This is a guest post by Dr. Laurel Haavik, post-doctoral researcher in the Department of Entomology at The Ohio State University.

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I am a post-doc. I’ve been one for nearly six years. Like many other post-docs, I have been working for over a decade towards my goal: a tenure-track position at a research-intensive academic institution. I enjoy research and teaching, and so a career including both seemed like a logical pursuit. I must be good enough to succeed in this pursuit, otherwise someone would have told me to opt for a different path by now. After all, only a small percentage of Ph.D.s actually become professors. I must be pretty close to achieving this goal, because lately I’ve had several interviews – no offers yet. By now, most of my peers have secured permanent positions, although some have gone on different paths. It must be my turn soon. I had faith in the system; confidence in myself.

Earlier this summer, I was invited to give a talk at a conference, in a session on women in science. I accepted willingly; the subject seemed challenging and relevant. As I began to prepare, I realized I knew nothing about it. So, I did what any scientist would do: I turned to the primary literature on women in science. What I found changed my whole perspective on academia, my career, and most importantly: my life.

I learned that the tenure system is outdated, and filters out many creative and talented people. It was established ca. 1940, when those entering academic careers were mostly men. Assistant professors were expected to live on campus, and work intensively, around-the-clock, on establishing themselves until achieving tenure. Sounds a lot like graduate school, or a post-doc, doesn’t it? There’s not much room in that scenario for having a life outside of this pursuit. It turns out that not much has changed about this in the intervening 70+ years. To make it worse, there are now few jobs and too many of us with graduate degrees competing to fill them. It turns out that women, more often than men, are willing to forgo their academic dreams because of this ridiculousness, in favor of something better – probably a happier life. It seems that there are two issues. One: is it even possible? Women are confronted with the complications of basic biology at the very same time as they would be embarking on a demanding academic career. Most of us are well into our thirties, near the end of our child-bearing years, by the time we’re on the job search. Two: they’re exhausted, wondering if an academic career is akin to never-ending graduate school. In the academic atmosphere, there is intense pressure to do more; for example, publish or perish, fund or famish. Talent and creativity that science badly needs is undoubtedly lost as women and men continue to opt out of this outdated system, and for very reasonable grounds.

I took a long, hard look at my career so far. I’m on my third post-doc. I’ve had two failed relationships and a third that might not make it if I have to move again. I’m not married. I don’t have children. I’m in my mid-thirties, meaning that if I want to have children, I better get situated and do it soon. Maybe academia isn’t for me after all, even though my interests, teaching and research, are so well-aligned with the academic mission. I realized that my adult life so far, 90% career and 10% life outside of work, is a direct product of what I like to call our broken academic system. We need to better understand and voice our discontent with the broken academic system, or it won’t change.

I wondered if others feel the same way. In my field, had others thought of leaving science? And if so, why? Has the disparity in numbers of women and men graduates vs. those occupying professional positions actually changed in recent decades? Most importantly, what allows people to cope with such a rigorous career? I’ve been lucky to have had some great mentors, support from my family, and support and encouragement from the scientific community in my field. Have others had the same kinds of emotional support systems?

My study pursues these questions among three related fields: Forestry, Entomology, and Forest Entomology. In all three of these fields women are not historically well-represented, but this has changed in recent years, especially in Entomology. There are still few women in Forestry. Forest Entomology is a small field with a very inter-connected community, which I hope will provide an interesting contrast to its two larger, sister fields.

Please follow the link below to participate in my study, by completing my survey.

I invite men and women at all stages in their careers, as well as those who are no longer in science, to participate. Please forward this invitation to anyone you know who is no longer in science, but completed graduate school (M.S. or Ph.D.). The results of this study will be published in the primary literature.

Please follow the link below to complete the brief, 28-question survey by September 30, 2015

https://www.surveymonkey.com/r/forestry-entomology

It may take 10-15 minutes to complete. I apologize for any cross-posting of this survey. No personal identifying information will be collected as part of the survey, and your participation will be completely anonymous. Answering questions in the survey will indicate consent. Participation is voluntary and you may withdraw at any time without penalty, and there are no incentives to participate. Participation will have no effect upon your relationship with the Entomological Society of Canada. This study has been determined Exempt from IRB review.

Please contact me if I can provide any additional information regarding the aims of or your participation in the survey (Laurel Haavik, 479-422-4997, haavik.1@osu.edu). For questions about your rights as a participant in this study or to discuss other study-related concerns or complaints with someone who is not part of the research team, you may contact Ms. Sandra Meadows in the Office of Responsible Research Practices at 1-800-678-6251 or hsconcerns@osu.edu.

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Next September, the largest-ever scientific meeting of entomologists will take place at the International Congress of Entomology (ICE) in Orlando, Florida. For graduate students and early-career entomologists, it will be a fantastic opportunity to meet your peers from all over the world, present your research in a high-profile setting, and scout out potential study or career opportunities.

While you might be thinking that it’s an awful long time from now, and that there’s that pesky thesis that you have to get written, there are two important deadlines coming up soon that you should be aware of:

1. Travel Awards for Students and Early-Career Professionals

The international branch of the Entomological Society of America is giving a total of $50,000 worth of awards to students from outside the USA to attend ICE 2016.

Find detailed information about these awards here. Note that you need to be a member of the ESA to apply, that and membership will cost you between $50 and $150. If you plan to apply, you need to act fast – the deadline for application is September 1st, 2015.

Also note that the Entomological Society of Canada will also have a student and early-career professional travel awards program to assist with attendance at ICE. Information about these awards will be available soon!

2. The International Graduate Student Showcase (IGSS)

The Graduate Student Showcase, which has become a staple of ESC annual meetings, is coming to ICE 2016! Don’t miss this opportunity to present your finished research project alongside the top graduate students in entomology from around the world.

To apply, you need to be defending your MSc or PhD thesis between September 30, 2015 and September 30, 2016.

Find more information about the IGSS here.

The deadline for IGSS applications is October 31, 2015.

By Paul Abram
PhD Student, Université de Montréal

When Pink Floyd recorded their epic, psychedelic instrumental “Any Colour You Like” for the classic album Dark Side of the Moon, were they inspired by a predatory stink bug?

