The CPRC 2015 funding process approved projects that addressed several poultry industry priorities.  A major industry priority is improving the immune system, and two projects that specifically address this in poultry have recently acquired all necessary funding in addition to CPRC funding.  These projects are now currently under active research. Activation of innate immunityThe emergence and spread of resistant bacteria are rendering current antibiotics less useful.  Furthermore, the controversial practice of prophylactic use of antibiotics encourages the emergence of antibiotic-resistant microbes.  Therefore there is a need for the development of novel alternative strategies to antimicrobials for infectious disease control.CPRC has recently funded a project that will investigate an innate immune-based method of disease protection as an alternative strategy to antimicrobial use.  During initial exposure to pathogens, birds are reliant on their innate immunity for protection against infection.  Innate immune responses are not pathogen-specific but are activated by features/patterns characteristic of pathogens.  The innate immune system is capable of limiting a variety of infections once activated.  Although the innate immune system of chickens is developed at hatch, it is not activated; therefore, microbial agents (particularly bacterial pathogens) can infect chicks at the time of placement in the barn.Professor Susantha Gomis, from the University of Saskatchewan has studied the effects of a pattern characteristic of bacterial DNA, known as CPG-motifs to induce or activate the innate immunity.  Research has shown that synthetically generated CPG-motifs or ‘CpG-ODN’ as an immune system stimulant is capable of protecting neonatal chickens against specific bacterial infections.  Results obtained to date show that intranasal delivery of CpG-ODN is advantageous to in ovo delivery as innate immune stimulation coincides with the first week of the birds’ life, which is the most vulnerable period for bacterial infections.  Dr. Gomis’s current research will develop an effective method of intra-nasal delivery of CpG-ODN at hatch.  The research approach will be to initially develop a CpG-ODN delivery prototype for intranasal delivery of the CpG-ODN to neonatal chicks followed by field efficacy and safety trials.This research is also funded by NSERC, Chicken Farmers of Saskatchewan, (Saskatchewan Chicken Industry Development Fund), Alberta Livestock and Meat Agency Ltd., Western Economic Diversification Canada, Sunrise Poultry Hatchery, BC and Prairie Pride Natural Foods Ltd., SK. Activation of adaptive immunityRespiratory viruses have a negative impact on the poultry industry.  Although vaccination against respiratory viruses is used to control these common viral diseases, “vaccine failures” remain common.  CPRC has recently funded a project that will investigate the use of innate immune stimulants to induce adaptive immunity against respiratory viruses.  Adaptive immune responses are pathogen-specific and recognition of the pathogen results in both antibody-related and cell-mediated immunity.  Adaptive immune responses are slow to develop and may take up to a week before the responses are effective.  Associate Professor Faizal Careem, from the University of Calgary, has studied the effects of synthetic Pathogen Associated Molecular Patterns (PAMPs) in activation of innate immune responses.  Research has shown that these PAMPs are effective in reducing the impact of a number of avian bacteria and viruses.  PAMPS are also a known to increase the immune response of experimental vaccines when incorporated with these vaccines as ‘immune response enhancers’.Dr. Careem, will investigate the role of innate immune stimulants in the induction of adaptive immunity to respiratory viruses.  Results obtained in his prior research have demonstrated that in ovo delivered PAMPs can reduce a specific viral load in the respiratory tract of embryos and neonatal chicks.  in ovo delivered PAMPs also increases innate immune cell responses in neonatal chicks.  These responses have been shown to promote the development of adaptive immune responses in mammals.  Overall, this study will determine the efficacy and mechanism of in ovo delivered PAMPs in inducing pathogen specific adaptive immune responses against respiratory viruses.  The approach is centralized on stimulation of the innate immunity to reduce the viral replication at the site of entry allowing birds to acquire adaptive immunity.This research is also funded by NSERC and Alberta Livestock and Meat Agency Ltd.CPRC, its Board of Directors and member organizations are committed to supporting and enhancing Canada’s poultry sector through research and related activities.  For more details on these or any other CPRC activities, please contact the Canadian Poultry Research Council, 350 Sparks Street, Suite 1007, Ottawa, Ontario, K1R 7S8, tel: (613) 566-5916, e-mail: This e-mail address is being protected from spambots. 