novel Electrospun Polyacrylonitrile/Giant Ball {Mo132} Composite Nanofibrous Mats in Adsorption of 2-CEES
Reza Haddad,Mehdi Dusti Telgerd,Hojjatalla Hadi,Mohammad Sadeghinia
Current Applied Polymer Science.2019;3(2)130
[DOI]
59Chemical Weapons and public health: assessing impact and responses
Abdulkarim Ekzayez,M Daniel Flecknoe,Louis Lillywhite,Preeti Patel,Andreas Papamichail,Hassan Elbahtimy
Journal of Public Health.2020;42(3)e334
[DOI]
60Chemical Weapons and public health: assessing impact and responses
Patrick M. McNutt,Tracey A. Hamilton,Megan E. Lyman,Marian R. Nelson
Journal of Public Health.2020;42(3)567
[DOI]
61Chemical Weapons and public health: assessing impact and responses
Denise D. P. Thompson
Journal of Public Health.2021;42(3)403
[DOI]
62A Zero-Power Optical, ppt- to ppm-Level Toxic Gas and Vapor Sensor with Image, Text, and Analytical Capabilities
Marianne Estelle Prévôt,Ahlam Nemati,Tobias Richard Cull,Elda Hegmann,Torsten Hegmann
Advanced Materials Technologies.2020;5(5)2000058
[DOI]
63Effectiveness and reaction networks of H2O2vapor with NH3gas for decontamination of the toxic warfare nerve agent, VX on a solid surface
Sam Gon Ryu,Hae Wan Lee
Journal of Environmental Science and Health, Part A.2015;50(14)1417
[DOI]
64Five Decades of Global Chemical Terror Attacks: Data Analysis to Inform Training and Preparedness
Michael A. DeLuca,Peter R. Chai,Eric Goralnick,Timothy B. Erickson
Disaster Medicine and Public Health Preparedness.2020;50(14)1
[DOI]
65Encapsulation of sulfur, oxygen, and nitrogen mustards by cucurbiturils: a DFT study
Natarajan Sathiyamoorthy Venkataramanan,Suvitha Ambigapathy
Journal of Inclusion Phenomena and Macrocyclic Chemistry.2015;83(3-4)387
[DOI]
66Encapsulation of sulfur, oxygen, and nitrogen mustards by cucurbiturils: a DFT study
Gabriela S. García-Briones,Miguel Olvera-Sosa,Gabriela Palestino
Journal of Inclusion Phenomena and Macrocyclic Chemistry.2019;83(3-4)225
[DOI]
67Encapsulation of sulfur, oxygen, and nitrogen mustards by cucurbiturils: a DFT study
N. R. Jenzen-Jones
Journal of Inclusion Phenomena and Macrocyclic Chemistry.2020;83(3-4)179
[DOI]
68Toxidrome Recognition in Chemical-Weapons Attacks
Dan L. Longo,Gregory R. Ciottone
New England Journal of Medicine.2018;378(17)1611
[DOI]
69Wearable Atmospheric Pressure Plasma Fabrics Produced by Knitting Flexible Wire Electrodes for the Decontamination of Chemical Warfare Agents
Heesoo Jung,Jin Ah Seo,Seungki Choi
Scientific Reports.2017;7(1)1611
[DOI]
70Protective Multifunctional Fibrous Systems Based on Natural Fibers and Metal Oxide Nanoparticles
Joana C. Araújo,Raul Fangueiro,Diana P. Ferreira
Polymers.2021;13(16)2654
[DOI]
71T-jump pyrolysis and combustion of diisopropyl methylphosphonate
Bing Yuan,Hergen Eilers
Combustion and Flame.2019;199(16)69
[DOI]
72Deciphering the role of microRNAs in mustard gas–induced toxicity
Neha Mishra,Komal Raina,Rajesh Agarwal
Annals of the New York Academy of Sciences.2021;1491(1)25
[DOI]
73A self-degradable hydrogel sensor for a nerve agent tabun surrogate through a self-propagating cascade
Doo-Hee Lee,Stephanie A. Valenzuela,Manuel N. Dominguez,Mai Otsuka,Delia J. Milliron,Eric V. Anslyn
Cell Reports Physical Science.2021;1491(1)100552
[DOI]
74Enzyme-Based Test Strips for Visual or Photographic Detection and Quantitation of Gaseous Sulfur Mustard
Sarka Bidmanova,Mark-Steven Steiner,Martin Stepan,Kamila Vymazalova,Michael A. Gruber,Axel Duerkop,Jiri Damborsky,Zbynek Prokop,Otto S. Wolfbeis
