Organophosphorus chemical security from a peaceful perspective: sustainable practices in its synthesis, decontamination and detection

Organophosphorus compounds play an important role in the modern chemical industry and have a broad range of applications as flame retardants, agrochemicals, and chemical warfare agents. Unfortunately, they still present a big concern from a safety and security perspective considering their high toxi...

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Published inGreen chemistry : an international journal and green chemistry resource : GC Vol. 24; no. 2; pp. 585 - 613
Main Authors Silva, Valmir B, Santos, Yane H, Hellinger, Renata, Mansour, Sergui, Delaune, Antonin, Legros, Julien, Zinoviev, Sergey, Nogueira, Evandro S, Orth, Elisa S
Format Journal Article
LanguageEnglish
Published Cambridge Royal Society of Chemistry 24.01.2022
Subjects
Agrochemicals
Biological & chemical weapons
Catalysis
Catalysts
Chemical industry
Chemical Sciences
Chemical synthesis
Chemical warfare
Chemical warfare agents
Chemical weapons
Chemicals
Clean technology
Continuous flow
Decontamination
Detection limits
Electrochemistry
electrosynthesis
Flame retardants
Flow system
Green chemistry
Inspection
Ionic liquids
Irradiation
issues and policy
Metal-organic frameworks
microwave radiation
Nanomaterials
Nanotechnology
Neutralization
Organophosphorus compounds
Polymers
Polyoxometallates
Prohibition
Safety
Security
Sustainability
Sustainable practices
Toxicity
Verification
Weapons
Weapons of mass destruction
Wearable technology
Online AccessGet full text
ISSN1463-9262
1463-9270
1463-9270
DOI10.1039/d1gc02705k

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Abstract Organophosphorus compounds play an important role in the modern chemical industry and have a broad range of applications as flame retardants, agrochemicals, and chemical warfare agents. Unfortunately, they still present a big concern from a safety and security perspective considering their high toxicity to humans and the environment. Because of the former record and the persisting risks of some of these chemicals being used as weapons of mass destruction, the chemical weapons convention implemented by the organisation for the prohibition of chemical weapons, has classified a wide range of these chemicals as substances subject to a stringent verification regime. The existing practices for the production, detection and decontamination or destruction of unwanted organophosphorus compounds require high safety and security standards, which are not always attained only by sound management practices. The present review highlights the contribution made by the emerging research and early technology development in the field of green chemistry concerning these chemicals. Firstly, the advances regarding the safe synthesis of these compounds are covered not only due to their extensive legal commercial use but also as reference chemicals in verification processes. Aspects such as greener starting reactants, microwave irradiation, electrochemical synthesis and the use of ionic liquids are among the most promising alternatives. Another topic addressed is the decontamination of these toxic agents in the case of undesired stockpiles, for example, seeking their safe neutralization using mild conditions. The use of catalysts (derived from enzymes, metal-organic frameworks, polyoxometalates, nanomaterials, polymers, etc .) and continuous flow systems stand out. Finally, the greener detection of organophosphorus compounds is presented, which is relevant for inspection procedures regarding their prohibited use or misuse. This review is focused on the sustainable preparation of organophosphorus compounds and faster and cheaper architecture with lower detection limits for their detection, relying on integrated systems for multiple responses and facile applications such as wearable devices. Overall, the developments summarized provide a guide for researchers and the industry in this field, while also attracting the attention of policy makers to the undisclosed potential of green chemistry in this security sensitive domain. However, despite the progress, continuous efforts are imperative for the further development of intrinsically safer, more efficient and sustainable technologies in this field. Organophosphorus compounds play an important role in the modern chemical industry and have a broad range of applications as flame retardants, agrochemicals, and chemical warfare agents.