Three spined soldier bugs happily eating a mealworm.  Their voracious appetite makes them a widely-used biological control agent of insect pests (Photo credit: Andrea Brauner).

Three spined soldier bugs happily eating a mealworm. Their voracious appetite makes them a widely-used biological control agent of many different insect pests (Photo credit: Andrea Brauner).

Well … probably not.

The spined soldier bug (Podisus maculiventris), can’t actually lay any colour of egg it likes – but the real range of possibilities is pretty impressive.

The range of possible egg colours that can be laid by a single female spined soldier bug (Photos: Paul Abram/Eric Guerra)

The range of possible egg colours that can be laid by the spined soldier bug (Photo credit: Paul Abram/Eric Guerra)

Almost three years ago, when I started working with stink bugs and their parasitoid wasps, I noticed this astounding variation in the colour of the eggs of the spined soldier bug. I was surprised to find that nobody had looked into the cause of this variation or its potential functions. In fact, the function of insect egg colouration seems to have been a bit neglected in general. While I was initially hesitant to start on the dangerous path towards a PhD “side-project” (code for “I would like to take much longer to finish my degree, please”), I eventually caved.

In 2013, I was visiting a colleague’s lab where newspapers are used as a laying substrate for these bugs, and I noticed that there seemed to be a loose correspondence between the colour of the egg masses and the darkness of the paper, especially in high-contrast places like crossword puzzles. I wondered – could stink bugs actually adjust the coloration of their eggs to match the darkness of the laying surface? If so, this would be the first case of an animal able to selectively control the colouration of its eggs.

Back in Montreal a few months later, I started working on this question with an undergraduate summer student, Marie-Lyne Desprès-Einspenner. We did the simple experiment of putting individual females in Petri dishes painted white, black, or black on one side and white on the other.

Petri dishes housing spined soldier bug females, along with a mate, prey, and some green bean.  Everything a stink bug needs! (Photos: Paul Abram)

Painted dishes housing spined soldier bug females [right], along with a mate, prey, and some green bean [opened dish shown on the left]. (Photos: Paul Abram)

To our surprise and excitement, we got some nice results. First of all, it was clear that individual stink bugs could lay eggs across the whole spectrum of egg colours, and that the egg colour variation wasn’t just a result of advancing egg development. Additionally, stink bugs tended to lay darker eggs in the black petri dishes than the white ones; and, in the bi-coloured dishes, overall darker eggs on the black side than the white side. These effects were subtle, though, compared to the most important and unexpected factor: where the eggs were laid. Eggs tended to be lighter when laid on the underside of the lid (which was lit up from above) than when laid on the side or the bottom of dishes.

So, individual stink bugs can lay eggs of a range of colours, depending on where they are laying. Our next question was: how does this capability express itself on natural laying surfaces? We did some experiments using soybean plants, and figured out what seems to be the key to this whole thing: the stink bugs have a very strong tendency to lay darker-coloured egg masses on the tops of leaves (which have a relatively low surface brightness, like our black dishes), and lighter-coloured masses on leaf undersides (which have a high surface brightness due to light passing through from above, similar to the lids of our white dishes).

Light eggs laid on a leaf underside (upper panel), and dark eggs laid on a leaf top (lower panel). Photo credit: Leslie Abram.

A light egg mass laid on a leaf underside (upper panel), and a dark egg mass laid on a leaf top (lower panel). Photo credit: Leslie Abram.

Because leaves are excellent filters of ultraviolet (UV) radiation from the sun (protecting most insect eggs, which are usually laid on leaf undersides), and dark pigmentation often acts as a ‘sunscreen’ in nature, we wondered if dark colouration would protect developing stink bug eggs from a lethal sunburn when they are laid on the tops of leaves. Eric Guerra-Grenier (another undergraduate researcher in the lab) and I tested this in the lab by exposing differently coloured eggs to different doses of sun-mimicking UV radiation.

The results were crystal clear – darker eggs are better-protected from UV radiation than light eggs, with a strong dose-dependency with respect to UV radiation intensity and egg colouration.

This was an exciting find, but begged the question: what is the pigment that makes eggs dark, anyway? The clear answer was that it must be melanin, which is responsible for most dark animal pigmentation, including in us humans, and is also really good at protecting against UV radiation damage.

Eric and I did the obvious thing, sending hundreds of (freezer-killed) stink bug eggs to two melanin biochemists in Japan. Our collaborators ran a suite of tests to confirm that the egg pigment was melanin. But…it turned out that the egg pigment wasn’t melanin! Right now, we simply don’t know what this “mystery pigment” is (maybe something totally new to science?).

As is common in research, we are left with more questions than answers. What is the physiological mechanism that allows stink bugs to selectively apply pigment to eggs? In evolutionary terms, why lay eggs on UV-exposed leaf tops in the first place? And why still lay some light eggs on leaf undersides? Could the pigment also have a role in camouflage, thermoregulation, or water retention? Do other, closely related (or why not distantly-related) insect species also have this capacity? We’re currently working on some of these questions, and I hope that we get to try to answer all of them eventually.

If you’d like, you can find a lot more details about our findings, including the answer to “does UV radiation affect the control of egg colour?”, in a newly published paper (remember to listen to the accompanying song while reading) – and stay tuned for more results in the coming months.

In the meantime, fellow entomologists and naturalists, look closely at insect eggs – is there anything interesting about how they’re coloured/patterned?

A spined soldier bug female having a drink and contemplating the future of insect egg colour research (Photo credit: Leslie Abram)

A spined soldier bug female having a drink and contemplating the future of insect egg colour research (Photo credit: Leslie Abram)


Postscript:

I would like to suggest additional Pink Floyd song/entomology paper pairings (feel free to suggest your own!):

“Breathe” //  “Active Regulation of Insect Respiration”

“Run Like Hell” //  “Mechanics of a rapid running insect: two-, four- and six-legged locomotion”

“Mother” // “Parental care trade-offs and the role of filial cannibalism in the maritime earwig, Anisolabis maritima« 

“Echoes” // “The adaptive significance of host location by vibrational sounding in parasitoid wasps”

“Time” // “Short interval time measurement by a parasitoid wasp”

“Us and Them” // “Boundary disputes in the territorial ant Azteca trigona: effects of asymmetries in colony size”

“Comfortably Numb” // ”Effects of carbon dioxide anaesthesia on Drosophila melanogaster

By Celina Baines

Have you ever thought about what a pond-dwelling insect might do if it doesn’t like the pond it lives in? People generally assume that these insects are stuck where they are, but actually, many freshwater insects have wings and can fly. This movement between ponds is an example of a process known as dispersal.