Analytical Chemistry.2016;88(11)6044
[DOI]
75Enzyme-Based Test Strips for Visual or Photographic Detection and Quantitation of Gaseous Sulfur Mustard
Fabiana Arduini,Viviana Scognamiglio,Danila Moscone,Giuseppe Palleschi
Analytical Chemistry.2016;88(11)115
[DOI]
76High-level expression and molecular characterization of a recombinant prolidase fromEscherichia coliNovaBlue
Tzu-Fan Wang,Meng-Chun Chi,Kuan-Ling Lai,Min-Guan Lin,Yi-Yu Chen,Huei-Fen Lo,Long-Liu Lin
PeerJ.2018;6(11)e5863
[DOI]
77High-level expression and molecular characterization of a recombinant prolidase fromEscherichia coliNovaBlue
Adel Ghorani-Azam,Mahdi Balali-Mood
PeerJ.2015;6(11)63
[DOI]
78Exploration of nanofibrous coated webs for chemical and biological protection
Mukesh Sinha,Biswa Das,Namburi Prasad,Brian Kishore,Kamal Kumar
Zastita materijala.2018;59(2)189
[DOI]
79Real-time selective detection of 2-chloroethyl ethyl sulfide (2-CEES) using an Al-doped ZnO quantum dot sensor coupled with a packed column for gas chromatography
Jun Ho Lee,Hwaebong Jung,Ran Yoo,Yunji Park,Hyun-sook Lee,Yong-Sahm Choe,Wooyoung Lee
Sensors and Actuators B: Chemical.2019;284(2)444
[DOI]
80Bifunctional Europium(III) and Niobium(V)-Containing Saponite Clays for the Simultaneous Optical Detection and Catalytic Oxidative Abatement of Blister Chemical Warfare Agents
Stefano Marchesi,Matteo Guidotti,Leonardo Marchese,Claudio Evangelisti,Fabio Carniato,Chiara Bisio
Chemistry – A European Journal.2021;27(14)4723
[DOI]
81Analysis of Organophosphorus-Based Nerve Agent Degradation Products by Gas Chromatography-Mass Spectrometry (GC-MS): Current Derivatization Reactions in the Analytical Chemist’s Toolbox
Carlos A. Valdez,Roald N. Leif
Molecules.2021;26(15)4631
[DOI]
82Mustard vesicating agent-induced toxicity in the skin tissue and silibinin as a potential countermeasure
Neera Tewari-Singh,Rajesh Agarwal
Annals of the New York Academy of Sciences.2016;1374(1)184
[DOI]
83Mustard vesicating agent-induced toxicity in the skin tissue and silibinin as a potential countermeasure
Majid Montazer,Tina Harifi
Annals of the New York Academy of Sciences.2018;1374(1)265
[DOI]
84Adsorption of nerve agent simulants onto vermiculite structure: Experiments and modelling
Daniela Plachá,Petr Kovár,Jakub Vanek,Marcel Mikeska,Katerina Škrlová,Ondrej Dutko,Lenka Rehácková,Jirí Slabotínský
Journal of Hazardous Materials.2020;382(1)121001
[DOI]
85In vivo efficacy of the Reactive Skin Decontamination Lotion (RSDL®) kit against organophosphate and carbamate pesticides
Messele Fentabil,Mulu Gebremedhin,John Barry,John Mikler,Laura Cochrane
Chemico-Biological Interactions.2020;318(1)108980
[DOI]
86Product Inhibition and the Catalytic Destruction of a Nerve Agent Simulant by Zirconium-Based Metal–Organic Frameworks
Yijun Liao,Thomas Sheridan,Jian Liu,Omar Farha,Joseph Hupp
ACS Applied Materials & Interfaces.2021;13(26)30565
[DOI]
87Molecular Identification and Disease Management of Date Palm Sudden Decline Syndrome in the United Arab Emirates
Khawla Alwahshi,Esam Saeed,Arjun Sham,Aisha Alblooshi,Marwa Alblooshi,Khaled El-Tarabily,Synan AbuQamar
International Journal of Molecular Sciences.2019;20(4)923
[DOI]
88Effect of supersaturated oxygen emulsion treatment on chloropicrin-induced chemical injury in ex vivo rabbit cornea