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  When it comes to developing a vaccine in response to emerging diseases that threaten the lives of animals, a pharmaceutical company needs to move quickly. What it comes down to is being “first to know” and “fast to market”, said Dr. Raja Krishnan, formerly senior director of Swine and Poultry Research and Development for Zoetis and now of companion animal and equine biological research. Speaking to the Poultry Industry Council Health Day in Stratford, Ont., Krishnan put a global perspective on some of the corporate thought processes that precede his company’s decision to develop a vaccine. Use of surveillance“The world is becoming a smaller village,” said Krishnan. Zoetis, a leading pharmaceutical company with 10,000 employees in 120 countries, has access to global surveillance networks that use targeted regional surveillance to help guide rapid, high quality product development. As an example, Krishnan called Avian Influenza (AI) a “disease that is travelling around the world, creating headaches.” With that kind of migration, how do we become proactive? How do we get ahead of the next round of disease? “It’s a decision that can’t wait,” said Krishnan. “Seasons change whether we’re ready or not,” leaving the company to do the right thing for their customers and the entire industry, sometimes making those decisions in a matter of minutes. Questions, questionsThe AI outbreak affected over 48 million birds between December 2014 and June 2015. A lot of questions swirled around the decision to develop a vaccine; the disease was moving quickly. Did the industry want a vaccine? Would they use it? Would the government endorse it? Would the USDA recommend culling or vaccinating? Even if a product were developed, would it be relevant? Does it make sense? Adding to this uncertainty is the fact that AI doesn’t play by the rules. The virus can mutate rapidly, meaning that the vaccine needs to be changed frequently. That’s one of the challenges. “AI constantly surprises us,” said Krishnan. “Nothing beats preparedness but we may have to course-correct collectively.” When asked about the drivers behind the U.S. poultry industry deciding to use or not use the AI vaccine, Krishnan listed several of the questions such as, when will the product be available? Is there a risk of AI going into broilers as we go into the winter? Will this pressure us to act? Political aspects“Let’s not underestimate the economic and trade implications,” said Krishnan, what he called “the political aspects.” Will use of a vaccine result in trade restrictions? How does the issue get played out in the news? How does the consumer view the issue? What will the government do? How will pressure from retailers like Walmart affect vaccine use? He described the vaccination issue as “a jigsaw puzzle with so many uncertain parameters.” Under a similar disease challenge in April 2013, Porcine Epidemic Diarrhea (PED) was identified in the United States; by September 2014, conditional vaccine licenses were being issued in the U.S. Everything happened rapidly, said Krishnan, fuelled by a commitment to U.S. pork producers and the veterinarians who support them to help contain an outbreak in 30 states that was responsible for the deaths of more than seven million piglets in the U.S.. What if their company goes down the wrong path? Krishnan admitted that sometimes a vaccine works in a test tube but falls apart in the real world; sometimes a disease doesn’t cause a problem, in which case the resources will be pulled back and re-invested. With AI, are we headed in the right direction? Is it easier to cull the birds, clean up and move on? “That’s the million dollar question,” answered Krishnan. Thirty years from now we’ll have stories to tell.  
January 18, 2016 -  The United States Department of Agriculture’s (USDA) Animal and Plant Health Inspection Service (APHIS) has confirmed the pathogenicity of eight of the nine H7N8 avian influenza detections announced on January 16. The turkey flocks have been confirmed as low pathogenic avian influenza, with additional testing ongoing for the ninth flock. These January 16 detections were identified as part of surveillance testing in the control area surrounding the initial highly pathogenic H7N8 avian influenza (HPAI) case in that state, identified on January 15. “It appears that there was a low pathogenic virus circulating in the poultry population in this area, and that virus likely mutated into a highly pathogenic virus in one flock,” said Dr. John Clifford, USDA Chief Veterinarian. “Through cooperative industry, state and federal efforts, we were able to quickly identify and isolate the highly pathogenic case, and depopulate that flock.  Together, we are also working to stop further spread of the LPAI virus, and will continue aggressive testing on additional premises within the expanded control area to ensure any additional cases of either HPAI or LPAI are identified and controlled quickly.” APHIS continues to work closely with the Indiana State Board of Animal Health and the affected poultry industry on a joint incident response. State officials quarantined the additional affected premises and depopulation of birds has already begun. Depopulation prevents the spread of the disease. Birds from the flock will not enter the food system. No human infections associated with avian influenza A viruses of this particular subtype (i.e., H7N8) have ever been reported. As a reminder, the proper handling and cooking of poultry and eggs to an internal temperature of 165 ˚F kills bacteria and viruses, including HPAI. As part of existing avian influenza response plans, Federal and State partners continue to work on additional surveillance and testing in the nearby area.  No new presumptive cases have been identified since January 16. The rapid testing and response in this incident is the result of months of planning with local, state, federal and industry partners to ensure the most efficient and effective coordination. Since the previous HPAI detections in 2015, APHIS and its state and industry partners have learned valuable lessons to help implement stronger preparedness and response capabilities. In September, APHIS published a HPAI Preparedness and Response Plan that captures the results of this planning effort, organizing information on preparatory activities, policy decisions and updated strategy documents.
