Literary Analysis Final 11/9/2015
More interesting than the unique features insects possess is the development in the use of insect ecology as a weapon in modern warfare, from bee catapults to insect cyborgs and roboflies. We used these creatures as a tool and weapon until the Biological and Toxic Weapons Convention put a stop to using any living organisms as weapons in March of 1975. Over the following years, we have developed technology based off these insects, and for good reason; âa cockroach dashing along at 50 steps per second is the equivalent of a human running the high hurdles at 200 miles per hour.â (Lockwood, 292) Can we harness the unique abilities only certain insects hold? The better question is, how have we?
âHistory reveals an unholy trinity of strategiesâtransmission of pathogenic microbes, destruction of livestock and crops, and direct attacks on humansâthrough which six-legged soldiers have wreaked havoc on human society.â (Lockwood, I) It is assumed that insects were first used as weapons during the Upper Paleolithic period, 100,000 years ago. It would be another 90,000 years until we saw real progress though, with the discovery of the smoke sedative to bees, allowing hives to be transported easier â resulting in the use of âbee bombsâ between 1000 and 1300 BCE. A nest would be launched into battle resulting in swarms of angry bees and wasps ravaging the war field. (Lockwood, 10)
The Romans discovered that on average it only takes 27 wasp stings to kill an adult male, making these insects one of the first species captivated by man to deliver deadly toxins to an enemy, a historical landmark for biological warfare. Another early example of toxic warfare can be seen with the Sans people of Africa, the earliest inhabitants of Southern Africa, with a history stretching back 20,000 years. 1 Poisonous chrysomelid beetle larva were smeared on arrow heads, making them so deadly that a small animal would die in seconds, and larger animals like giraffes in a matter of hours.
One insect in particular, the Paederus beetle has sparked interest since the fifth century BCE. Found in Northern India, this beetle has one of the strongest natural poisons to man. Their venom, âis more powerful than the venom of the black widow spider, which is itself 15 times more potent than cobra venom.â (Lockwood, 31) The venom known by ancient Greeks as legendary became a topic of interest again when the Indian Defense Ministry began identifying natural chemical weapons derived from ancient texts in 2002. One of the most profound things about this chemical is the breakthroughs in cancer treatment research it has provided. Psymberin, an analogue of Pederin, âdisplays potent growth inhibition against numerous cancer cell lines.â (green, 53)
As Europe was on fire during WWI, insects made their mark on humanity through diseases and infection. Russians suffered six times as much death from insect plagued disease than those who died in battle, 2 typhus being the largest contributor. Lice also impacted the soldiers in the trenches, as they breed anywhere with a lack of hygiene and people living in close quarters, bringing these diseases to the battlefield.
Another carrier, the flea, reintroduced diseases such as the bubonic plague to war games around the WWII era. With its partner in crime, the house fly, this pair would be used by Japan in a serious of entomological warfare, spreading both the plague and cholera. The âmaggot bombingsâ of Yunnan and Shandong took more than 410,000 lives, twice the amount of death brought by the Hiroshima and Nagasaki bombings.3
Insects have proven again and again to be one of the most effective tools in warfare, especially in regards to becoming a bioweapon. How far should it be pushed? Is it morally right to infect huge populations of people using something so small that no one would notice? The first eight articles of the agreement within the Biological and Toxin Weapons Convention (BTWC) outline the ban on toxic weapons as means of warfare.4 In March of 1975, the rules went into force, and the United States joined in with the passing of the Bioweapons Anti-Terrorism Act in 1989.
The Korean War provides another recent example of entomological warfare. Research began on a variety of insects to create disease vectors, with the possibility to wipe out massive populations â focusing on mosquitos, ticks, mites, lice, fleas, and flies. In the years to follow, China and North Korea would accuse the United States of entomological warfare and spreading disease. Those accusations would also end in a cycle of false alarms and investigations, with a counterattack on communism â fueling war tempers (Lockwood, 167)
Another aspect of the insect can make or break a nation at war, the herbivorous insects. Take a plant eating insect, infect it with disease, sprinkle it on enemy crops, and watch as food shortages and economy collapse kick in. Americans dropped thousands of Colorado potato beetles during world war two, and again with the sap-sucking leafhopper in the Cold War against Castroâs crops (Lockwood, 210)
Today, we should be living in a world free of the use of insect ecology within warfare. Thatâs only half the case.
Move forward a few years to the post â 9/11 wars, and you can see yet another use of insects in the field â this time on the defensive side. A unique ability to sense substances on a heightened level can be seen across a wide variety of species. Jake Kosekâs Ecologies of Empire: On the New Uses of the Honeybee expresses the transformation of the honeybee in becoming a military tool, allowing them to function as new-age âsnifferâ animals. Describing their strength, Kosek says, âWith military grade TNT, this tongue response is 99 percent accurate.â (Kosek, 660) Alternate tests proved the honeybee to be an exceptional tool in detecting substances in a given area. While theyâre purpose was to test for radionuclides, plutonium, and uranium â the application of the beeâs sensing abilities exceed that. The bees are able to provide a collection of data from chemicals in an ecosystem through gathering of pollen and returning it to the hive. Tests can then be done on the honey to see exactly what was in the area that it was collected in.