Satyendra K. Singh,Dinesh G. Goswami,Holly N. Wright,Rama Kant,Izza A. Ali,Leah N. Braucher,Joshua A. Klein,Madeline G. Godziela,David A. Ammar,Kathryn M. Pate,Neera Tewari-Singh
Toxicology Letters.2021;349(4)124
[DOI]
89Sensitive fluorescence on-off probes for the fast detection of a chemical warfare agent mimic
Muhammad Shar Jhahan Khan,Ya-Wen Wang,Mathias O. Senge,Yu Peng
Journal of Hazardous Materials.2018;342(4)10
[DOI]
90Exploration of fluorescent organotin compounds of a-amino acid Schiff bases for the detection of organophosphorous chemical warfare agents: quantification of diethylchlorophosphate
Navjot Singh,Keshav Kumar,Neha Srivastav,Raghubir Singh,Varinder Kaur,Jerry P. Jasinski,Ray J. Butcher
New Journal of Chemistry.2018;42(11)8756
[DOI]
91Epidemiological findings of major chemical attacks in the Syrian war are consistent with civilian targeting: a short report
Jose M. Rodriguez-Llanes,Debarati Guha-Sapir,Benjamin-Samuel Schlüter,Madelyn Hsiao-Rei Hicks
Conflict and Health.2018;12(1)8756
[DOI]
92Sensing and elimination of the hazardous materials such as Sarin by metal functionalized ?-graphyne surface: A DFT study
Fatemeh Mofidi,Adel Reisi-Vanani
Journal of Molecular Liquids.2019;286(1)110929
[DOI]
93Chemical warfare agent simulants for human volunteer trials of emergency decontamination: A systematic review
Thomas James,Stacey Wyke,Tim Marczylo,Samuel Collins,Tom Gaulton,Kerry Foxall,Richard Amlôt,Raquel Duarte-Davidson
Journal of Applied Toxicology.2018;38(1)113
[DOI]
94Doping effect on the sensing properties of ZnO nanoparticles for detection of 2-chloroethyl ethylsulfide as a mustard simulant
Ran Yoo,Dongmei Lee,Sungmee Cho,Wooyoung Lee
Sensors and Actuators B: Chemical.2018;254(1)1242
[DOI]
95Supramolecular Agent-Simulant Correlations for the Luminescence Based Detection of V-Series Chemical Warfare Agents with Trivalent Lanthanide Complexes
Genevieve H. Dennison,Christian G. Bochet,Christophe Curty,Julien Ducry,David J. Nielsen,Mark R. Sambrook,Andreas Zaugg,Martin R. Johnston
European Journal of Inorganic Chemistry.2016;2016(9)1348
[DOI]
96Autoinjector device for rapid administration of drugs and antidotes in emergency situations and in mass casualty management
Rajagopalan Vijayaraghavan
Journal of International Medical Research.2020;48(5)030006052092601
[DOI]
97A Walk in the Clouds: Cautionary Tales from a Century of Chemical Agent Work
Jeffery Smart,Ethan M. McBride
Journal of Chemical Education.2020;97(7)1702
[DOI]
98Desorption of sulphur mustard simulants methyl salicylate and 2-chloroethyl ethyl sulphide from contaminated scalp hair after vapour exposure
Marie Spiandore,Mélanie Souilah-Edib,Anne Piram,Alexandre Lacoste,Denis Josse,Pierre Doumenq
Chemosphere.2018;191(7)721
[DOI]
99Assembly of PDMS/SiO 2 -PTFE and activated carbon fibre as a liquid water–resistant gas sorbent structure
Eun Ji Park,Ho Jong Kim,Sang Wook Han,Jae Hwan Jeong,Il Hee Kim,Hyun Ook Seo,Young Dok Kim
Chemical Engineering Journal.2017;325(7)433
[DOI]
100Rapid analysis of sulfur mustard oxide in plasma using gas chromatography-chemical ionization-mass spectrometry for diagnosis of sulfur mustard exposure
Erica Manandhar,Adam Pay,Livia A. Veress,Brian A. Logue
Journal of Chromatography A.2018;1572(7)106
[DOI]
101Assessment of brain oxygenation imbalance following soman exposure in rats
Kevin Lee,Sara Bohnert,Ying Wu,Cory Vair,John Mikler,G. Campbell Teskey,Jeff F. Dunn
NeuroToxicology.2018;65(7)28
[DOI]
