Benchmark 1

                                                                 Part 4

                    

 

                    Chart of Chemical Warfare Agents

                           And Their Effects                                   

         G r o u p                   

       A g e n t s    

                          E f f e c t s

Casualty agents:

 

Can cause death to its victims

Blood agents:

 

-arsine

-cyanogen chloride

-hydrogen chloride

Block oxygen utilization, or uptake from the blood, causing the body to asphyxiate

Choking agents:

-Chlorine

-Diphosgene

-PFIB

-Phosgene

Cause injury to the respiratory system, particularly the throat, lungs, and nose

Nerve agents:

-GA (Tabun)

-GB (Sarin)

-GD (Soman)

-GE

-GF

-VE

-VG

-VM

-VX

Paralyze the respiratory muscles

 

 

 

Vesicants

(blister agents):

-Distilled mustard

-Ethyldichloroarsine

-Lewisite 1

-Lewisite 2

-Lewisite 3

-Methyldichloroarsine

-Mustard-Lewisite mixture

-Mustard-T mixture

-Nitrogen mustard 1

-Nitrogen mustard 2

-Nitrogen mustard 3

-Phenyldichloroarsine

-Phosgene oxime

-Sesqui mustard

Cause skin irritation, temporary/permanent blindness, or sometimes damage to the respiratory system

Harassing agents:

 

 

 

Riot control agents:

 

 

Lackrymators:         

 

-CA

-CN

-CNB

-CNC

-CNS

-CS

 

Sternutators, or

Vomiting agents:

-DA

-DC

-DM(Adamsite)

Causes victims to vomit

Incapacitating

agents:

 

 

Can incapacitate, disorientate, or paralyze its victims

Depressants:

-Morphine

 

Psychedelic drugs:

-Agent-15

-BZ

-Lysergic acid-25

-Mescaline

-Phenylcyclidine

-Psilocybin

 

Stimulants:

-Amphetamine

-Cocaine

-Dexamphetamine

-Methamphetamine

 

Toxins:

-Aflatoxin

-Botulinus toxin

-Ricin

-Saxitoxin

-Trichothecene mycotoxin

Causes death through paralysis in extremely small concentrations

                         

 

   How Chemical Agents Can Be Weaponized

 

Chemical weapons use the toxic properties of chemical substances rather than their explosive properties to produce physical or physiological effects on an enemy.

 

Although instances of what might be styled as chemical weapons date to antiquity, much of the lore of chemical weapons as viewed today has its origins in World War I. During that conflict ÒgasÓ (actually an aerosol or vapor) was used effectively on numerous occasions by both sides to alter the outcome of battles. A significant number of battlefield casualties were sustained.

Development of chemical weapons in World War I was predominantly the adaptation of a chemical ÒfillÓ to a standard munitions. The Germans simply opened canisters of chlorine and let the prevailing winds do the dissemination. Shortly thereafter the French put phosgene in a projectile and this method became the principal means of delivery. In July 1917, the Germans employed mustard shells for the first time and simultaneously attempted to use a solid particulate emetic, diphenyl chloroarsine, as a mask breaker. Mustard, an insidious material, penetrates leather and fabrics and inflicts painful burns on the skin.

The chemicals employed before World War II can be styled as the ÒclassicalÓ chemical weapons. They are relatively simple substances, most of which were either common industrial chemicals or their derivatives. An example is phosgene, a choking agent (irritates the eyes and respiratory tract). Phosgene is important in industry as a chlorinating material.  The second example is hydrogen cyanide, a so-called blood agent (prevents transfer to oxygen to the tissues), now is used worldwide in the manufacture of acrylic polymers.

Mental incapacitants are predominantly glycolates, whereas some of the more potent candidates for physical incapacitants have come from research on improved anesthetics. Indeed, almost all potential incapacitants are byproducts of the pharmaceutical industry and have legitimate pharmaceutical uses. The defining technologies for such incapacitating weapons, then, are the production of a physiologically effective compound in greater than practical pharmaceutical quantities and incorporation of the material in weapons. It is probable that the physical state of an incapacitant will be a particulate solid and that the practical route for effective use is by inhalation.