  Despite routine utilization of standard vaccination protocols in broiler breeder and broiler flocks, outbreaks of diseases in broiler flocks still occur.  However, limited data on pathogen prevalence and associated risk factors among commercial broiler flocks in Canada are available. Dr. Michele Guerin, a Poultry Epidemiologist from the University of Guelph recently completed a comprehensive project that investigated the prevalence of nine viruses * and four bacteria of health significance for the Ontario broiler industry.  The study included the associations of exposure to the pathogens with management and biosecurity practices, flock mortality, and condemnations.   “As a contribution to disease control initiatives, this study will enable producers to adopt better strategies to reduce the incidence of these pathogens within their flocks,” said Dr. Guerin in an interview. Pathogen exposureGuerin’s team investigated 231 randomly selected Ontario broiler flocks and results showed frequent exposure to AAAV, ARV, CAV, pathogenic FAdV species, IBDV, Clostridium perfringens, and Enterococcus cecorum, and no exposure to, or low prevalence of, AEV, IBV, ILTV, NDV, Brachyspira spp., and Clostridium difficile. Beyond prevalence, the genotypes of several of these pathogens were determined. “Potentially pathogenic genotypes of FAdV, IBDV, and IBV were identified that can guide vaccine development and disease control efforts in Ontario,” she explains. Although no specific management or biosecurity practice was identified as a predictor of all pathogens investigated, several factors were significantly associated with the prevalence of more than one pathogen (e.g. feed, barn and environmental conditions, hatchery, manure disposal, and antimicrobial use). “Geographic and seasonal variation in the prevalence of a number of pathogens was evident,” Dr. Guerin indicated. “However no one district or season stood out as being a hot-spot or time period of high prevalence for all pathogens investigated.” PrevalenceOf interest, a high proportion of Clostridium perfringens isolates were found to be resistant to antimicrobials commonly used in feed, and use of these antimicrobials was a risk factor in the development of resistance.   “Finding alternatives to the use of antimicrobials in the feed to prevent necrotic enteritis should continue to be a priority for the industry,” Dr. Guerin asserted. Dr. Guerin highlights that of all the pathogens surveyed, only Clostridium difficile poses a potential risk of infection for humans via the food chain, and despite the fact that toxigenic strains were found among the isolates, the proportion of positive flocks was low. This research was funded by the Animal Health Laboratory’s AHSI, Poultry Industry Council, OMAFRA- U of G Partnership, and Chicken Farmers of Ontario.  *Avian adeno-associated virus (AAAV), Avian encephalomyelitis virus (AEV), Avian reovirus (ARV), Chicken anemia virus (CAV), Fowl adenovirus (FAdV), Infectious bronchitis virus (IBV), Infectious bursal disease virus (IBDV), Infectious laryngotracheitis virus (ILTV), Newcastle disease virus (NDV).    
July 14, 2015 - Canada's poultry industry will be able to address a significant productivity issue thanks to a $400,000 investment from Western Economic Diversification Canada. This investment will enable the University of Saskatchewan's Western College of Veterinary Medicine (WCVM) to develop and commercialize a novel technology that delivers an immunity-boosting aerosol protectant to chickens as an alternative to antibiotics. This project supports a multi-regional partnership with poultry farms based in Saskatchewan and British Columbia, and engages highly qualified personnel in Saskatchewan, Alberta, and British Columbia as well as industry associations from both Alberta and Saskatchewan. The funding will allow WCVM veterinary pathologist Dr. Susantha Gomis to realize nearly 10 years of avian immunity research and develop a novel, non-antibiotic, non-vaccine aerosol that can be used at the hatchery to protect birds before they are shipped to farms.  More information is available here. 
  Dr. Suresh Neethirajan and his team from the “BioNano Laboratory” of the University of Guelph have worked to develop a new detection system capable of detecting small amounts of avian influenza virus within minutes. It’s a diagnostic tool not only capable of detecting the virus rapidly on-site, but that will also enable field deployable, point-of-care diagnostic systems. Influenza is one of the most common infectious diseases, resulting in up to half a million human deaths annually. Influenza A, a subtype of the virus associated with pandemics and causing most deaths, is further classified according to the properties of two viral surface proteins called hemagglutin (HA) and neuraminidase (NA). The H1N1 human-adapted strain of the virus caused up to 40 million human deaths in 1919 and the recently detected H5N1 avian influenza strain, commonly termed “bird flu”, has resulted in up to half a million human deaths since 2000. “Considering the threat which avian influenza poses to human health and the growth of the agricultural sector, investing in disease control strategies is vital”, explains Dr. Suresh Neethirajan in describing the issue at hand. “Preventing the spread of the infection is the best way to keep the disease under control. Prevention in this case starts with effective surveillance.” Dr. Neethirajan explains the current status of their findings in a report: “a novel sensing mechanism for quicker detection of avian influenza. Sensitivity of the sensing mechanism is possible for both H1N1-HA and H5N1-HA allowing the discrimination between avian and human influenza. This proves to be extremely valuable in the recent human influenza pandemic caused by poultry birds. We have created a rapid animal health pen side diagnostic tool that only needs less volume of blood, less chemicals and less time compared to the currently used methods. The sensing mechanism and the technique have the potential to serve as a feasible and sensitive diagnostic tool for influenza virus detection and discrimination for poultry industries, with further improvement on the architectures”. The developed sensing assay will aid not only the poultry industries, producers and farmers, but also the public. The technology under development will ultimately be deployed towards early diagnosis of avian influenza. The results from the proposed point of care test for early diagnosis will assist in identifying potential public health threats. This project was funded by the Poultry Industry Council and the Turkey Farmers of Ontario.      