102A dual-function all-inorganic intercluster salt comprising the polycation e-[Al13O4(OH)24(H2O)12]7+ and polyanion a-[PMo10V2O40]5- for detoxifying sulfur mustard and soman
Jialin Yu,Qi Gao,Lijuan Zhang,Yunshan Zhou,Yuxu Zhong,Jianbo Yin,Yuanyuan Zhou,Fangsheng Tao,Yong'an Wang
Dalton Transactions.2020;49(24)8122
[DOI]
103Sampling and analyses of surfaces contaminated with chemical warfare agents by using a newly developed triple layered composite wipe
M. Imran,Narendra Kumar,Vikas B. Thakare,A. K. Gupta,J. Acharya,Prabhat Garg
Analytical and Bioanalytical Chemistry.2020;412(5)1097
[DOI]
104Sampling and analyses of surfaces contaminated with chemical warfare agents by using a newly developed triple layered composite wipe
Dimitrios A. Giannakoudakis,Teresa J. Bandosz
Analytical and Bioanalytical Chemistry.2018;412(5)1
[DOI]
105Carbon Textiles Modified with Copper-Based Reactive Adsorbents as Efficient Media for Detoxification of Chemical Warfare Agents
Marc Florent,Dimitrios A. Giannakoudakis,Rajiv Wallace,Teresa J. Bandosz
ACS Applied Materials & Interfaces.2017;9(32)26965
[DOI]
106Carbon Textiles Modified with Copper-Based Reactive Adsorbents as Efficient Media for Detoxification of Chemical Warfare Agents
Amal I. Hassan,Hosam M. Saleh
ACS Applied Materials & Interfaces.2021;9(32)15
[DOI]
107Analysis of chemical warfare agents by gas chromatography-mass spectrometry: methods for their direct detection and derivatization approaches for the analysis of their degradation products
Carlos A. Valdez,Roald N. Leif,Saphon Hok,Bradley R. Hart
Reviews in Analytical Chemistry.2018;37(1)15
[DOI]
108Rapid and sensitive detection of nerve agent mimics by meso-substituted BODIPY piperazines as fluorescent chemosensors
Fentahun Wondu Dagnaw,Yi-Ping Cai,Qin-Hua Song
Dyes and Pigments.2021;189(1)109257
[DOI]
109Slight difference in the isomeric oximes K206 and K203 makes huge difference for the reactivation of organophosphorus-inhibited AChE: Theoretical and experimental aspects
Daniel A. Polisel,Alexandre A. de Castro,Daiana T. Mancini,Elaine F.F. da Cunha,Tanos C.C. França,Teodorico C. Ramalho,Kamil Kuca
Chemico-Biological Interactions.2019;309(1)108671
[DOI]
110Utilizing Zirconium MOF-functionalized Fiber Substrates Prepared by Molecular Layer Deposition for Toxic Gas Capture and Chemical Warfare Agent Degradation
Agnieszka Gorzkowska-Sobas,Kristian Blindheim Lausund,Martijn C. Koning,Veljko Petrovic,Sachin M. Chavan,Martin W. Smith,Ola Nilsen
Global Challenges.2021;309(1)2100001
[DOI]
111Hyperspectral depth-profiling with deep Raman spectroscopy for detecting chemicals in building materials
Youngho Cho,Si Won Song,Jiha Sung,Young-Su Jeong,Chan Ryang Park,Hyung Min Kim
The Analyst.2017;142(19)3613
[DOI]
112Hyperspectral depth-profiling with deep Raman spectroscopy for detecting chemicals in building materials
Harald Striegl
The Analyst.2019;142(19)339
[DOI]
113Fluorescent Discrimination between Traces of Chemical Warfare Agents and Their Mimics
Borja Díaz de Greñu,Daniel Moreno,Tomás Torroba,Alexander Berg,Johan Gunnars,Tobias Nilsson,Rasmus Nyman,Milton Persson,Johannes Pettersson,Ida Eklind,Pär Wästerby
Journal of the American Chemical Society.2014;136(11)4125
[DOI]
114The effects of modern war and military activities on biodiversity and the environment
Michael J. Lawrence,Holly L.J. Stemberger,Aaron J. Zolderdo,Daniel P. Struthers,Steven J. Cooke
Environmental Reviews.2015;23(4)443
[DOI]