Backswimmers, for example, are insects that live in ponds and streams (and sometimes even swimming pools!). Backswimmers have a characteristic way of swimming – on their backs, just under the surface of the water, using their hind legs to propel themselves. It makes them look a little like they are doing the backstroke (hence their common name!). But they also have wings, and can fly between ponds.

A top view of a backswimmer swimming. Backswimmers can often be seen swimming just under the surface of the water, ventral side up. Photo credit: Shannon McCauley.

A top view of a backswimmer swimming. Backswimmers can often be seen swimming just under the surface of the water, ventral side up. Photo credit: Shannon McCauley.

We know from observing these insects that not all backswimmers make the same decisions about whether to disperse. Some individuals spend their whole lives in the ponds they are born in, and some individuals move to new ponds. So why do some individuals stay and some leave? One factor that could influence dispersal decisions is the quality of the pond. Pond “quality” could depend on many things, including the risk of being eaten by predators like fish. Dispersing can be a great way for organisms to avoid habitats that will be bad for them or their offspring.

Once a backswimmer has decided that it wants to disperse, it then has to decide whether it is strong and healthy enough to fly. This could be another factor that determines whether an individual decides to stay or go.

In the summer of 2013, I conducted a field experiment to learn more about how backswimmers make dispersal decisions. I wanted to test whether dispersal was induced by fish. I also wanted to test whether body condition (basically, the general strength and health of an organism) influences dispersal decisions.

I started by collecting backswimmers from a pond at the Koffler Scientific Reserve. That’s a research site owned by the University of Toronto, where I’m a graduate student.

This is me collecting backswimmers from a pond at the Koffler Scientific Reserve. Photo credit: Chris Thomaidis.

This is me collecting backswimmers from a pond at the Koffler Scientific Reserve. Photo credit: Chris Thomaidis.

I brought the backswimmers back to a lab at the University of Toronto. Because I wanted to test the effects of body condition on dispersal, I first had to manipulate the backswimmers so that they had different levels of body condition. I did this by carefully controlling how much food each backswimmer got to eat.

Backswimmers are carnivores, and they aren’t very picky. For this experiment, I fed them fruit flies, because it’s really easy to get lots and lots of fruit flies. So, in what turned out to be one of the most back-breakingly tedious jobs I’ve ever performed for science, I (and many uncomplaining assistants) counted out thousands of individual fruit flies to feed to the backswimmers. Each backswimmer was housed in its own little cup, and received a specific (and carefully counted) number of fruit flies to eat every day. Here’s what the hundreds of drink cups looked like, colour coded and full of bugs.

Left: Cups housing backswimmers at the University of Toronto. Right: A backswimmer in its cup.

Left: Cups housing backswimmers at the University of Toronto. Right: A backswimmer in its cup.

After a few weeks of controlling the backswimmers’ diets, it was time to bring them outside to see if they would fly. I set up some artificial ponds in a big field. These “ponds” are actually just watering tanks that farmers use for cows and horses, but I added algae and artificial plants to make them more like natural ponds. Since I also wanted to test whether backswimmers are scared away by fish, I added a fish to half of the tanks. I put the fish in cages, and that way, the backswimmers could tell there was a fish in the tank (they could see and smell the fish), but the fish couldn’t actually eat the backswimmers.

This is me, checking the artificial ponds for backswimmers. Photo credit: Betty Dondertman.

This is me, checking the artificial ponds for backswimmers. Photo credit: Betty Dondertman.

Then I put the bugs in the tanks, and waited. After a couple days, I went back to the tanks and checked to see which backswimmers were still in the tanks, and which ones had flown away.

Firstly, I found that backswimmers are scared away by fish; they are more likely to disperse when a fish is in their pond.

I also found that the backswimmers with high body condition are more likely to fly, probably because they are strong fliers and have the best chance of successfully finding a new pond.

Both of these results were really cool and answered some questions for us about how backswimmers make dispersal decisions. But they might also tell us a little about how other organisms move around in natural ecosystems. Dispersers are the only individuals that can find new ponds and start new populations. If dispersers tend to be the strongest and healthiest individuals, that’s great for native species that we want to encourage to start new populations. But having strong, healthy individuals from exotic species start new populations is probably bad news. Dispersal can therefore have important consequences, which is why we need to understand more about how and why organisms disperse.

For more information about my study, check out the recent publication:

Baines, C. B., McCauley, S. J., & Rowe, L. (2015). Dispersal depends on body condition and predation risk in the semi‐aquatic insect, Notonecta undulata. Ecology and Evolution 5(12): 2307–2316

As a graduate student, publishing a paper is a big deal. After spending countless hours doing the research, slogging through the writing process, soliciting comments from co-authors, formatting the paper to meet journal guidelines, and dealing with reviewer comments, it’s nice to finally get that acceptance letter and know that your work is getting out there. The ESC Student Affairs Committee is happy to be posting a fourth roundup of papers authored by Canadian graduate students. Stay tuned to the ESC blog for some full length guest posts from some of the students below in the coming weeks!

Have a look at what some entomology grad students in Canada have been up to recently! Articles below were published online from April through June 2015.