September 21, 2016 - With early harvest feed grain samples confirming a high risk year for potential feed quality issues, livestock operations and feed mills are advised to take cautionary steps to safeguard feed quality and livestock performance. “The risk of feed grain quality issues that can affect livestock performance is quite high this year,” says Rob Patterson, Technical Director for Canadian Bio-Systems Inc. (CBS Inc.) “That’s no surprise with the type of growing season it has been across the Prairies. In many areas it has been very wet with high disease pressure and high risk of mycotoxins, mold and other issues. We are now seeing the risk confirmed in reports from across the region, based on analysis of early harvest grain samples.“It’s a year when livestock operations and feed mills will want to be even more diligent than normal in taking the right steps to safeguard the quality of feed and the performance of livestock consuming the feed.”A good starting point is to send in feed grain samples for analysis, says Patterson. “This can identify the presence and level of mycotoxins and other contaminants. Once you know what you’re dealing with you can take the steps needed avoid any issues.”The convenience, sophistication and accuracy of fast test capability has improved dramatically in recent years, says Mark Peters, Director of Sales and Marketing for CBS Inc. “We have seen a lot more interest in the testing. Industry has become more knowledgeable and cautious about the risk out there and how it can impact production. The testing is a good insurance policy and it’s good for peace of mind. Especially in a year like this one.”CBS Inc. is an example of industry taking on greater capacity in grain analysis to help serve customers. The company offers a tool called MycoCheck that has been developed in part based on studies in partnership with Canadian universities.“The customer sends us a sample, we run the analysis and get back quickly with the information to support a sound management decision,” says Peters. “The technology has come a long way. We see increasingly more livestock operations and feed mills taking advantage.”More information on grain sample analysis options, potential quality issues and options for safeguarding feed and livestock is available by contacting CBS Inc. directly. CBS Inc. offers additional FeedCheck analysis tools. The company also conducts an annual Wheat Survey in cooperation with industry and the University of Manitoba.More information on CBS Inc. and its comprehensive line of feed technology is available at
We have two new cutting-edge Canadian poultry feed developments to present in this issue of Canadian Poultry. First up is a high-protein ingredient produced by Enterra Feed Corporation of Langley, B.C., which recently received Canadian and U.S. regulatory approval for use in animal feed (broilers and pets so far) – the first ingredient of its kind to do so.The ingredient is Whole Dried Black Soldier Fly Larvae (BSF). Black Soldier Flies are native to North America and do not bite or sting. The larvae are high in protein and fat, and grow quickly. Enterra’s Marketing and Operations Manager says BSF are renewable and environmentally-friendly, consuming pre-consumer food waste that would otherwise go to landfill, composting or waste-to-energy operations where the food nutrient value would be lost. Victoria Leung also notes that BSF larvae will consume a wide range of waste food, from fruits, vegetables and stale bread to grains and grocery store waste.All of the company’s production processes were developed in-house by Enterra’s research and engineering teams over the course of several years. “The adult flies are grown in cages under controlled environmental conditions,” Leung explains. “Once the larvae mature, they are either sent back to the cages to emerge as flies or they are harvested as product.”When asked about the potential reaction a consumer might have to eating chicken that has been fed dried fly larvae, Leung says that “based on our experience, we are not too concerned…Insects are a natural source of nutrients for chickens, fish and other animals – it’s what they eat in the wild. Free-range chickens, for example, naturally forage for insects.” The biggest barrier to commercialization of BSF has been clearing regulatory hurdles to achieve approval as a feed ingredient. “However, we are now seeing very good progress on this front, first with the Food and Drug Administration (FDA) in the U.S., and now with the Canadian Food Inspection Agency (CFIA) as well,” Leung explains. CFIA approval this summer came after four years of work, during which time the agency reviewed BSF as a ‘Novel Feed Ingredient,’ did a data review and a complete safety assessment (livestock, workers, food and the environment). “CFIA has a very thorough review process that involves assessing the product for safety, microbiology and efficacy for each target animal type, for example salmon, broilers and so on,” says Leung. “We also needed to show the product worked equivalent to or better than feed ingredients currently on the market.”Enterra is working with the CFIA and FDA to have its BSF approved for use in other animal feeds as well, including poultry layers, other poultry (turkeys, ducks), trout and salmon. Approval is anticipated in mid-2017. The firm is also working to develop new products from dried larvae such as oil and high-protein meal.Because it’s a natural ingredient, we asked Enterra if inclusion of BSF in chicken feed will help with bird gut health, for example perhaps reducing incidence of coccidiosis and necrotic enteritis. Leung responded by noting that “insects contain chitin as part of their exoskeleton structure. Researchers have proposed that inclusion of chitin or chitosan in poultry diets may improve poultry health; however, more research is needed.”Dr. Bob Blair, nutritional scientist and Professor Emeritus in the Faculty of Land and Food Systems at the University of British Columbia (UBC), has studied BSF. “The meal is closest in composition to fish meal and is a valuable feed ingredient,” he says. “It contains 40 to 60 per cent crude protein, depending on the amount of oil extracted during processing.” He has found no issues with blending it into feed, though he notes the high-fat product may have to be stabilized. “I do not have first-hand experience of feeding the meal to poultry since UBC no longer has the requisite facilities, but based on my talks with the company and my understanding of research conducted on similar products elsewhere, I regard it as an excellent poultry feed ingredient. Its main limitation is the cost - can it compete economically with other protein feedstuffs or will its cost limit it to more expensive feeds such as fish feed?” Blair adds that since BSF excrement can be used as fertilizer, the whole BSF production process “is to be welcomed as a sustainable way of producing a valuable feed ingredient from vegetable waste that would otherwise be dumped.”Enterra is currently selling BSF to both Canadian and U.S. customers in the poultry and pet food industries. Scratch and Peck Feeds in Bellingham, Washington began purchasing BSF in April 2015, shortly after it became available on the U.S. market. “We wanted it to package as a poultry treat as an alternative to meal worms which are predominantly grown in China,” explains owner Diana Ambauen-Meade. “One of our company’s values is to source our ingredients as locally/regionally as possible so we don’t buy anything offshore. And we value that they feed the larvae pre-consumer food waste that would normally end up in a landfill as it is a very effective way to close the food waste loop.” She says she fully intends to integrate BSF into her feeds as an alternative protein source to the fishmeal currently used.  