115Contributions of tissue-specific pathologies to corneal injuries following exposure to SM vapor
Patrick M. McNutt,Kaylie M. Tuznik,Elliot J. Glotfelty,Marian R. Nelson,Megan E. Lyman,Tracey A. Hamilton
Annals of the New York Academy of Sciences.2016;1374(1)132
[DOI]
116Contributions of tissue-specific pathologies to corneal injuries following exposure to SM vapor
Patrick M. McNutt,Tracey L. Hamilton
Annals of the New York Academy of Sciences.2015;1374(1)535
[DOI]
117The Low Glutamate Diet Effectively Improves Pain and Other Symptoms of Gulf War Illness
Kathleen F. Holton,Anna E. Kirkland,Michael Baron,Shalini S. Ramachandra,Mackenzie T. Langan,Elizabeth T. Brandley,James N. Baraniuk
Nutrients.2020;12(9)2593
[DOI]
118Phosphate Esters, Thiophosphate Esters and Metal Thiophosphates as Lubricant Additives
David Johnson,John Hils
Lubricants.2013;1(4)132
[DOI]
119Defining cutaneous molecular pathobiology of arsenicals using phenylarsine oxide as a prototype
Ritesh K. Srivastava,Changzhao Li,Zhiping Weng,Anupam Agarwal,Craig A. Elmets,Farrukh Afaq,Mohammad Athar
Scientific Reports.2016;6(1)132
[DOI]
120Detection of Chemical Warfare Agent Simulants by using Fluorescence Modulation of Rhodamine 6G/Ag Nanowires
Byeong Geun Jeong,Dae Young Park,Kihyuk Yang,Sung-Jin An,Chulho Park,Chanwoo Lee,Hyang Mi Yu,Mun Seok Jeong,Seung Mi Lee
Journal of the Korean Physical Society.2019;75(10)827
[DOI]
121Sensitivity enhancement of flexible gas sensors via conversion of inkjet-printed silver electrodes into porous gold counterparts
Yunnan Fang,Mitra Akbari,Jimmy G. D. Hester,Lauri Sydänheimo,Leena Ukkonen,Manos M. Tentzeris
Scientific Reports.2017;7(1)827
[DOI]
122A whole cell optical bioassay for the detection of chemical warfare mustard agent simulants
Amina Antonacci,Maya D. Lambreva,Fabiana Arduini,Danila Moscone,Giuseppe Palleschi,Viviana Scognamiglio
Sensors and Actuators B: Chemical.2018;257(1)658
[DOI]
123A whole cell optical bioassay for the detection of chemical warfare mustard agent simulants
Simerjit Kaur,Minni Singh,Neelam Verma
Sensors and Actuators B: Chemical.2012;257(1)87
[DOI]
124Amplification of Elementary Surface Reaction Steps on Transition Metal Surfaces Using Liquid Crystals: Dissociative Adsorption and Dehydrogenation
Huaizhe Yu,Tibor Szilvási,Kunlun Wang,Jake I. Gold,Nanqi Bao,Robert J. Twieg,Manos Mavrikakis,Nicholas L. Abbott
Journal of the American Chemical Society.2019;141(40)16003
[DOI]
125Analysis of sulfur compounds using a water stationary phase in gas chromatography with flame photometric detection
Kaylan H. McKelvie,Kevin B. Thurbide
Analytical Methods.2017;9(7)1097
[DOI]
126Analysis of sulfur compounds using a water stationary phase in gas chromatography with flame photometric detection
Rosana Buffon
Analytical Methods.2018;9(7)1097
[DOI]
127Efficacy of scalp hair decontamination following exposure to vapours of sulphur mustard simulants 2-chloroethyl ethyl sulphide and methyl salicylate
Marie Spiandore,Anne Piram,Alexandre Lacoste,Philippe Prevost,Pascal Maloni,Franck Torre,Laurence Asia,Denis Josse,Pierre Doumenq
Chemico-Biological Interactions.2017;267(7)74
[DOI]
128Novichoks – The A group of organophosphorus chemical warfare agents
Marcin Kloske,Zygfryd Witkiewicz
Chemosphere.2019;221(7)672
[DOI]
129Prospective applications of nanometer-scale pore size biomimetic and bioinspired membranes
Yu-Ming Tu,Laxmicharan Samineni,Tingwei Ren,A. Benjamin Schantz,Woochul Song,Siddharth Sharma,Manish Kumar