âMad Honeyâ was the product of what happens when you put bees in an area with poisonous and psychoactive plants. The honey is really a product of grayanotoxin from rhododendron and scopolamine from belladonna, but since the bees carried the chemicals that are active in miniscule doses back, Romans and Greeks considered the honey cursed by Medea, âa mythical sorceress known for her powerful poisonsâ (Lockwood, 32)
One of the biggest problems training the bees were that they are disobedient, they wonât fly past the fruit to smell the bomb. A researcher out of Iowa State University decided to get rid of the insect all together and just use the piece he wanted; the antennae, creating an âinsectan cyborg for locating land minesâ (Lockwood, 288) The tests resulted in failure, as a unique response to elements such as TNT could not be found.
Where are we today? The Defense Advanced Research Projects Agency (DARPA) is the leading agency in the militarization of insect ecologies. We have created the roboflies and spy insects of science fiction. We CAN be a fly on the wall. The Micro Autonomous Systems and Technology (MAST) program out of the Army Research Laboratory reported to have created tiny drones such as this in a FOX news release.5 Steven N. Fry writes that we have successfully reverse engineered the fruit fly based on speed responses to finally craft high-level flight control in micro-air vehicles (MAV).6
We have also made breakthroughs in the âscurryâ of insects, modelling our land-based robotics off of the one creature known to live through it all; the cockroach. The study led to the development of the very first articulated robotic hexapod.
What will come out of todayâs investments in this technology? We can see the development as a means of surveillance, but who would be able to stop this technology from getting into the wrong hands? Imagine a fruit fly with enough venom to take down an army, or an entire war fought through swarms of mechanical fury. We step forward into a new age of entomological warfare, one without the use of insects at all. We model our war machines on these creatures, taking only their deadliest abilities, and in turn have continued the barred practice off the insect ecology in modern warfare.
    As a child, we hear stories like the one of the princess and the pea. No matter how many mattresses, the discomfort can be felt â all stemming from this miniscule thing. When I think of the unique features held by insects, I canât help but associate that story into the recreation of the insectâs deadly weapons â something so small and seemingly harmless can create problems larger than us. More interesting is the development in the use of insect ecology as a weapon in modern warfare, from bee catapults to insect cyborgs and roboflies. Creatures so small can have some of the largest implications to human health ever recorded, so what better than to model our systems of death and war around them? We used these creatures as a tool and weapon until the Biological and Toxic Weapons Convention put a stop to using any living organisms as weapons in March of 1975. Over the following years, we have developed technology based off these insects, and for good reason; âa cockroach dashing along at 50 steps per second is the equivalent of a human running the high hurdles at 200 miles per hour.â (Lockwood, 292) Can we harness the unique abilities only certain insects hold? The better question is, how have we?
    âHistory reveals an unholy trinity of strategiesâtransmission of pathogenic microbes, destruction of livestock and crops, and direct attacks on humansâthrough which six-legged soldiers have wreaked havoc on human society.â (Lockwood, I) It is assumed that insects were first used as weapons during the Upper Paleolithic period, 100,000 years ago when man first started to throw inanimate objects. It would be another 90,000 years until we saw real progress though, with the discovery of the smoke sedative to bees, allowing hives to be transported easier â resulting in the use of âbee bombsâ between 1000 and 1300 BCE. A nest would be launched into battle resulting in swarms of angry bees and wasps ravaging the war field. (Lockwood, 10) It really is terrifying to think about, that is being caught in this swarm â or a mist â of buzzing and stings until eventually your body succumbs to the sedative effects of the sting and you fade.
     The Romans discovered that on average it only takes 27 wasp stings to kill an adult male, making these insects one of the first species captivated by man to deliver deadly toxins to an enemy, a historical landmark for biological warfare. Another early example of toxic warfare can be seen with the Sans people of Africa, the earliest inhabitants of Southern Africa, with a history stretching back 20,000 years.[1] Poisonous chrysomelid beetle larva were smeared on arrow heads, making them so deadly that a small animal would die in seconds, and larger animals like giraffes in a matter of hours.
