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G.T Brooks
Chlorinated Insecticides
Chlorinated Insecticides
Volume I
Technology and Application
G.T Brooks
ISBN 978-1-138-55045-2
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www.crcpress.com
Chlorinated
Insecticides
Volume I
Technology and Application
Author:
G. T. Brooks
The University of Sussex
Brighton, Sussex
England
First published 1974 by CRC Press
Taylor & Francis Group
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PESTICIDE CHEMISTRY SERIES - PREFACE
The literature on pesticides is voluminous, but scattered among dozens of journals and
texts written or edited by experts. Until now, with the publication of Chlorinated
Insecticides by G. T. Brooks, there has been no attempt to produce a single,
comprehensive series on the chemistry of pesticides. CRC Press should be commended for
having undertaken this Herculean task.
When asked by the publisher to serve as editor of the Pesticide Chemistry Series, I
discussed the idea with some of my colleagues at the International Pesticide Congress in
Tel Aviv in 1971. At that time, Dr. Brooks enthusiastically agreed to become the author
of the treatise on chlorinated insecticides, which became such a comprehensive work that
it is being published in two volumes.
As editor of this series, my goal has been choosing experts in their respective fields
who would be willing to write single-authored books, thus assuring uniformity of style
and thought for the individual text as well as the entire series. I would like to express my
deep appreciation to each author for having undertaken the large task of writing in such a
comprehensive manner without the aid of contributors or an editorial board.
Chlorinated Insecticides is the first contribution to this series; subsequent volumes
under preparation will appear in the near future under titles such as Organophosphate
Pesticides; Herbicides; and Fungicides. Looking into the future, we plan to include books
on the chemistry of juvenile hormones and pheromones. Suggestions on other titles and
possible authors are invited from the reader.
Gunter Zweig
Editor
Pesticide Chemistry Series
THE AUTHOR
TABLE OF CONTENTS
Chapter 1
I n tr o d u c tio n ....................................................................................................................................................... 4
Chapter 2
Chlorinated Insecticides of the DDT Group ....................................................................................................7
A. History and D e v elo p m e n t.......................................................................................................................... 7
1. Origins and Applications in World War II ........................................................................................7
2. Development of Application Methods ........................................................................................ 18
a. As Sprays, Dusts, Emulsions, etc.............................................................................................18
b. More Durable F o rm u la tio n s................................................................................................22
3. Applications in Pest Control ........................................................................................................26
a. Toxicity to Plants and Beneficial I n s e c ts ............................................................................26
b. Agricultural A p p lic a tio n s....................................................................................................28
c. Public Health, Veterinary, and Other Applications ........................................................ 35
d. Current Status of D D T ........................................................................................................39
B. Synthesis, Physical, and Chemical P r o p e r tie s ........................................................................................46
1. General Synthetic Routes ............................................................................................................. 46
2. Technical Materials and Physical P r o p e r tie s ................................................................................52
3. Constitution and C hem istry............................................................................................................59
C. Principles of A n a ly sis................................................................................................................................68
L Gravimetric, Total Chlorine, Colorimetric A n a ly s is ..................................................................... 68
2. Spectrophotometry, Polarography, Isotope T e c h n iq u e s ............................................................ 73
3. Analysis and Structure Determination of Organochlorines by Chromatography, NMR, and Mass
Spectrometry...................................................................................................................................... 77
a. Column, Paper, Thin-layer, and Gas-liquid Chromatography ........................................ 77
b. Modern Physical M e th o d s ....................................................................................................82
4. B io a ssa y ............................................................................................................................................ 83
Chapter 3
Insecticides of the Diene-organochlorine Group ........................................................................................85
A. Introduction ........................................................................................................................................... 85
1. The Diels-Alder R e a c tio n ................................................................................................................85
2. The Nomenclature of Cyclodiene In se c tic id e s............................................................................ 87