Forestry

Seehausen et al. found that parasitism of hemlock looper Lambdina fiscellaria (Guenée) (Lepidoptera: Geometridae) pupae was significantly reduced in plots with high partial cutting intensities (40%). To sustain parasitism rates in forest stands vulnerable to hemlock looper defoliation at naturally high levels, it is recommended to refrain from high intensity partial cutting. Article link

Apechthis Ontario parasitizing a hemlock looper pupa (Photo credit: Lukas Seehausen)

Apechthis ontario parasitizing a hemlock looper pupa (Photo credit: Lukas Seehausen)

During its recent outbreak starting in the early 2000s, the mountain pine beetle destroyed huge areas of lodge pole pine forests in BC and Alberta while also expanding its geographic range east and north. More recently, the beetle has been confirmed to be attacking and reproducing in a novel host, jack pine, which is distributed from Alberta to the Atlantic coast. New research by Taft et al. looks at how specific chemicals in jack pine trees that affect mountain pine beetle vary in jack pine across its range. Article link

Another study from the Erbilgin lab at University of Alberta by Karst et al. revealed that stand mortality caused by prior beetle attacks of mature pines have cascading effects on seedling secondary chemistry, growth and survival, probably mediated through effects on below-ground mutualisms. Article link

Physiology and Genetics

Proshek, Dupuis, et al. found the genetic diversity of Mormon Metalmark species complex are more diverse than traditional morphological characters. Article link

A Lange Metalmark butterfly (Photo: Wikimedia Commons)

Oudin, Bonduriansky, and Rundle at the University of Ottawa found the amount of sexual dimorphism present in antler flies is condition-dependent. Article link

Nearby at Carleton University, Webster et al. studied the edge markings on moths to show they can provide camouflage by breaking up their body outline. Article link

Another study from Carleton University, from Hossie et al., showed that predator-deterring eyespots tend to appear on larger-bodied caterpillars and that smaller species are better off remaining undetected. Check out the detailed blog post about this study on the lead author’s blog, and a great photo gallery of caterpillars with eyespots! And here’s the link to the Article.

Jakobs, Gariepy, and Sinclair established that adult phenotypic plasticity is not sufficient to allow Drosophila suzukii to overwinter in temperate habitats. Article link

Insect Management

Part of the PhD work of Angela Gradish focused on the White Mountain arctic butterfly (WMA), a very rare butterfly occurring only on the alpine zone of Mts. Washington and Jefferson in New Hampshire. Despite its threatened status, little was known of the WMA’s population structure, distribution, and behaviour. So Gradish grabbed a net and headed up Mt. Washington, where she spent part of two summers collecting WMA samples for genetic analyses while performing a mark-release-recapture study on the population. She was the first to use genetic analyses to study the WMA, the results of which are presented here.  Find the results of the mark-release-recapture study here.

Angela Gradish collecting

Collecting butterflies on Mount Washington (photo credit: Angela Gradish).

Marshall and Paiero, from the Marshall lab at University of Guelph, gives a new record of a Palaearctic leaf beetle, Cassida viridis, which has been present in Ontario since 1974. Article link

Maguire et al., from the Buddle lab at McGill University, found destructive insect herbivores can positively or negatively impact ecosystem services depending on outbreak conditions. Article link

Biodiversity

Ernst and Buddle discovered that the diversity and assemblage structure of northern carabid beetles show strong latitudinal gradients due to the mediating effects of climate, particularly temperature. Article link

Behaviour and Ecology

The Luong lab at University of Alberta observed that ectoparasitic mites have deleterious effects on host flight performance of Drosophila species. Article link

Therrien et al. from the Erbilgin lab at the University of Alberta found that bacteria can influence brood development of bark beetles in host tissue. Article link

Desai, Kumar, and Currie from the Currie lab at the University of Manitoba conducted the first major baseline study of viruses in Canadian honey bees to show that deformed wing virus has the highest concentration among worker bees. Article link

Baines, McCauley, and Rowe from the Rowe lab at University of Toronto showed that dispersal is a positive function of body condition in backswimmers, but not interactive with predation risk. Article link

Backswimmers can often be seen swimming just under the surface of the water, ventral side up (Photo credit: Shannon McCauley).

Backswimmers can often be seen swimming just under the surface of the water, ventral side up (Photo credit: Shannon McCauley).

Strepsiptera is a peculiar and enigmatic insect order. All are entomophagous endoparasitoids. Unusually for parasitoids, they possess a very broad host range, encompassing 7 orders and 34 families of insects, in various habitats worldwide. Despite their broad host range, and cosmopolitan distribution, surprisingly little is known about their biology. The gaps in knowledge of this group has led to many generalizations about their biology and behaviour. Only recently are studies beginning to uncover a hitherto unforeseen diversity in reproductive strategies. In this review, Kathirithamby, Hrabar, and colleagues discuss the reproductive biology of Strepsiptera: what is known, and what mysteries remain to be solved. Article link

In the Sargent lab at University of Ottawa, Russell-Mercier and Sargent investigated herbivore-mediated differences in floral display traits and found that they impacted pollinator visitation behaviour, but not in female reproductive success. Article link

Techniques

Can you use gut content DNA analysis of a staphilinid beetle to track predation of spotted wing drosophila? Here’s what Renkema et al. found.

Rosati et al., from the Vanlaerhoven lab at University of Windsor, discuss using ImageJ software to quantify blow fly egg deposition in a non-destructive manner. Article link

We are continuing to help publicize graduate student publications to the wider entomological community through our Research Roundup. Find the previous edition here: http://escsecblog.com/2015/05/04/canadian-entomology-research-roundup-march-2015-april-2015/. If you published an article recently and would like it featured, e-mail us at entsoccan.students@gmail.com. You can also send us photos and short descriptions of your research, to appear in a later edition of the research roundup.

For regular updates on new Canadian entomological research, you can join the ESC Students Facebook page or follow us on Twitter @esc_students

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When is the last time you got up at dawn to see some insects? Never? Well let me tell you, it is an absolutely fabulous time to get out and see what is really happening in the world. Everyone knows that the dawn is the time for going out to see birds, but the birds are really just a proxy for the insects! They are out foraging their little feathers off in an effort to provide their chicks with tasty tasty bugs!

The dawn hours offer the opportunity to see insects and spiders that are just waking up, still cool from the night. I take advantage of this to go out and photograph them, when they are still. I also use the beautiful natural light to my advantage in the pictures.

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A gorgeous Enoplognatha ovata on some grasses in Richmond BC

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Ammophila wasps are too active to shoot well in the day, but at dawn they are easy and beautiful subjects

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Mixing the dawn light is easy with any kind of diffused flash. The sunlight is dim enough that a flash in close proximity to the subject can illuminate details that turn what would be a silhouette into a lovely shot.