    One beetle in particular, the Paederus beetle has sparked interest since the fifth century BCE. Found in Northern India, this beetle has one of the strongest natural poisons to man. Their venom, âis more powerful than the venom of the black widow spider, which is itself 15 times more potent than cobra venom.â (Lockwood, 31) Known by ancient Greeks as legendary, the venom became a topic of interest again when the Indian Defense Ministry began identifying natural chemical weapons derived from ancient texts in 2002. One of the most profound things about this chemical however, is the breakthroughs in cancer treatment research it has provided. Psymberin, an analogue of Pederin, âdisplays potent growth inhibition against numerous cancer cell lines.â (Green, 53) Even a slightly higher dose (counted by the hundred thousandth of a gram) can cause immensely painful and festering lesions.
    As Europe was on fire during WWI, insects made their mark on humanity through diseases and infection. Russians suffered six times as much death from insect plagued disease than those who died in battle[2], typhus being the largest contributor. Lice also impacted the soldiers in the trenches, as they breed anywhere with a lack of hygiene and people living in close quarters, bringing these diseases to the battlefield.
    Another carrier, the flea, reintroduced diseases such as the bubonic plague to war games around the WWII era. With its partner in crime, the house fly, this pair would be used by Japan in a serious of entomological warfare, spreading both the plague and cholera. The âmaggot bombingsâ of Yunnan and Shandong took more than 410,000 lives, twice the amount of death brought by the Hiroshima and Nagasaki bombings.[3]
    Insects have proven again and again to be one of the most effective tools in warfare, especially in regards to becoming a bioweapon. How far should it be pushed? Is it morally right to infect huge populations of people using something so small that no one would notice? The first eight articles of the agreement within the Biological and Toxin Weapons Convention (BTWC) outline the ban on toxic weapons as means of warfare.[4] the convention was brought together to âban the development, production, stockpiling, acquisition and retention of microbial or other biological agents or toxinsâ and in March of 1975, the rules went into force â the United States joining in with the passing of the Bioweapons Anti-Terrorism Act in 1989.
    The Korean War provides another recent example of entomological warfare. Research began on a variety of insects to create disease vectors, with the possibility to wipe out massive populations â focusing on mosquitos, ticks, mites, lice, fleas, and flies. In the years to follow, China and North Korea would accuse the United States of entomological warfare and spreading disease. Those accusations would also end in a cycle of false alarms and investigations, with a counterattack on communism â fueling war tempers (Lockwood, 167)
    Another aspect of the insect can make or break a nation at war; the herbivorous insects. Take a plant eating insect, infect it with disease, sprinkle it on enemy crops, and watch as food shortages kick in. Americans dropped thousands of Colorado potato beetles during WWII, and again with the sap-sucking leafhopper in the Cold War against Castroâs crops.
    Eastern Germany often accused the United States of trying to start an âeconomic collapseâ due to the sheer effectiveness of the Colorado potato beetle in destroying food crops. To put the beetle in perspective, the United Nations had to weigh in, claiming that it brings so much damage that up to 80 percent of a crop is guaranteed to fall â and to continue its use would wreak long term havoc. (Lockwood, 136) On a national scale, food shortages can be felt, eventually resulting in an economic collapse due to shortage of agricultural exports. Itâs important to remember that without food, there wouldnât be anything left for the latter insects to spread disease to.
    We should be living in a world free of the use of insect ecology within warfare after the BTWC ban on these kinds of weapons. However, thatâs not exactly how things play out.
    Move forward a few years to the post â 9/11 wars, and you can see yet another use of insects in the field â this time on the defensive side. A unique ability to sense substances on a heightened level can be seen across a wide variety of species. Jake Kosekâs Ecologies of Empire: On the New Uses of the Honeybee expresses the transformation of the honeybee in becoming a military tool, allowing them to function as new-age âsnifferâ animals. Describing their strength, Kosek says, âWith military grade TNT, this tongue response is 99 percent accurate.â (Kosek, 660) Alternate tests proved the honeybee to be an exceptional tool in detecting substances in a given area. While theyâre purpose was to test for radionuclides, plutonium, and uranium â the application of the beeâs sensing abilities exceed that. The bees are able to provide a collection of data from chemicals in an ecosystem through gathering of pollen and returning it to the hive. Tests can then be done on the honey to see exactly what was in the area that it was collected in.
    Not only do bees pick up the manmade elements in nature, but also natural ones, including âMad Honeyâ (known to the Romans and Greeks as cursed honey by Medea, âa mythical sorceress known for her powerful poisonsâ (Lockwood, 32) The honey was the product of bees in an area with poisonous and psychoactive plants. The honey is really a product of grayanotoxin from rhododendron and scopolamine from belladonna. Itâs this ability that made bees such an amazing sentinel species.
    One of the biggest problems training the bees were that they are disobedient, they wonât fly past the fruit to smell the bomb. A researcher out of Iowa State University decided to get rid of the insect all together and just use the piece he wanted; the antennae, creating an âinsectan cyborg for locating land minesâ (Lockwood, 288) The tests resulted in failure, as a unique response to elements such as TNT could not be found.