When asked about the potential to have widespread inclusion of BSF in U.S. and Canadian poultry feeds, in terms of the environment impact that would have on diverting landfill waste and in the avoidance of other feed ingredients which have greater impact, Leung has a positive outlook. “There is a big potential for our insect ingredients to become a standard inclusion in livestock diets,” she says. “Our company plans to expand far beyond our Langley facility – anywhere there is an abundance of food waste, it is possible to build a commercial insect-rearing facility to upcycle the waste nutrients into sustainable feed ingredients.”Antibiotic replacement?Ontario-based AbCelex Technologies has developing a line of non-antibiotic, non-hormonal products that eliminate or significantly reduce pathogens in the chicken gut such as Campylobacter and Salmonella. “Since these innovative products are based on natural antibodies, there is no risk to human health and no possibility of antibiotic resistance,” says President and CEO Saeid Babaei. “The products will be delivered as a feed additive. Chickens simply ingest the antibody and it selectively neutralizes the bacteria. Our results in live chicks show 95 per cent inhibition of the Campylobacter pathogen, far higher than any other pre-harvest method used in industry and what expected by regulators.”AbCelex is now moving forward with young adult field studies to be followed by large broiler trials to support regulatory submissions, with a goal of market launch in late 2018 or early 2019. “Being the first product of its kind, we will work with various regulatory agencies in getting our products approved,” Babaei notes. “Our commercialization strategy is to directly market to large poultry producers/processors as well as co-marketing opportunities with larger animal health companies…We have already partnered with one of Ireland’s largest poultry producer/processor, Carton Group, which may be involved with commercial farm studies and product registration in Europe.”The very small antibodies (also called single-domain antibodies or nanobodies) employed by AbCelex occur naturally only in the blood of cameloids (camels, llamas and alpacas) and sharks. “The discovery of this novel class of antibodies stems from the early 1990s,” Babaei explains, “when Belgium scientists were studying the blood of cameloids and they noticed that the immune systems of these species produced a unique type of antibody around a tenth of the size of usual antibodies — small enough that they were orally bioavailable, whereas conventional antibody drugs must be injected to enter the bloodstream.” The nanobodies’ small size and flexibility for molecular engineering also allows for cost-effective mass production. In the past several years, AbCelex has increased the resistance of its lead products to the acidic conditions of the animal digestive tract, and also significantly improved their resistance to heat (required in poultry feed preparation). In the past year, they have also produced their lead antibodies in various micro-organism systems, such as yeast. In July 2016, AbCelex received an investment of $3.4 million through Agriculture and Agri-Food Canada’s ‘AgriInnovation Program’ to support further product development. Babaei says this will be conducted in collaboration with Canadian and international academic institutions, companies and contract research groups.
August 4, 2016 - Dr. John David Summers, Professor Emeritus at the University of Guelph, passed away August 2, 2016. He completed both his BSc. and MSc. from the Ontario Agricultural College (OAC) and completed his PhD. at Rutgers. Most of his academic career was spent at the University of Guelph, initially in the Department of Poultry Science and later in the Department of Animal and Poultry Science. His ongoing contacts with industry ensured direct application of his research into various aspects of poultry nutrition that was always timely and insightful. For example, his pioneering work of nutrition and fat deposition in broilers, which is still important today, was started in 1974. His research spanned all the major poultry species, and John could always be counted on to ask penetrating questions at poultry and nutrition meetings around the globe. John was truly one of the pioneers of the golden age of poultry nutrition. Together with his esteemed colleagues, he helped to develop what has become the foundation of our modern strategies of poultry nutrition. John had a close working relationship with Shaver Poultry in Cambridge, Ontario, and in this capacity visited over 50 different countries. John gave numerous invited lectures around the world where his insightful knowledge was always greeted with great enthusiasm, from both students and other professionals in the poultry industry. John authored over 400 research papers and co-authored 5 books on various aspects of poultry production. John became Professor Emeritus in 1990 and received the Order of OAC in 2013. A celebration of life for Dr. Summers is taking place Monday August 15 at the Village Centre at the Village by the Aboretum in Guelph, Ont. from 6 p.m. to 9 p.m. Please RSVP to Bill Summers, This e-mail address is being protected from spambots. You need JavaScript enabled to view it or (226) 820-5000. If you have photos of John that you could share for a photo display, please send them to Bill or bring them with you the day of the event.
August 2, 2016- Canadian biotechnology company AbCelex has received an investment of $3.4 million from the federal government to develop a new line of anti-microbial feed additives to help control disease outbreaks in poultry flocks. Minister of Innovation, Science and Economic Development Navdeep Bains, on behalf of the Minister of Agriculture and Agri-Food (AAFC), Lawrence MacAulay, made the announcement July 29. The company is developing a line of innovative non-antibiotic, non-hormonal additives that are specifically targeted at Campylobacter and Salmonella, two of the most common food-borne bacteria that infect poultry. The new anti-microbials – called “nanobodies” – will result in healthier poultry and improve food safety. AbCelex is a Canadian biotechnology company focused on developing livestock food additives that help improve animal health and food safety. AAFC supports the development and adoption of industry-led initiatives regarding biosecurity and animal care to support the prudent use of antimicrobials. This project will be conducted in collaboration with the International Vaccine Centre at the University of Saskatchewan, the University of Toronto and the Colorado Quality Research Inc. Funding for this project comes from the AgriInnovation Program (Research and Development Stream) as part of the Growing Forward 2 agricultural policy framework.