AbstractList Organophosphorus compounds play an important role in the modern chemical industry and have a broad range of applications as flame retardants, agrochemicals, and chemical warfare agents. Unfortunately, they still present a big concern from a safety and security perspective considering their high toxicity to humans and the environment. Because of the former record and the persisting risks of some of these chemicals being used as weapons of mass destruction, the chemical weapons convention implemented by the organisation for the prohibition of chemical weapons, has classified a wide range of these chemicals as substances subject to a stringent verification regime. The existing practices for the production, detection and decontamination or destruction of unwanted organophosphorus compounds require high safety and security standards, which are not always attained only by sound management practices. The present review highlights the contribution made by the emerging research and early technology development in the field of green chemistry concerning these chemicals. Firstly, the advances regarding the safe synthesis of these compounds are covered not only due to their extensive legal commercial use but also as reference chemicals in verification processes. Aspects such as greener starting reactants, microwave irradiation, electrochemical synthesis and the use of ionic liquids are among the most promising alternatives. Another topic addressed is the decontamination of these toxic agents in the case of undesired stockpiles, for example, seeking their safe neutralization using mild conditions. The use of catalysts (derived from enzymes, metal-organic frameworks, polyoxometalates, nanomaterials, polymers, etc .) and continuous flow systems stand out. Finally, the greener detection of organophosphorus compounds is presented, which is relevant for inspection procedures regarding their prohibited use or misuse. This review is focused on the sustainable preparation of organophosphorus compounds and faster and cheaper architecture with lower detection limits for their detection, relying on integrated systems for multiple responses and facile applications such as wearable devices. Overall, the developments summarized provide a guide for researchers and the industry in this field, while also attracting the attention of policy makers to the undisclosed potential of green chemistry in this security sensitive domain. However, despite the progress, continuous efforts are imperative for the further development of intrinsically safer, more efficient and sustainable technologies in this field. Organophosphorus compounds play an important role in the modern chemical industry and have a broad range of applications as flame retardants, agrochemicals, and chemical warfare agents.
Organophosphorus compounds play an important role in the modern chemical industry and have a broad range of applications as flame retardants, agrochemicals, and chemical warfare agents. Unfortunately, they still present a big concern from a safety and security perspective considering their high toxicity to humans and the environment. Because of the former record and the persisting risks of some of these chemicals being used as weapons of mass destruction, the chemical weapons convention implemented by the organisation for the prohibition of chemical weapons, has classified a wide range of these chemicals as substances subject to a stringent verification regime. The existing practices for the production, detection and decontamination or destruction of unwanted organophosphorus compounds require high safety and security standards, which are not always attained only by sound management practices. The present review highlights the contribution made by the emerging research and early technology development in the field of green chemistry concerning these chemicals. Firstly, the advances regarding the safe synthesis of these compounds are covered not only due to their extensive legal commercial use but also as reference chemicals in verification processes. Aspects such as greener starting reactants, microwave irradiation, electrochemical synthesis and the use of ionic liquids are among the most promising alternatives. Another topic addressed is the decontamination of these toxic agents in the case of undesired stockpiles, for example, seeking their safe neutralization using mild conditions. The use of catalysts (derived from enzymes, metal–organic frameworks, polyoxometalates, nanomaterials, polymers, etc .) and continuous flow systems stand out. Finally, the greener detection of organophosphorus compounds is presented, which is relevant for inspection procedures regarding their prohibited use or misuse. This review is focused on the sustainable preparation of organophosphorus compounds and faster and cheaper architecture with lower detection limits for their detection, relying on integrated systems for multiple responses and facile applications such as wearable devices. Overall, the developments summarized provide a guide for researchers and the industry in this field, while also attracting the attention of policy makers to the undisclosed potential of green chemistry in this security sensitive domain. However, despite the progress, continuous efforts are imperative for the further development of intrinsically safer, more efficient and sustainable technologies in this field.