    Where are we today? The Defense Advanced Research Projects Agency (DARPA) is the leading agency in the militarization of insect ecologies. We have created the roboflies and spy insects of science fiction. We CAN be a fly on the wall. The Micro Autonomous Systems and Technology (MAST) program out of the Army Research Laboratory reported to have created tiny drones such as this in a FOX news release.[5] Steven N. Fry writes that we have successfully reverse engineered the fruit fly based on speed responses to finally craft high-level flight control in micro-air vehicles (MAV).[6]
    We have also made breakthroughs in the âscurryâ of insects, modelling our land-based robotics off of the one creature known to live through it all; the cockroach. The study led to the development of the very first articulated robotic hexapod, or the first six-legged, walking robot.
    What will come out of todayâs investments in this technology? We can see the development as a means of surveillance, but who would be able to stop this technology from getting into the wrong hands? Imagine a fruit fly with enough venom to take down an army, or an entire war fought through swarms of mechanical fury. We step forward into a new age of entomological warfare, one without the use of insects at all. We model our war machines on these creatures, taking only their deadliest abilities, and in turn have continued the barred practice off the insect ecology in modern warfare.
[1] South African History Online. "The San." South African History Online. N.p., n.d. Web. 02 Nov. 2015. <http://www.sahistory.org.za/people-south-africa/san>.
[2] Tschanz, âTyphus Fever on the Eastern Front in World War Iâ; and Robert K. D. Peterson, âInsects, Disease, and Military History,â American Entomologist, 41 (1995):147â160.
[3] "Campaign for Nuclear Disarmament." The Bombing of Hiroshima and Nagasaki. N.p., n.d. Web. 02 Nov. 2015. <http://cnduk.org/campaigns/global-abolition/hiroshima-a-nagasaki>.
[4] "CONVENTION ON THE PROHIBITION OF THE DEVELOPMENT, PRODUCTION AND STOCKPILING OF BACTERIOLOGICAL (BIOLOGICAL) AND TOXIN WEAPONS AND ON THEIR DESTRUCTION." BIOLOGICAL WEAPONS CONVENTION. N.p., n.d. Web. 03 Nov. 2015. <http://fas.org/nuke/control/bwc/text/bwc.htm>.
[5] Barrie, Allison. âInsects Inspire Military Mini Drones.â Fox News. FOX News Network, 18 Sept. 2014. Web. 01 Oct. 2015. <http://www.foxnews.com/tech/2014/09/18/insects-inspire-military-mini-drones/>
[6] Fry, Steven N. "Experimental Approaches Toward a Functional Understanding of Insect Fl." Springer Berlin Heidelberg, n.d. Web. 04 Nov. 2015. <http://link.springer.com/chapter/10.1007/978-3-540-89393-6_1>.
Lockwood, Jeffrey Alan. Six-legged Soldiers: Using Insects as Weapons of War. Oxford: Oxford UP, 2009. Print.
Kosek, Jake Ecologies of Empire: On the New Uses of the Honeybee, 2006. Print.
peer review partner: Xiomara (Z)
One of the SLOâs I really wanted to accomplish by the end of this was writing as a social act. I specifically picked this one apart when looking at the herbivorous insects used during the Cold War and near the end of WWII. The local issue was obviously the creatures that were devouring crops, but take a step further back and you can see the social implications of the attack. I looked into the subject a little more to show the international feelings on the issue, and the implications on a national level (lack of food and economic collapse). Z, (my peer reviewer) also felt that I lacked in the description of the Colorado potato beetle, so I decided to beef it up and make it address the SLO mentioned above.
Another point she brought up is that I needed to work on some of the transitions [specific example in the paragraphs about bees and âmad honeyâ]. The way I had it phrased before made it seem like a random fact I threw in when I was trying to demonstrate the capability they have to pick up chemicals. I think my re-phrasing cleared that issue up.
This really brings in the Grammar and Usage SLO. I know that sometimes I write too fast or donât think about what Iâm putting down and think back to myself, âthereâs no way I wrote thisâ because of how confusing it turns out. I really wanted to lay it out clearly this time. Having read it 10 times, plus a peer review and âfamilyâ review, I feel I cleared this one.
The research SLO was probably my biggest struggle with this project though. This was something that really intrigued me since we talked about bees being a sentinel species, but we never talked about. The majority of this paper was finding the material to add to it because we never really discussed insect ecology as a means of warfare, except through Kosekâs bees. Everything I had to find on my own, including the 300 page piece by Lockwood that I read in its entirety as my main puller for the project. Biological warfare was a heavy topic within mine so I had to get a basic knowledge of how all that works, on top of having to look up cancer relieving benefits of the Indian beetles, and etc. etc. Really it was the hardest because I knew nothing about it beforehand, but I do have to say, with the help of library.unm.edu and google scholar, I was able to only pull from reliable sources, making my life way easier.