July 20, 2016 - Enterra Feed Corporation has received regulatory approval for use of its Whole Dried Black Soldier Fly Larvae as a feed ingredient for poultry broilers, the company announced today.  "This is a significant step forward," says Victoria Leung, marketing and operations manager for Enterra. "We can now offer a renewable protein alternative to those companies manufacturing and retailing chicken feed."  Enterra's manufacturing process at its facility in Langley, B.C involves breeding and raising black soldier fly (BSF) larvae, and feeding them pre-consumer food waste that would otherwise go to landfill, composting or waste-to-energy operations where the food nutrient value would be lost. BSF larvae are an ideal candidate for rearing as a feed ingredient as they consume a wide range of pre-consumer waste food (e.g. waste fruits, vegetables, stale bread, grains, grocery store waste), are native to North America, do not bite or sting, are high in protein and fat, and grow rapidly under controlled conditions.  There are several benefits to insect protein, and Enterra expects feed manufacturers to be eager to consider this ecological protein alternative, according to Andrew Vickerson, Chief Technology Officer with Enterra. "Insects are a natural food source for poultry," he says. "Other sources of protein used in animal feed include fish meal, which causes depleted fish stocks, or soybean meal, which requires many inputs and acres of land, which could be used for human food production."  The approval from the Canadian Food Inspection Agency (CFIA) comes after four years of work, during which time the CFIA reviewed Enterra's product as a Novel Feed Ingredient, including a complete assessment of product safety (to livestock, workers, food and the environment), and a data review.  In the US, the Ingredients Definition Committee of the Association of American Feed Control Officials (AAFCO) accepted Enterra's application to use Dried Black Soldier Fly Larvae in salmonid feed earlier this year. The definition was reviewed and agreed to by the Food and Drug Administration (FDA). This was the first time a federal regulatory body in North America accepted the use of an insect based ingredient as a source of energy and protein for use in animal  feed.  Although insects make up an important part of the diet of fish and poultry in the wild, they had not been approved as a feed ingredient in animal production in North America until this year. These approvals come at an important time as the demand for sustainable feed ingredients is growing. By 2050, the Food and Agriculture Organization of the United Nations estimates that the demand for food is going to increase by 70 per cent and the demand for meat product is going to double.  News from © Canadian Press Enterprises Inc. 2016
July 14, 2016 - The global poultry industry is increasingly utilizing dietary β-mannanase enzyme supplementation for poultry diets as a valuable option to enhance production. But are the purported benefits supported by the latest science? New research results, unveiled at the 2016 Poultry Science Association (PSA) annual meeting, July 11-13 in New Orleans, call into question the value of single activity β-mannanase source formulations, particularly when used with soybean meal based diets representing the vast majority of global production. The fresh knowledge presented at PSA centres around a newly completed study led by Dr. Anna Rogiewicz of the University of Manitoba – an institution recognized among the global leaders in novel feed ingredient and feed enzyme research. Program collaborators include the University of Warmia and Mazury in Olsztyn, Poland, and Canadian Bio-Systems Inc. “We’re learning that the story around mannans and mannanase is more complex,” says Rogiewicz. “There are questions that need more validation in the context of a soybean meal based diet, including the theory that β-mannans in the feed trigger an energy-draining feed induced immune response that would be minimized by β-mannanase supplementation.” The multi-component study included analysis of β-mannan content in soybean meal based diets, along with in vitro experiments to evaluate the affinity of several leading β-mannanase source formulations, specifically with soybean meal based β-mannans. The study also involved an in vivo broiler chicken trial to further evaluate impacts with the β-mannanase source formulations added to soybean meal based diets. This component was designed to evaluate the immune trigger theory. The results confirmed that the β-mannan content within soybean meal based diets is very low and that – as opposed to the high amounts of β-mannans present in guar, copra or palm kernel meals – this small amount in soybean meal is not likely to contribute to any increased intestinal viscosity in poultry fed corn/soybean meal based diets. The in vitro experiments showed substantial breakdown of β-mannans due to β-mannanase activity. However, results with the in vivo study showed “no effect” in terms of growth performance. There was also no evidence shown to indicate that the level of soybean meal based β-mannans triggered a feed induced immune response. This was evaluated by analysis of the weight of immune organs and the level of immunoglobulins in serum and the intestine. “The theory has been that because β-mannans have a molecular pattern similar to some pathogens, this triggers a feed induced immunity response, thereby consuming energy that would be preferably directed to growth and performance,” says Rogiewicz. “However, the results of this study would indicate no feed induced immunity response triggered by β-mannans in soybean meal based diets. This may be due to the very low level of β-mannans in soybean meal based diets, as opposed to the much higher levels in, for example, copra or palm kernel meal based diets.” Broader research and analysis by the University of Manitoba program suggests the best pathway to address β-mannans, along with a full range of target substrates in poultry feed, is through a multi-carbohydrase enzyme approach that utilizes synergies between enzyme sources and activities to maximize feed nutrition capture.  More information is available at  