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The one danger is lens flare, but as instagrammers know, this makes a shot more « artistic ». I find I am often pleasantly surprised by some of the flare effects.

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Large numbers of aggregating wasps may be reducing their individual vulnerability to those hungry birds…

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The spiders often attempt crypsis rather than jumping off their webs. It works well for the arthropod photographer!

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Coelioxys cuckoo bees are a welcome find anytime, and at dawn are super cooperative subjects!

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Dawn light can also be used for highlighting hairs.

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Dawn is an epehmeral time, and staying out with your subjects allows you to see them wake up and start their day.

Opinion Piece – M. Alex Smith, Department of Integrative Biology, University of Guelph (salex@uoguelph.ca; @Alex_Smith_Ants; www.malexsmith.weebly.com)

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Like many Canadians, I have been hearing more and more about the so-called “Mother Canada” development in Cape Breton Highlands National Park (CBHNP). Proposed by a combination of private funding in partnership with the federal government, this enormous 10-storey memorial is meant to “… be a place for remembrance and gratitude” to Canadians who have “fallen as a result of war and conflict”. Parks Canada has expressed direct support for this monument through actual monetary donations. The erection of such a memorial within a Canadian National Park has garnered much recent interest in the Canadian and international press.

Beyond any aesthetic concerns people may have about the specific plans, in my opinion, there are two critical problems with this monument. The first was pointed out in a Globe and Mail editorial of June 24 2015: it is redundant. Every town and city in Canada already has a memorial to those who have served and sacrificed. My second objection is a combined biological and sociological one. It concerns the location of a private funded monument within a Canadian National Park, where it appears very unclear what the ramifications of that action will be on the fauna in and around the proposed site. The mandate of Parks Canada is elegantly expressed in its charter, “To protect, as a first priority, the natural and cultural heritage of our special places and ensure that they remain healthy and whole” while fostering “public understanding, appreciation and enjoyment in ways that ensure the ecological and commemorative integrity of these places for present and future generations”. Indeed, 26 former senior Parks Canada managers wrote an open letter to the Minister of Environment Leona Aglukkaq detailing their objections and that such a plan, “is in violation of the site’s Wilderness Zone designation as detailed in the Management Plan for the Park”.

Beyond the effects of the actual physical construction on the park environment, the monument will potentially increase tourist traffic to the area. How will these changes affect the biota (both animal and plant) of the immediate area? Exactly how well known is that fauna? How was the effect on the sites and the adjacent park environment determined?

A detailed impact analysis was completed by Stantec Consulting Limited who concluded that the effects of the development are, “generally predicted to be negligible to moderate in magnitude”. Conclusions regarding the effect of the construction and development on the “wildlife” of CBHNP were based on a single terrestrial field survey of the locality and a consultation of a CBHNP sightings database. (Stantec is actually listed as a Partner and Supporter of the development). In the Stantec impact analysis, “wildlife” is exclusively mammals and birds. As an ecologist whose professional and personal life is replete with instances of being overwhelmed and delighted by the diversity of arthropods living coincidentally (and cryptically) with their better-studied vertebrate relatives, this raised some concerns.

So what can I offer? Well in 2009, I spent a wonderful time collecting arthropods in CBHNP as part of the BioBus program out of the Biodiversity Institute of Ontario at the University of Guelph. In fact, four colleagues and I spent a night collecting insects at a site only 3 km away from the proposed development (Black Brook and the nearby Jack Pine Trail). The Jack Pine trail was particularly beautiful! The trail goes through a forest of Jack Pine that is more than 200km away from the rest of its range and has survived fire and spruce budworm infestation. At any rate, since all the data is publicly available online (dx.doi.org/10.5883/DS-ASCBHNP), I thought this would be an opportune time to explore those records in light of the planned “Mother Canada” development.

 

Figure 1: A high resolution GigaPan panorama taken at the Black Brook collection site (http://gigapan.com/gigapans/29312).

Figure 1: A high resolution GigaPan panorama taken at the Black Brook collection site (http://gigapan.com/gigapans/29312).

 

Figure 2: The collection team earlier in the trip in Terra Nova National Park Newfoundland.

Figure 2: The collection team earlier in the trip in Terra Nova National Park Newfoundland.

It was a beautiful night in 2009 (Jul-21) at Black Brook where we collected arthropods using two common methods (UV light (which means lots of moths!) and free-hand active search using insect nets). That night, in about four hours of collecting, we came away with 363 specimens from nearly 200 species (191 named and provisional species based on their DNA barcodes). To put this number in context, CBHNP has 200 species of bird – a total nearly matched for arthropods by our single nights work at one location! This diversity is only a small fraction of the diversity of arthropods currently protected by CBHNP. Via these DNA barcodes, (public on BOLD (www.barcodinglife.org, dx.doi.org/10.5883/DS-ASCBHNP) we can compare them to the > 4 million DNA barcode records representing >400,000 species worldwide on this database.

What we find from this comparison is that some of these species may be exceedingly rare. Despite concentrated collections in this and other National Parks before and since this night* there are four species which have been found only once out of these millions of records. While this diversity is currently protected by Parks Canada, it is within 3 km of the proposed “Mother Canada” development. It is unclear how the changes in traffic and construction from the development will affect this protected diversity.

Why bring this up now? What use is a rapid analysis of a single night’s collections? I decided to bring it up to call attention to numerous small and cryptic species in and around the location of the proposed development about which we know very little. Going ahead with an enormous private development within a National Park is a mistake that flies in the face of the mandate of Parks Canada – and does so without good evidence that it would not have negative effects on the diversity of animals that it was created to protect.

 

Figure 3: This neighbor-joining tree is a graphical representation of the diversity of nearly 200 species of arthropods collected at Black Brook in July 2009. The taxa are colour coded and are followed by the number of specimens we caught.

Figure 3: This neighbor-joining tree is a graphical representation of the diversity of nearly 200 species of arthropods collected at Black Brook in July 2009. The taxa are colour coded and are followed by the number of specimens we caught.