B. Synthesis and Chemistry ....................................................................................................................... 99
1. Hexachlorocyclopentadiene and Its Self-condensation products; Chlordecone (Kepone®),
Despirol®, Mirex, and P e n t a c ® ....................................................................................................99
2. The Diels-Alder Reaction with Hexachlorocyclopentadiene and Its R e la tiv e s ...................... 105
a. Alodan®, Endosulfan, Isobenzan, Heptachlor, Chlordane, and A n a lo g u e s.................. 105
b. Aldrin, Dieldrin, Isodrin, Endrin, and Related C o m p o u n d s .......................................... 113
3. Synthesis of Radiolabeled C y c lo d ie n e s............................ 117
4. Constitution and Chemical Reactions of C y c lo d ie n e s.............................................................. 123
a. Configuration of the Ring S y s t e m s .................................................................................. 123
b. Heptachlor, Chlordane, and Related Compounds .......................................................... 124
c. Isobenzan and E n dosulfan.................................................................................................. 131
d. Aldrin and Dieldrin .......................................................................................................... 132
e. Isodrin and E n d r i n ..............................................................................................................136
C. History and Development of the Commercial Cyclodiene Insecticides............................................. 140
1. Chlordane and Heptachlor .......................................................................................................... 140
a. Origins, Physical Properties, and Formulations ...............................................................141
b. Applications in Agriculture and PublicHealth ................................................................ 151
c. Principles of A n a y lsis...........................................................................................................155
2. Endosulfan and Isobenzan .......................................................................................................... 158
a. Origins and Physical P ro p e rtie s.................................................................... 158
b. Applications of Endosulfan .............................................................................................. 159
c. Analysis of E n d o s u lfa n ...................................................................................................... 160
3. Aldrin, Dieldrin, Isodrin, and E n d r i n ...........................................................................................161
a. Origins and Physical P ro p e rtie s.......................................................................................... 161
b. Formulations and Early E v a lu a tio n .................................................................................. 166
c. Applications in Agriculture and Against Pests Affecting Man and A n im a ls .................. 171
d. Principles of A n a ly sis...........................................................................................................176
e. Current Status of Aldrin, Dieldrin andEndrin ................................................................ 178
4. Applications of Chlordecone (Kepone), Mirex,and P e n t a c ........................................................ 182
Chapter 4
Gamma-l,2,3,4,5,6,-Hexachlorocyclohexane ............................................................................................ 185
A. Origins, Preparation and PhysicalProperties ......................................................................................185
1. Applications in Agriculture and Against Pests AffectingMan and Animals ............................ 192
2. Stereochemistry, Constitution and R e a c tio n ...............................................................................196
3. A n a ly s is .......................................................................................................................................... 202
Chapter 5
Polychloroterpene Insecticides [Toxaphene] .............................................................................................. 205
A. Origins, Preparation, Physical P ro p e r tie s .............................................................................................. 205
B. Applications in Agricultural and Against Insects Affecting Man and A n im a ls................................ 207
C. Analysis ....................................... 210
This definitive and most detailed work ever to (along with some of their metabolic products),
have been published, devoted exclusively to the they appear to have endangered the survival of
chemistry and biology of chlorinated insecticides, certain species of predatory birds whose diets are
comes from the authoritative pen of a leading restricted to animals which store the chlorinated
investigator in this field. It should serve for many insecticides of their derivatives in their tissues.
years to come as the prime reference source both Such findings, along with some oncological studies
for instructional and research purposes, for it not of more or less questionable applicability to
only delineates that which is known about this humans, have prompted official departments of
valuable class of compounds, but also emphasizes public health in some countries to proscribe the
those important biological and ecological areas in chlorinated insecticides for all uses. In this
which our knowledge is still much too sketchy and situation, it behooves investigators to keep the
in which further investigation may be expected to shelves of their stockrooms well filled with
uncover facts of great interest and wide supplies of these compounds for possible experi
applicability. mental use, against the day when some of them
In a way, it is ironic that this excellent treatise may no longer be available on the market.