The swell of demand from North America’s largest food companies for cage-free eggs is a stunning example of why public trust in our country’s food system matters. The huge number of cage-free commitments from food makers, retailers and restaurants in Canada and the U.S. stems from how these companies perceive overall consumer opinions on hen housing – the fact that consumers do not trust that farmers know best with regard to housing systems that provides the best life for hens. While these North American food companies (see sidebar) are no doubt being influenced by cage-free commitments already made by their subsidiaries or peers in Australia, the UK and the EU, their promises to only source cage-free eggs in these other parts of the world are again based on consumer perception, largely influenced by animal activist groups.   The united cage-free front of North American food makers, restaurants and retailers suggests that cage-free housing is inevitable in both Canada and the U.S. There are simply no major egg buyers who want anything else. “This is a done issue in the U.S.,” says Josh Balk, senior director for food policy at the Humane Society of the United States. “I can’t see the Canadian scenario being any different.”   However, whether egg farmers in either country will be able to meet the deadlines  is far from certain.   Eggs Farmers of Canada (EFC) has currently committed to reaching 50 per cent cage-free production within eight years (2024), 85 per cent within 15 years and to have all hens “in enriched housing, free-run, aviary or free-range by 2036, assuming the current market conditions prevail.” This does not line up with North American food industry timelines of sourcing only cage-free eggs by 2025 or sooner. For example, Retail Council of Canada members such as Loblaw and Wal-Mart have committed to 2025, and David Wilkes, Retail Council senior vice-president of government relations and grocery division, says they “will continue to work with producers and processors to transition to this housing environment.” Burnbrae, sole egg supplier of McDonald’s Canada, is switching all its production for that customer to cage-free to meet the restaurant chain’s 2025 deadline. In the U.S., Rose Acre Farms and Rembrandt Farms, the country’s second and third largest egg producers, are already converting to cage-free barns. A&W Canada currently stands alone among North American food industry companies in its support of enriched housing. The fast food company says it “has worked very hard to have our eggs come from hens that live in enriched cages,” and that it “will continue to serve eggs from enriched housing while we work towards better cage-free housing.” The chain recognizes that Canadians want their eggs to come from hens housed outside of cages, but adds that “there are currently no viable commercial cage-free housing options that meet our strict standards.” To that end, in March 2016 A&W announced it wants to work with Canadian charity Farm & Food Care to bring egg industry partners, retail and food service from across Canada together with the U.S. Center for Food Integrity’s Coalition for a Sustainable Egg Supply to discuss all issues impacting sustainable eggs (including food safety, environment, hen health, worker health and safety and food affordability), and determine areas that the Canadian egg sector feels funding would be best spent. A&W has offered a grant of $100,000 to further this research. For it’s part, EFC recognizes research that shows each production system comes with trade-offs. We asked EFC about the fact that for any Canadian egg farm to convert to enriched cages and keep the same production level, new barn(s) will likely have to be constructed because the same number of birds cannot be housed in enriched cages in a given barn as were housed in battery cages. Does EFC see this as a particular challenge for Canadian egg farmers in terms of costs and the land required? “There are many factors a farmer needs to consider when evaluating the realities of transitioning an operation,” EFC states. “What’s important to keep in mind is that every farm is different (e.g. size, location, etc.) and until farmers start working through the implications of their transition—carefully considering his/her requirements—any estimation of cost is speculative.” While EFC is currently looking into the financial implications of various alternative housing systems, we asked also if cage-free barns are less expensive than enriched cages, taking into account the possible requirement for new barn(s). “The decision to retool an existing barn or build a new barn is an important component of each farm’s individual transition plan,” EFC states. “Shifting to a new production system with different space requirements can impact the overall size of the flock. Typically, alternative housing systems have a larger building footprint and do not contain as many birds and conventional housing systems.” Cost is a concern for the United Egg Producers, which represents those producing almost 90 per cent of American eggs, and for the National Association of Egg Farmers (NAEF), which represents about one per cent of U.S. production. NAEF is against mandated cage-free production for other reasons as well, including increased egg prices, increased mortality due to cannibalism and other factors, increased pecking injuries, higher risk of contamination due to prolonged exposure of eggs to litter and manure in nest boxes or on the barn floor, high dust levels and ergonomic challenges in egg collection.   Canada’s National Farm Animal Care Council (NFACC) released the draft version of the Code of Practice for the Care and Handling of Layers for public comment in June. The draft does not promote any type of housing over any other, but does include new recommendations for roomier cages. In the end however, any attempt to convince the North American foodservice industry of the merits of any other type of housing except free-run/cage-free may be a lost cause. Marion Gross, senior supply chain management vice president at McDonald’s USA, may have summed it up best in her statement in January 2016 in the Chicago Tribune: “Enriched [housing] doesn’t mean anything to our customers, but they know what cage-free means.”