John Barber (a freelance journalist from Toronto) closed his recent article in the Guardian newspaper with a marvelous quote from Valerie Bird, a WWII veteran and resident of Cape Breton, “It is vulgar and ostentatious,” she said. “It certainly doesn’t belong in a national park, and I don’t think its going to do a darn thing for veterans.” “I think the idea of this horrible thing offends veterans,” she added. “I find it difficult to find words. This is a monstrosity.”

Not simply a monstrosity – but one contrary to of the principle mandate of Parks Canada, “to protect, as a first priority, the natural and cultural heritage of our special places and ensure that they remain healthy and whole”. Ultimately, this is the essence of the problem. This issue is more than a simple discussion regarding the aesthetics of a >$25 million, >25-metre tall conglomeration of private and corporate citizens (in apparent partnership with our federal government). If a private group wants to erect a memorial on private grounds and can raise the money for their monument – it is certainly their prerogative. This is a critical discussion about the mandate of Parks Canada and specifically how well they protect the natural heritage resident within that Park.

To place this monument in a National Park is not the right of any private group. To consider placing such a monument in a National Park without careful consideration of the most diverse Park residents (insects, spiders and their kin) is not simply poor planning; it’s poor management and should be stopped.

* -Since that evening in 2009, the BioBus has continued to collaborate with Parks Canada in Cape Breton Highlands National Park and now even more is known about the vast diversity of small and important insects from other areas within this National Park. Collections of arthropods have now been made for 3000 species! For more information about those collections visit the reports section at www.biobus.ca. The author has no current association with the BioBus program. All specimens analysed here are publically available via the public data portal of the Barcode of Life Data System (dx.doi.org/10.5883/DS-ASCBHNP).

Useful websites:

Thanks to Morgan Jackson for helpful thoughts on an earlier draft of this post.
Figure 4 – Shareable infographic outlining information & data presented in this article. Please feel free to circulate.

Figure 4 – Shareable infographic outlining information & data presented in this article. Please feel free to circulate.

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My name is Kevin Floate.  Back in 1985, I became a member of the Entomological Society of Canada (ESC) and found it to be a warm and supportive organization.  I’ve since undertaken a number of roles, because I enjoy a challenge, but also because I believe that it is important to give back to the Society and the scientific discipline that has given so much to me during my career.  I have served on the Society’s Governing Board and I have Chaired the Publication Committee and what is now the Marketing and Fund-raising Committee.  I am a past-Editor of theESC Bulletin and have been a Subject Editor for The Canadian Entomologist (TCE) since 2002.  In September of last year, I embarked on my most challenging role thus far, that of Editor-in-Chief (EiC) for TCE.

I didn’t make the decision lightly.  The journal has been continuously published since 1868 under the capable hands of a long-chain of EiCs and I wanted to be sure that I could devote the time to do a credible job.  So for six months prior to saying ‘yes’, I job-shadowed the activities of the previous EiC, Chris Buddle.  It also helps that I ‘inherited’ a strong Editorial Board and a very competent Assistant Editor (Andrew Smith).  With their support, my first six months at the helm have been relatively smooth sailing.

So what exactly does it mean to be the EiC?  I’m coming to realize that it means several things.  First, I’m the gate-keeper.  TCE is an international journal that publishes on all aspects of entomology.  We only ask that submissions meet the journal’s publication policy and that they be written well-enough to permit a thorough scientific review.  I assess each new submission and reject those that don’t meet these criteria.  Second, I represent the Editorial Board, who help shape the journal’s publication policy and ensure that manuscripts are reviewed by qualified individuals in a timely manner.  I note that Board members (myself included) are all volunteers and receive no compensation for our efforts.  Third, and equally important, I represent the authors, who have taken the time to develop and complete a project, write up the results and submit their findings.  If we all do our jobs right, the outcome is a quality publication that enhances the entomological literature.  And finally, I am the public face of the journal… the bull’s eye at which authors can aim their emails.

Being EiC also means keeping up with changes in technology.  Consider that the very first article published in TCE is a report of a luminous larva authored by C.J.S. Bethune.  He would be amazed to learn that his article remains readily available 147 years later to journal subscribers across the world.  He would be even more astounded to learn of downloadable PDFs, the internet, computers, and open-access electronic journals (e-journals).  This latter topic is of particular interest to me, both as an author and as the EiC.  If you haven’t educated yourself on the potential pitfalls associated with some of these journals, I urge you to read Open access, predatory publishers, The Canadian Entomologist, and you (Bulletin of the ESC, vol. 45 (3): 131-137).  I co-authored this article as a way to understand why I was being inundated with spam emails from journals I’d never heard of, promising to quickly publish my next paper for a nominal fee.  As part of my on-going education as an EiC in this brave new world of publishing, I’ve also become a regular reader of Retraction Watch and Beall’s Blog.

With changes in technology, we also have improved our services for authors and subscribers.  In 2012, TCE entered into a partnership with Cambridge University Press (CUP).  CUP is the world’s oldest publishing house and, in keeping with the philosophy of the Society, is a not-for-profit organization.  This new partnership has allowed us to drop the requirement for page charges, and papers now appear online as ‘First View’ articles prior to hardcopy publication.  Last year, TCEadopted a hybrid open-access model to give authors the option of making their papers open-access upon payment of a one-time fee.  These changes have increased the number of manuscript submissions, which has allowed us to expand our published content by ten percent as of this year.  Quite frankly, I’d be swamped if it weren’t for the efforts of the Assistant Editor to ensure a high-quality standard of editing for all accepted manuscripts.

Another feature of the journal that is often overlooked is that we accept proposals for review articles, special issues and supplemental issues.  Special issues are papers with a common theme that appear in a regular issue of the journal.  Supplemental issues are issues that are in addition to the normal six per year.  This year is particularly exciting, because we have one of each.  A special issue on Emerald Ash Borer will appear in the June issue.  A supplemental issue on the history of forest entomology in Canada is being published later in 2015.  Be sure to keep an eye open for these issues, and send me an email if you want to discuss ideas for potential reviews, special issues or supplemental issues.