should appear at a time that seems to mark the The extension of programs currently required
twilight of the various uses of the chlorinated for the biological screening of new insecticide
insecticides. It is not that they have been super candidates has made this sort of research so
seded by some other class or classes of chemicals expensive that even the wealthiest manufacturers
that have proved themselves cheaper or more are now seriously considering abandoning the
effective. Quite the contrary; the cost effectiveness search for new insecticides as economically un
of the chlorinated insecticides has remained un rewarding. Further advances in the field of pest
equaled since their introduction some three control in agriculture and public health will then
decades ago. Neither is it because the amounts of depend, to an even greater extent, upon the
insecticide required are, from an agricultural or interest of governmental agencies and upon univer
public health standpoint, so very great. Indeed, the sity laboratories. These, however, must consider
very hallmark of the chlorinated insecticides, the shrinking purchasing power of their budgets
which characterized them originally as wonder and the concomitant inevitable expansion of their
chemicals, was the unbelievably small amounts involvement in other interests. The upshot is that
needed over a given area to effect complete the outlook at the moment for effective insect
control of insect pests. It is the very persistence of pest control is bleak. Thus, once again, shallow, if
trace quantities of this class of chemicals that has well-intentioned clamor threatens to do great harm
been seized upon by some environmentalists as to national economies and to impressive public
ammunition in their war to eliminate totally, for health advances.
whatever use, all chlorinated insecticides, which, Yet, despite the gloomy picture of the moment,
but a comparatively few years ago, were lauded as a more balanced attitude toward the chlorinated
the saviors of a hungry and disease-ridden insecticides may eventually prevail. Meanwhile, it
humanity. Participants in these activities should should be of benefit to the chemist and biologist
observe the impact of the current world grain to keep up-to-date on all that has been done (and
shortage on food prices and consider the vital role omitted) in this field. For, once the mode of
of well-proven control chemicals for cereal pests in biological activity of these compounds is more
balancing an increasingly precarious food supply in fully elucidated, it would seem quite likely that
our favor. new types of chlorinated insecticides and, indeed,
By and large, the chlorinated insecticides have related structural types lacking chlorine may be
not been shown to have produced any symptoms devised, which will combine price effectiveness
of chronic toxicity in the general public. However with environmental acceptability.
Julius Hyman
Berkeley, California
1
PREFACE
It is now nearly 23 years since the publication since resistance represents a failure of applications.
of the second and revised edition of the book by Accordingly, it is emphasized that the division is
West and Campbell entitled DDT: The Synthetic merely one of convenience and the two parts are
Insecticide. Since then, although numerous texts to be regarded as a single entity dealing with the
have included sections on various aspects of science of chlorinated insecticides.
chlorinated insecticide technology and biology, While the chemistry of DDT analogues is
there has been no publication that has attempted reasonably straightforward, that of the cyclodiene
to treat the subject as a whole, in spite of all that insecticides is unfortunately more complicated and
has been achieved by the use of these compounds a different order of presentation has been adopted
and all that has been said about them in the for them. Thus, sections on the stereochemistry of
controversial atmosphere of recent years. This the Diels-Alder reaction and on the nomenclature
two-volume book makes some attempt to fill the of cyclodienes have been included in Volume I in
gap, although it does not deal with the chlorinated an attempt to clarify some of the more difficult
hydrocarbons used as fumigants. points, this and other basic information being
The task of writing about chlorinated insec presented before the history and use aspects.
ticides is a truly formidable one, since the amount
The development of insect resistance to organo-
of literature on the chemistry of these compounds
and their effects, real or imaginary, on living chl orine insecticides is an interesting and
organisms has grown phenomenally in recent important part of their history and accordingly has
years. While there is a clear need to present the been discussed in some detail in Volume II. All
rem aining aspects of their environmental
complicated science of these chemicals in an
behaviour are conveniently treated in Volume II
understandable fashion, attempts to do so usually
under “action,” dealing with topics ranging from
result in misleading and dangerous oversimplifica
biodynamics, through biochemical interactions, to
tions and generalizations. Thus, a statement such
mechanism of action. A final short section in that
as “ this chlorinated insecticide fed to rats in the
volume deals with some general matters, including
diet produces liver damage” is totally meaningless
current arrangements for regulating pesticide
without details of the level and duration of the
residues in food.