Journal of Membrane Science.2021;620(7)118968
[DOI]
130Synthesis and characterization of TiO2/Mg(OH)2 composites for catalytic degradation of CWA surrogates
Martin Štastný,Václav Štengl,Jirí Henych,Jakub Tolasz,Martin Kormunda,Jakub Ederer,Gloria Issa,Pavel Janoš
RSC Advances.2020;10(33)19542
[DOI]
131Precursors of Nerve Chemical Warfare Agents with Industrial Relevance: Characteristics and Significance for Chemical Security
Javier Quagliano,Zygfryd Witkiewicz,Ewa Sliwka,Slawomir Neffe
ChemistrySelect.2018;3(10)2703
[DOI]
132A Choline Oxidase Amperometric Bioassay for the Detection of Mustard Agents Based on Screen-Printed Electrodes Modified with Prussian Blue Nanoparticles
Fabiana Arduini,Viviana Scognamiglio,Corrado Covaia,Aziz Amine,Danila Moscone,Giuseppe Palleschi
Sensors.2015;15(2)4353
[DOI]
133Contact-free microparticle characterization via Raman spectroscopy and digital holography
Nava R Subedi,Prakash Adhikari,Matthew J Berg,Gombojav O Ariunbold
Journal of Optics.2018;20(9)095608
[DOI]
134Contact-free microparticle characterization via Raman spectroscopy and digital holography
Effat Behravan,Mitra Asgharian Rezaee
Journal of Optics.2015;20(9)317
[DOI]
135Contact-free microparticle characterization via Raman spectroscopy and digital holography
Ibrahim Chikowe,Andrew G. Mtewa
Journal of Optics.2021;20(9)229
[DOI]
136Functional magnetic nanoparticle–based affinity probe for MALDI mass spectrometric detection of ricin B
Karthikeyan Kandasamy,Karuppuchamy Selvaprakash,Yu-Chie Chen
Microchimica Acta.2021;188(10)229
[DOI]
137Exploring adsorption mechanism of hydrogen cyanide and cyanogen chloride molecules on arsenene nanoribbon from first-principles
R. Bhuvaneswari,V. Nagarajan,R. Chandiramouli
Journal of Molecular Graphics and Modelling.2019;89(10)13
[DOI]
138Protective role of HO-1 against acute kidney injury caused by cutaneous exposure to arsenicals
Ritesh K. Srivastava,Suhail Muzaffar,Jasim Khan,Amie M. Traylor,Jaroslaw W. Zmijewski,Lisa M. Curtis,James F. George,Aftab Ahmad,Veena B. Antony,Anupam Agarwal,Mohammad Athar
Annals of the New York Academy of Sciences.2020;1480(1)155
[DOI]
139Organoiridium(III) Complexes as Luminescence Color Switching Probes for Selective Detection of Nerve Agent Simulant in Solution and Vapor Phase
Sanjoy Kumar Sheet,Bhaskar Sen,Snehadrinarayan Khatua
Inorganic Chemistry.2019;58(6)3635
[DOI]
140An overview update in chemical, biological and nuclear weapons and their effects in human health
D. . Petrakis,L. . Vassilopoulou,A. O. Docea,E. . Gofita,S. . Vucinic,V. N. Rakitskii,Aristides M. Tsatsakis
Health Care of the Russian Federation.2019;61(2)103
[DOI]
141Selective Surface Acoustic Wave-Based Organophosphorus Sensor Employing a Host-Guest Self-Assembly Monolayer of ß-Cyclodextrin Derivative
Yong Pan,Ning Mu,Shengyu Shao,Liu Yang,Wen Wang,Xiao Xie,Shitang He
Sensors.2015;15(8)17916
[DOI]
142Rapid, in situ detection of chemical warfare agent simulants and hydrolysis products in bulk soils by low-cost 3D-printed cone spray ionization mass spectrometry
Hilary M. Brown,Trevor J. McDaniel,Karan R. Doppalapudi,Christopher C. Mulligan,Patrick W. Fedick
The Analyst.2021;146(10)3127
[DOI]
143Rapid Laser-Induced Temperature Jump Decomposition of the Nerve Agent Simulant Diisopropyl Methylphosphonate under Atmospheric Conditions
Rebecca S. Thompson,Michelle R. Brann,Ellen H. Purdy,Jacob D. Graham,Alison A. McMillan,S. J. Sibener