Other than EiC, what is it that I do as a researcher?  My graduate research encompassed pests of wheat in northern Saskatchewan and gall-forming insects in riparian forests of Utah and Arizona.  In 1993, I was hired by Agriculture and Agri-Food Canada to develop a biocontrol program for insect pests of livestock.  Although I’m still with AAFC, my current research has expanded to include insect-symbiont interactions, insect-parasitoid interactions, the ecology of cow dung communities, the non-target effects of chemical residues, and use of molecular methods to barcode insects or characterize their bacterial associates.  I worry a bit about being a “jack-of-all-trades, master-of-none”, but this breadth of experience has served me well in dealing with the large variety of submissions to the journal.  Away from work and depending upon the season, you’ll find me hiking, curling, playing table tennis, reading, gardening and… of course… looking at bugs.

I’m getting more comfortable in my position as EiC, but I’m not complacent about the job.   It takes time to do it well and I promise to take that time to ensure your submissions are dealt with in a timely and respectful manner.  If I don’t, you know where to aim your emails.

Cheers!

Kevin

Click here to read the first issue of 2015 for free.

This article originally appeared on the Cambridge Journals Blog.

Emerald Ash Borer. Credit Debbie Miller, USDA Forest Service. Bugwood.org

Emerald Ash Borer (Agrilus planipennis). Credit: Debbie Miller USDA Forest Service, Bugwood.org.

To mark the publication of the Emerald Ash Borer special issue from The Canadian Entomologist, guest editors Chris MacQuarrie and Krista Ryall from Natural Resources Canada have co-authored this blog post about the issue.

In 2002, residents of Detroit, Michigan noticed something was killing their ash trees. Ash trees in North America are susceptible to some diseases that can result in decline and mortality, so a forest disease specialist was dispatched to investigate why these trees were dying. It was soon determined that the culprit was not a disease, but an insect: a shiny, metallic-green, buprestid beetle not previously known from Michigan, or anywhere else in North America. Authorities in Michigan notified their Canadian counterparts who soon discovered numerous ash trees dying in Windsor, Ontario from damage caused by the same beetle. Eventually, with the help of a European systematist the insect was determined to be the previously described (and previously rare) Agrilus planipennis. Today, this insect is better known by its common name:  the emerald ash borer.

To commemorate the discovery of emerald ash borer in North America, we organized a symposium and workshop at the 2013 Entomological Society of Canada’s and Ontario’s Joint Meeting in Guelph, Ontario. The timing and location of this workshop seemed appropriate because 2013 marked 10 years of research on the emerald ash borer and Guelph is located only a few 100 kilometres from where emerald ash borer was first found, and is now well within the insect’s Canadian range. Our goal with this symposium was to review the state of knowledge on emerald ash borer after ten years of research, and look ahead to the questions that researchers will be asking as the infestation continues to grow and spread. We were fortunate that many of the researchers who have contributed so much of what we know about emerald ash borer were able to participate.

We were quite pleased with how well the symposium turned out. However, information presented in a symposium is ephemeral and fades away as soon as the last talk is over. To prevent this, we imposed upon our presenters to also prepare written versions of their presentations. It took some time, but now these papers are all complete, and have been put together to form a special issue of The Canadian Entomologist dedicated to the emerald ash borer.

Emerald Ash Borer

Emerald Ash Borer.  Image credit: Chris MacQuarrie

Ten years is a long time in research. We estimated that over 300 papers on emerald ash borer had been produced over that period, with more being produced every month. It is our hope that this special issue can serve as an entry point into this literature for researchers new to the field. We also hope that this issue can be valuable to more established researchers as well, to use as a resource and a touchstone in their own work. This special issue can also serve as a reminder of how much effort is required (in both research and by people) to understand a new pest. What we have learned about emerald ash borer over the past ten years (well, 13 years now) is immense. There is still much to learn though.”

The Emerald Ash Borer special issue is the free sample issue of The Canadian Entomologist for 2015.

Access the special issue for free until 1st January 2016 here.

Main image credit: Debbie Miller, USDA Forest Service, Bugwood.org

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The following is a guest post by Staffan Lindgren

When I started teaching Invertebrate Zoology in the mid-1990’s, students were required to write term papers as one of the tools for evaluation. With a fairly heavy teaching load, this approach became somewhat unmanageable given relatively high enrollment, in particular since I feel that it is important to provide detailed feedback to each student so they can improve on their writing skills. Depending on a student’s skill level, reading, editing and marking a paper can be rather time consuming. After a few years, I therefore reverted to delivering a strictly lecture/lab based course with midterm(s), quizzes and (lab and lecture) finals, essentially the way I had been taught. Two years ago, with considerable trepidation, I decided to step out of my comfort zone and try the blog format. This turned out very successful from a number of perspectives.  The students really liked it, and I derived direct benefit by learning about organisms I would likely never have read or heard about. I also enjoyed marking these blogs, because a blog is shorter, less formal, and leaves a lot of room for personal style when compared to a term paper, while still retaining the requirements of coming up with a suitable topic, as well as finding and citing primary literature effectively.

While many of the blogs were about non-arthropods, a fair number of students chose members of this taxon to write about. In this blog, I highlight student blogs that may be of interest to ESC members.

The first blog by Santana Smith is about a group of marine arachnids that I know very little about, the sea spiders. In her blog, “Mating, Reproduction, and Courtship Behaviour of the Pycnogonids” she corrected that shortcoming to some extent. These are odd creatures, to be sure!

The second blog by Alana Garcia is also about arachnids, more specifically Opiliones or harvestmen:  Opiliones and Parenthood: The Rare Exception of Maternal and Paternal Care in Arachnids. Some of these odd creatures have surprisingly sophisticated and fascinating brood care.

Roscoe Lenardt wrote about hornets The Genus Vespa: Eusocial societies and vicious stings. Every time I watch something about Vespa mandarinia I am happy that we only have the baldfaced hornet where I live!

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Lena Richter looked at The Camouflage of Praying Mantids. Most entomologists are familiar with the orchid mantis, but did you know that Phyllocrania paradoxa nymphs imitate ants?

Favourites for many students (and many arachnologists as well I should imagine) are the jumping spiders. Jessica Leach discusses Portia species in her blog “Jumping spiders: sex among cannibals”. Portia jumping spiders have been described as among the most intelligent of all arthropods.