Organophosphorus compounds play an important role in the modern chemical industry and have a broad range of applications as flame retardants, agrochemicals, and chemical warfare agents. Unfortunately, they still present a big concern from a safety and security perspective considering their high toxicity to humans and the environment. Because of the former record and the persisting risks of some of these chemicals being used as weapons of mass destruction, the chemical weapons convention implemented by the organisation for the prohibition of chemical weapons, has classified a wide range of these chemicals as substances subject to a stringent verification regime. The existing practices for the production, detection and decontamination or destruction of unwanted organophosphorus compounds require high safety and security standards, which are not always attained only by sound management practices. The present review highlights the contribution made by the emerging research and early technology development in the field of green chemistry concerning these chemicals. Firstly, the advances regarding the safe synthesis of these compounds are covered not only due to their extensive legal commercial use but also as reference chemicals in verification processes. Aspects such as greener starting reactants, microwave irradiation, electrochemical synthesis and the use of ionic liquids are among the most promising alternatives. Another topic addressed is the decontamination of these toxic agents in the case of undesired stockpiles, for example, seeking their safe neutralization using mild conditions. The use of catalysts (derived from enzymes, metal–organic frameworks, polyoxometalates, nanomaterials, polymers, etc.) and continuous flow systems stand out. Finally, the greener detection of organophosphorus compounds is presented, which is relevant for inspection procedures regarding their prohibited use or misuse. This review is focused on the sustainable preparation of organophosphorus compounds and faster and cheaper architecture with lower detection limits for their detection, relying on integrated systems for multiple responses and facile applications such as wearable devices. Overall, the developments summarized provide a guide for researchers and the industry in this field, while also attracting the attention of policy makers to the undisclosed potential of green chemistry in this security sensitive domain. However, despite the progress, continuous efforts are imperative for the further development of intrinsically safer, more efficient and sustainable technologies in this field.
Organophosphorus compounds play an important role in the modern chemical industry and have a broad range of applications as flame retardants, agrochemicals, and chemical warfare agents.
Author Hellinger, Renata
Nogueira, Evandro S
Legros, Julien
Orth, Elisa S
Mansour, Sergui
Zinoviev, Sergey
Silva, Valmir B
Santos, Yane H
Delaune, Antonin
AuthorAffiliation INSA Rouen
CNRS
UNIROUEN
Organisation for the Prohibition of Chemical Weapons (OPCW)
Normandie Université
COBRA Laboratory
Departamento de Química
Universidade Federal do Paraná (UFPR)
AuthorAffiliation_xml – name: INSA Rouen
– name: Organisation for the Prohibition of Chemical Weapons (OPCW)
– name: UNIROUEN
– name: Universidade Federal do Paraná (UFPR)
– name: CNRS
– name: COBRA Laboratory
– name: Normandie Université
– name: Departamento de Química
Author_xml – sequence: 1
  givenname: Valmir B
  surname: Silva
  fullname: Silva, Valmir B
– sequence: 2
  givenname: Yane H
  surname: Santos
  fullname: Santos, Yane H
– sequence: 3
  givenname: Renata
  surname: Hellinger
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  surname: Mansour
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  surname: Delaune
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  surname: Nogueira
  fullname: Nogueira, Evandro S
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  givenname: Elisa S
  surname: Orth
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Snippet Organophosphorus compounds play an important role in the modern chemical industry and have a broad range of applications as flame retardants, agrochemicals,...
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SubjectTerms Agrochemicals
Biological & chemical weapons
Catalysis
Catalysts
Chemical industry
Chemical Sciences
Chemical synthesis
Chemical warfare
Chemical warfare agents
Chemical weapons
Chemicals
Clean technology
Continuous flow
Decontamination
Detection limits
Electrochemistry
electrosynthesis
Flame retardants
Flow system
Green chemistry
Inspection
Ionic liquids
Irradiation
issues and policy
Metal-organic frameworks
microwave radiation
Nanomaterials
Nanotechnology
Neutralization
Organophosphorus compounds
Polymers
Polyoxometallates
Prohibition
Safety
Security
Sustainability
Sustainable practices
Toxicity
Verification
Weapons
Weapons of mass destruction
Wearable technology
Title Organophosphorus chemical security from a peaceful perspective: sustainable practices in its synthesis, decontamination and detection
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