In our everyday life we are surrounded by a great number of chemicals, pesticides chemical agents. Even when we cook or wash clothes, draw or wash up, grow flowers or clean our homes. The more we use chemical, the more we pollute environment: water, soil, air, sometimes ourselves. Definite amount of chemicals and pesticides cause harm to all living being on our planet.

 

A Historical Example of the Use of Chemical Weapons

 

Firstly chemical agents were used as warfare agents on April 22, 1915 by the Germans in the First World War in the battle against the French. It was oily-looking substance, which inflicted painful burns and blisters requiring medical attention even at a low doses. It was chlorine gas. The Germans used it at Ypres in Belgium and after that it got its name (iprit).

In most cases it damaged to the respiratory system. Six thousand soldiers died at once or very quickly, 15 thousand victims were incapacitated.

 

In 1914-1918 125 ton of chemical munitions were used on battlefields.

 

The Japanese cult Aum Shinrikyo used nerve chemical gas GB (Sarin) in Tokyo Underground for deterrence and to cause chaos, to murder people in 1995.

 

In the Iran-Iraq war (1982-1987) chemical weapons were used by Iraq to blunt Iranian human wave attacks.                                

 

 

 

                                                        BENCHMARK I

                                           Part 5

                 Bibliography:

1)Laqueur, W. ÒPost-modern TerrorismÓ Foreign Affairs September/October (1996)

2)Hoffmann, B. Inside Terrorism.....

3)Resolution 52/164 of the United Nations general Assembly, adopted on Dec.15, 1997

4)Dictionary of Military and Associated Terms, entry under Weapons of Mass Destruction, found at http://www.dtic.mil/doctrine/jel/doddict/data/w/06784.html

5)Kostrov, A.M. ÒCivil DefenseÓ (Moscow,ÓProsvescheniyeÓ, 1991)

6)Chernogorova, V. ÒTalks About NucleusÓ (Young Guard, 1976)

7)Myakishev,G.; Bukhovtsev, B. School-book on Physics for 11-graders (Moscow, ÒProsvescheniyeÓ, 2000)

8)Shalynets, A.; Fadeev,G. ÒRadioactive AgentsÓ (Moscow, ÒProsvescheniyeÓ, 1981)

9)Pokrovsky, A. ÒDemonstrative Experiments in Physics ClassesÓ (Moscow, ÒProsvescheniyeÓ, 1989)

10)RF PresidentÕs Decree (Edict) of November 30, 1995; # 1203)

11)Criminal Code of RF, art.355

12)The Federal Law # 183 (July 18, 1999) ÒAbout Export ControlÓ

13)ÓDefense from WMDÓ (officerÕs table-book, Moscow, Voenizdat, 1985)

14)Timeline ÒThe Years of DiscoveryÓ found at http://www.nuclearfiles.org/discovery.html

15)School-book on History for 10-graders (Moscow, ÒProsvescheniyeÓ, 1999)

16)Article ÒBiological Warfare AgentsÓ found at http://www.nuclearfiles.org/WMD411/biological warfare agents

 

 

                Abbreviations:

 BRM     biological response modifiers

 BW       biological weapons

 BWC    Biological Weapons Convention

 CBW    chemical and biological weapons

 CTBT   Comprehensive Test Ban Treaty

 CW       chemical weapons

 CWC    Chemical Weapons Convention

 DOE     U.S. Department of Energy

 D-T       deuterium and tritium gas

 ER        enhanced radiation

 HE        high explosives

 HEU     highly enriched uranium

 IAEA    International Atomic Energy Agency

 GB       Great Britain

 Li         lithium

 NATO  North Atlantic Treaty Organization

 NBC     nuclear, biological and chemical

 NPT     Treaty on the Non-Proliferation of Nuclear Weapons

 NRBC  nuclear, radiological, biological and chemical (weapons)

 NW      nuclear weapons

 RF        Russian Federation

 U          uranium

 UN       United Nations

 U.S.      United States (of America)

 VEE     Venezuelan equine encephalitis