Danielle New was fascinated by the use of tiny wasps for biological control, which she described in Trichogramma, a Living Insecticide?” One has to marvel at the ability of these tiny wasps to work for us.

Insects provide inspiration for art, and Nicole Tweddle discusses the use of caddis fly larvae to create jewellery in her blog “Caddisfly (Order Trichoptera) Larval Diversity: The Unlikely Jeweller”. This blog was of particular interest to me, because many years ago at a meeting of the Entomological Society of America, I purchased caddisfly-manufactured earrings for my wife. They were not as exclusive as the ones featured in this article, however.

Madison Wong wrote about the not-so-pleasant effects of centipede venom in “The effect of venom in centipedes.” An arachnophile and former Prince George resident (who described his hobby/business of breeding tarantulas as an interest that went terribly wrong) kindly used to show his animals to UNBC students. One of the few critters he would not handle was his giant centipede!

“Giant Weta” or Wetapunga, the enormous anostostomatid crickets of New Zealand, was the topic for Amandeep Bhatti. Many of these large, flightless insects are threatened and thus of great interest.

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Warren Noronha wrote about another species of jumping spider, Phidippus audax: The Most Daring Spider.” Phidippus species are quite impressive as jumping spiders go. Where I live we have P. johnstoni, a closely related species.

Maeghan Forster provides the first of the 2015 crop of blogs, writing about the fascinating reproductive biology of the emerald cockroach wasp “Eating Your Babysitters: Brooding Behaviors of the Emerald Cockroach Wasp.” I love the way students link behaviours to everyday life, albeit a tad gruesome in this case.

“What in the world is the obelisk posture”, was my first thought when Austin Bartell gave me his proposed blog topic. He explains how dragonfly make use of this posture in “The Obelisk Posture of Dragonflies (Order Odonata)”

Giant Scolopendra centipedes provided the topic for Brittany Fotsch. In “A giant in the under-foliage: Scolopendra gigantea she ends by referring to centipedes as pets: “A 30 cm, 46-legged, bat-killing, venomous critter is not for everyone, but nevertheless even Amazonian giant centipedes need some TLC.”

T. Callander chose to write about the symbiosis of yucca plants and yucca moths in “Yucca moths and yucca plants: the mailman and the mansion” in his entertaining and informative blog, again with an analogy to human life.

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Conrad Taylor’s blog “How I was out-fished by a spider” received a lot of attention when I tweeted the link some time ago. It differs somewhat from most of the other blogs because it is built around a personal experience, and I am sure that is the reason for the attention, at least in part. It certainly makes it an enjoyable read.

The use of transparency in a butterfly caught the interest of Erin Haugland, who wrote about “Greta oto: The Invisible Butterfly. One of the adaptations to make this approach feasible is the presence of submicroscopic bumps change the refractive index of the wing to match the surrounding air. Who knew?

Arachnophobes in New Zealand probably won’t cry over “Latrodectus katipo: The disappearing cousin of black widow spiders, written by Finch Ye. It is comforting to know that even a black widow species will have proponents willing to go to bat for them!

Ian Curtis wrote about “The Reindeer Warble Fly (Hypoderma tarandi): An Arctic Parasite,” an insect I knew a little about from my time in Sweden. I also got the opportunity to communicate with my Norwegian colleague Arne C. Nilssen, who gave us permission to use his fabulous photo of an adult fly. Arne did his Ph.D. research on bark beetles, which is how I knew him.

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An assignment like this is bound to have at least someone looking at honeybees. Jared Peet wrote his blog “Apis mellifera: Un-bee-lievable Communication about these important insects, and in a second course I taught, two students wrote honeybee related blogs.

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Water striders are incredibly successful hemipterans with some very odd mating behaviours. In her blog “Water striders: Strange Mating Rituals and Adaptations,” Rebecca Lerch describes how females protect themselves against overly amorous males.

Another spider blog that attracted attention was “The diving bell spider: reversed sexual size dimorphism” written by Sunjeet Minhas. To my knowledge, the Eurasian Argyroneta aquatica is the only aquatic spider.

Jennifer Noonan wrote about bioluminescence in lampyrid beetles. In her blog “Fireflies: Bioluminescence” she even included a drawing she made of the chemical reaction.

Angela Tsang’s topic was one that really fascinated me. “Commensalism, Mutualism, or Somewhere on the Borderline: A Relationship between a Frog and a Spider” is about a tiny microhylid frog that lives with a tarantula, normally a predator of frogs! Finding an illustration of this was easier said than done, but the author of one of the source articles, Dr. Francesco Tomasinelli, gave us permission to use a fantastic photo.

Aphids have never been my favourite insects (sorry Simon Leather!) although I could have ended up working with them, early on courtesy of Dr. Jan Pettersson in Sweden. It isn’t an organism I would expect a student to pick, but Grant Usick found an interesting angle in his blog Acyrthosiphon pisum: The little pea aphid that could.” Perhaps I have to reconsider?

Brooke Wiebe picked Acacia ants for her blog Pseudomyrmex ferruginea: The ideal tenant.” I still remember a presentation by Dan Janzen about these fascinating little ants and how they have assumed the defense role of Acacia trees.

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In my arachnid lecture, I have to highlight the net-casting or ogre-faced spider, of course. This prompted Fiona Raymond to write her blog “The Hunting Techniques of the Net-Casting or Ogre Faced Spider (Araneae: Deinopidae)”. Arachnophobes miss out on so much neat stuff!

For no particular reason, I left out several blogs about horseshoe crabs and Crustaceans. The Crustaceans covered were fiddler crabs, tongue eating isopods, trapeziid guard crabs, pistol shrimp, pom-pom or boxer crabs, tadpole shrimp, Dungeness crabs, and the goose barnacle. And that leaves out all the other interesting invertebrates, of which cephalopods were the most numerous – no surprise there! Anyway, many students exceeded my expectations by a wide margin, and I really believe that it was the format that gave them inspiration to go the extra mile. I am sure Dezene Huber (who will take over after I retire at the end of this year) will improve on the course. Nevertheless, the students deserve credit for a job well done! I hope you will read a few of these blogs, and that you will enjoy them.