feeding. Likewise, a text without adequate
references is of little value because the reader is Since the combined volumes are intended to be
often unable to properly distinguish between what of use to those whose interests are historical or in
is actually in the scientific literature and what is applications, as well as to chemists, toxicologists,
the opinion of the author. This area above all is and resistance geneticists, some parts are inevitably
one in which those who are interested should, if more readable than others. If readers from any one
they wish, have access to the original work in of these areas are so much as tempted to examine
order to make their own judgments. Accordingly, one or more of the others, then the book will have
the levels of treatments have been included when served a useful purpose.
ever possible, and the text is as fully referenced as The provision of copies of their books by Dr. T.
is feasible. F. West and Professor A. W. A. Brown is gratefully
The subject falls conveniently into one volume acknowledged, as also various items of information
dealing with chemistry and applications (techno furnished by Mr. J. A. Smith, Dr. R. F. Glasser,
logical aspects) and a second (biological and and colleagues of the Shell International Chemical
environmental aspects) which considers their inter Company, by Dr. P. B. Polen of the Velsicol
actions with living systems. However, rigid division Chemical Corporation, and by Dr. A. Calderbank
is neither easy nor entirely desirable, and there is of Jealott’s Hill Research Station, Imperial
inevitably some degree of overlapping between Chemical Industries, Plant Protection Limited. It is
those parts of the subject that can be treated from a pleasure to thank Dr. J. Robinson of Shell
several points of view. Thus, there is a relationship Research Limited, Tunstall laboratory and
between “ applications” in Volume I and “ develop Professor J. R. Busvine o f the London School of
ment of resistance in the field,” in Volume II, Hygiene, who kindly read various parts of the
2 Chlorinated Insecticides
manuscript, and Dr. C. T. Bedford, also of the Views or opinions expressed herein should not
Tunstall laboratory, for valuable discussions be taken to represent those of any official source,
relating to cyclodiene insecticide nomenclature. unless references are given.
G. T. Brooks
Brighton, England
3
Chapter 1
INTRODUCTION
There is a natural, but unfounded tendency to The origin of chemical insect control seems to
regard human life as being different from other be lost in antiquity. According to one source,1
forms in its degree of subjection to natural laws. It pyrethrum was introduced into Europe from the
is, of course, true that because of his varied skills, Far East by Marco Polo, and another authority
man is probably better able than many other states that the use of pyrethrum as an insecticide
species to survive in a hostile environment, but by certain Caucasian tribes was observed in the
beyond this, it needs to be pointed out rather early 19th century.2 Extracts of roots of plants of
forcibly that human life, like other forms, is a the Derris species have long been used by primitive
com plex equilibrium between processes of peoples as fish poisons, and it was suggested in
chemical synthesis and degradation that is 1848 that such extracts might be insecticidal.
supported by the continual intake of gaseous, Preparations from the plant sab adilla contain
liquid, and solid chemicals of all kinds from the veratrine alkaloids, and for centuries have been
external environment. There is no doubt that some used as insecticides by South American natives,
of these chemicals from natural sources (in the while the application of tobacco extracts (nicotine
food) have deleterious effects on life in the long alkaloids) as insecticides dates from the mid-18th
term and this is undoubtedly one reason why century.1 The general toxicity of alkaloids from
man’s allotted lifespan is 70 years rather than the South American plant Ryania speciosa has also
some much higher figure. been known for some time, but the insecticidal
To the scientist who, by his training, has properties were first reported in 1945. Various oils
become accustomed to thinking in chemical terms such as petroleum, kerosene, creosote, and
and whose work brings him into daily contact with turpentine came into use in the 18th Century, but
chemicals, the realization that members of the their use was limited due to phytotoxicity and
general p u b lic apparently have scarcely they were succeeded by highly refined oils for
appreciated the extent of their dependence on mulated as emulsions of low phytotoxicity.