The Journal of Physical Chemistry C.2019;123(35)21564
[DOI]
144Efficacy of anti-inflammatory, antibiotic and pleiotropic agents in reversing nitrogen mustard-induced injury in ex vivo cultured rabbit cornea
Dinesh G. Goswami,Rama Kant,Neera Tewari-Singh,Rajesh Agarwal
Toxicology Letters.2018;293(35)127
[DOI]
145Efficacy of anti-inflammatory, antibiotic and pleiotropic agents in reversing nitrogen mustard-induced injury in ex vivo cultured rabbit cornea
U. Turaga,R.J. Kendall,V. Singh,M. Lalagiri,S.S. Ramkumar
Toxicology Letters.2012;293(35)260
[DOI]
146Principles and methods of bio detoxification of cyanide contaminants
Anning Cosmos,Bat-Oyun Erdenekhuyag,Geng Yao,Huijuan Li,Jinggang Zhao,Wang Laijun,Xianjun Lyu
Journal of Material Cycles and Waste Management.2020;22(4)939
[DOI]
147Neurotoxicity in Gulf War Illness and the potential role of glutamate
Michelle R. Joyce,Kathleen F. Holton
NeuroToxicology.2020;80(4)60
[DOI]
148DNA damage and repair proteins in cellular response to sulfur mustard in Iranian veterans more than two decades after exposure
Shahriar Khateri,Mahdi Balali-Mood,Peter Blain,Faith Williams,Paul Jowsey,Mohammad Reza Soroush,Effat Behravan,Mahmood Sadeghi
Toxicology Letters.2018;293(4)67
[DOI]
149Mixed CuFe and ZnFe (hydr)oxides as reactive adsorbents of chemical warfare agent surrogates
Marc Florent,Dimitrios A. Giannakoudakis,Rajiv Wallace,Teresa J. Bandosz
Journal of Hazardous Materials.2017;329(4)141
[DOI]
150Chemical, biological, radiological, and nuclear threats-Decontamination technologies and recent patents: A review
Abdul Wadood Khan,Sabna Kotta,Shahid Hussain Ansari,Rakesh Kumar Sharma,Vinod Kumar,Sudha Rana,Javed Ali
Journal of Renewable and Sustainable Energy.2012;4(1)012704
[DOI]
151Enhanced dimethyl methylphosphonate detection based on two-dimensional WSe2 nanosheets at room temperature
Bolong Li,Xinwei Chen,Chen Su,Yutong Han,Huaizhang Wang,Min Zeng,Ying Wang,Ting Liang,Zhi Yang,Lin Xu
The Analyst.2020;145(24)8059
[DOI]
152Vapor-phase decomposition of dimethyl methylphosphonate (DMMP), a sarin surrogate, in presence of metal oxides
Shomik Mukhopadhyay,Mirko Schoenitz,Edward L. Dreizin
Defence Technology.2021;17(4)1095
[DOI]
153Efficient derivatization of methylphosphonic and aminoethylsulfonic acids related to nerve agents simultaneously in soils using trimethyloxonium tetrafluoroborate for their enhanced, qualitative detection and identification by EI-GC–MS and GC–FPD
Carlos A. Valdez,Mira K. Marchioretto,Roald N. Leif,Saphon Hok
Forensic Science International.2018;288(4)159
[DOI]
154Nitrogen mustard gas molecules and a-arsenene nanosheet interaction studies – A DFT insight
R. Bhuvaneswari,V. Nagarajan,R. Chandiramouli
Journal of Molecular Graphics and Modelling.2019;92(4)65
[DOI]
155Synthesis and adsorption behavior of activated carbon impregnated with ASZM-TEDA for purification of contaminated air
Sidra Shaoor Kiani,Yasir Faiz,Amjad Farooq,Masroor Ahmad,Naseem Irfan,Mohsan Nawaz,Saira Bibi
Diamond and Related Materials.2020;108(4)107916
[DOI]
156Lists of Chemical Warfare Agents and Precursors from International Nonproliferation Frameworks: Structural Annotation and Chemical Fingerprint Analysis
Stefano Costanzi,Charlotte K. Slavick,Brent O. Hutcheson,Gregory D. Koblentz,Richard T. Cupitt
Journal of Chemical Information and Modeling.2020;60(10)4804
[DOI]
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