chemistry for actual existence as well as for Several elements and their salts have had
comfortable survival comes as a considerable longstanding use as insecticides. Plinius is said to
shock. Viewed against the inevitability of human have recommended arsenic for this purpose in 70
involvement with chemicals, the popular objection A.D., and arsenic sulfide was used by the Chinese
to one particular group of toxic substances from in the 16th Century.3 Paris Green (a complex of
among the immense number to which humans and copper arsenite and copper acetate), calcium
other living organisms have undoubtedly been arsenate, and lead arsenate came into use in the
exposed over a long period of time seems almost 19th Century and a use was found for various salts
irrelevant. Nevertheless, the controversy surround of copper, zinc, thallium, chromium, lead,
ing the chlorinated insecticides has served to mercury and selenium, and cryolite (sodium
stimulate renewed interest in the relationship fluoaluminate). Some of these compounds are
between man and his environment. Furthermore, highly persistent and give rise to considerable
the ability to detect minute quantities of these residue hazards. Hydrogen cyanide was used
compounds has given warning of the way in which against scale insects by the year 1886 and dinitro-
stable, man-made materials can become distributed phenols as insecticides as early as 1892. Methyl
far beyond the spheres in which their use was bromide and carbon disulfide have been used for
originally intended. Since the effects of such many years and the use of naphthalene and
distributions cannot readily be predicted, it is p-dichlorobenzene dates from the beginning of the
clearly prudent to use materials having these 20th Century.1
properties with as much restraint as possible, but A few additional potential insecticides were
bearing in mind the benefits that accrue from their recognized in the 1930’s, but there seem to have
use in relation to the actual hazards so far been few developments of importance before the
established. appearance of DDT. World food supply comes
4 Chlorinated Insecticides
largely from cereal crops that require for their depending upon the number of difficulties en
protection chemicals having a significant degree of countered in the process.
persistence if economy in rates and frequency of It is sobering to read that in 1967 the ten best
application are to be achieved. Therefore, it seems selling insecticides had been introduced, on
a remarkable stroke of good fortune that within average, 17 years before and none of them within
little more than 10 years after 1939, a whole series the previous 10 years.6 In view of the hazards, it is
of chlorinated insecticides was discovered, and not surprising that manufacturers of insecticide
that several of them had the requisite properties chemicals, faced with the possibility that insect
for the efficient and economic protection of resistance to a successful new compound may
cereals, as well as collectively exhibiting an develop within a short time, are becoming increas
astonishing range of activity towards insect pests ingly reluctant to invest in this area. Yet chemical
of other crops and insect vectors of disease. pest control continues to play a vital role in the
Whether discoveries of this magnitude and value modern agricultural practices that nowadays
will occur again is open to speculation. In the produce crop yields unheard of 30 years ago. High
decade prior to 1967, the total pesticide industry yields are now quite vital for survival and there
research budget probably increased up to three will be a requirement for chemical agents in one
times over that in 1957, but fewer insecticides form or another for the foreseeable future.
were introduced than during the preceding decade.
With the ever-increasing restrictions placed upon While the object of progress is doubtless that
new compounds on environmental and other modern, comfortable man should have leisure to
grounds, the chances of achieving major sales and contemplate his situation and to devise even better
profits become much more difficult. This last and safer ways to maintain it, great care must be
factor can hardly be ignored, since research funds taken to ensure that short-sighted action does not
must be derived from the sale of previously nullify the benefits already won, especially if there
successful compounds. Figures published in 1969 is the added risk of destroying the machinery that
indicate that the average total investment in a created them in the first place and might
compound that finally reaches the market conceivably repeat the process. Thus, it is to be
(excluding the cost of developing manufacturing hoped that man will shortly come to terms with
processes, marketing, advertising, etc.) rose from his chemical origins so that some middle way can
$1,196,000 in 1956 to nearly $3 million in 1964, be found through the controversy that currently
and $4 million in 1969. The overall survival rate of surrounds the use of chemicals of all kinds.
compounds entering the complex evaluation pro The use of chlorinated insecticides should be
cedure fell correspondingly from 1 in 1,800 to 1 in viewed against this background. Whatever their
3,600 and finally to 1 in 5,040.4 Other figures shortcomings, and it is unlikely that any device
indicate even longer odds of 7,000—10,000:1.5 created by man will be perfect, the story of their
The time now required to bring a new compound discovery and development is one of outstanding
into commercial use is estimated at 5 to 7 years, achievement which deserves due recognition.
5
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21
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