North Carolina State University (NCSU) is the only remaining venue in North America at which comparative testing of egg laying stocks takes place. At one time in the mid 1960s, there were more than twenty locations in the U.S. and Canada where Random Sample Laying Tests were conducted. Instead of abandoning testing altogether, NCSU chose to superimpose a variety of management systems, cage sizes and configurations on top of the strain comparisons. In the 39th test, stocks were exposed to the following: conventional cages, enrichable cages, enriched colony housing, cage-free and range. A total of 20 strains from six different breeding companies were included. Of the 20 strains, 14 have wide commercial distribution in the southeast U.S., while the other six are either experimental or have limited or no distribution. With respect to Canadian distribution, most of the stocks available here are included in the test. Day-old chicks were supplied either by breeders or commercial distributor hatcheries.   Conventional cage resultsTwo cage densities were used: 69 sq. in. (445 cm2) and 120 sq. in. (774 cm2). The higher density (445 cm2) approximates to commercial practice, although space allowances are progressively increasing. Summaries of the data were prepared from 119 to 483 days of age. The flocks were then moulted and data was again summarized at 763 days of age. Only the first cycle (to 483 days) data are reviewed here. Comparing the cage densities showed that in white-egg hens housed at 774 cm2/hen, feed intake was higher by 10 g/bird/day, eggs per hen housed was higher by 7 eggs/hen and mortality lower by 0.86%. Comparing the strains is complex. Table 1 shows some key data for all 12 white-egg strains tested. Feed intake varied from 96 to 110 g/hen/d. This is, of course reflected in the feed cost data. The strain with the lowest feed intake (Hy-Line CV26) also had comparatively low egg production and egg weight, and thus low value of eggs minus feed. However, the strain with the next lowest feed intake (Shaver White) had much higher egg production, modestly higher egg weight, and very favourable value of eggs minus feed. With two exceptions, the numbers of eggs per hen housed were quite uniform. Statistical analysis showed that most of the strain differences were not significant. Those with production >317 eggs/hen housed were significantly different from those with production <300. Mortality data are not shown, but mortality was low, averaging 3.9%, and no significant strain differences were observed. Egg weight was also quite uniform. The average of 60.1 g/egg leads to size categories of approximately 63% extra large, 22% large and 8% medium. For each 1.0 g increase in average egg weight, approximately 5% of the large size move to extra large. In the test situation, extra large eggs were priced approximately three cents per dozen more than large. In most Canadian situations, this premium does not exist. However, when egg weight falls 1.0 g below average, the number of medium size eggs increases two to three per cent, which causes a significant financial penalty. Turning to the nine brown-egg strains, the first thing to note is the difference in performance between the two cage densities. Brown-egg hens given more space (774 cm2 versus 445 cm2) consumed 11 g more feed/d, and laid 16 more eggs/hen housed. Mortality was 2.5% less in the larger space, although this difference was not statistically significant. The data, when combined, showed an extra $1.00 in egg value minus feed cost for the higher space allowance. For the white-egg strains, the difference was only $0.28. The brown-egg strains feed consumption varied from 103 to 110 g/hen/d, and hen-housed production from 304 to 314 eggs. Few of these differences were statistically significant. With one exception, the values for egg income minus feed cost were also quite uniform. One is impressed by the relatively small differences between the white and brown-egg strains in these comparisons. Feed intake was actually lower among the brown-egg strains; egg numbers and egg weight were only marginally lower. Traditionally, one would expect higher feed intake and egg size for the brown strains. Alternative housingEnrichable cages (EC) are 66 cm x 61 cm with 9 birds/cage (447cm2/hen).  The cages are belt cleaned. Enriched colony housing (ECS) is the same style of cage but 244 cm wide and includes a nesting area and a scratching area of 1.85 m2  each, plus two perches each 123 cm long.  Two bird densities were compared in this system: 36 hens/cage (447 cm2 each) and 18 hens/cage (897 cm2 each). Cage-free housing consists of a combination of slat floor and litter, with nest boxes and perches.  Each pen is 7.4 m2 and holds 60 hens in the adult phase (8.1 birds/m2).  Birds in this system were grown in the same pens used for the laying phase. The range system, used for only three strains, consists of pens 3.7 m x 2.0 m holding 60 hens.  They have access to 334 m2 of grass pasture.  The pasture is divided in two and rotated every four weeks. Not all strains were exposed to all of these environments. For example, only two brown-egg strains and one white-egg strain were tested on range.  All except two strains experienced the enrichable cages and the enriched colony system. This makes it hard to compare both the strains and the environmental systems, but we can draw a few conditional conclusions. All birds were moulted during the test, which lasted until 623 days of age. Comparing environmental systemsTen white egg strains were exposed to both EC and ECS systems.  The most striking difference between these was with respect to laying house mortality. When hens were housed at 69 sq. in./hen,  the ECS system showed 23% laying house mortality compared with 16% for the hens in smaller cages, but the same space allowance.  While both values are extremely high for contemporary laying flocks, the larger colonies were clearly at a disadvantage.  Mortality for the same strains in conventional cages in a different building was 4.3%. Brown-egg strains compared in the same conditions showed overall lower mortality and no differences between ECS and EC. Among the white-egg strains, only Hy-Line W36 had relatively low mortality (6.0% and 7.4% in the EC and ECS systems respectively.) Comparing the white egg strains in the ECS system at two different densities (447 cm2 versus 897 cm2) showed a definite benefit to the lower density.  Mortality was only 9.9% versus 23%. Brown egg strains also benefited from the more generous space allowance, although to a lesser extent: 7.1% mortality versus 10.9%. Seven white egg strains housed in the cage-free system showed mortality of 14.3%; eight brown egg strains had 15.6%. On free range, the one white egg strain tested had 13.3% mortality, while two brown egg strains averaged 3.75%. While there were some strain differences in mortality within management systems, the general conclusion must be that large colonies and higher densities are associated with higher mortality.  This is not a new discovery but one that is not encouraging for those producers planning on meeting the demand for cage-free or even furnished cage management systems. Feed intake and egg production were also affected by management system, as shown in Table 4. In general, birds in larger colonies tended to consume more feed. This may be because of perceived increased competition in the larger colonies.  Feed consumption was also higher in the cage-free and free range systems.  As to egg production data, there were no real trends and the figures for the brown strains kept at 447 cm2 do not appear to be consistent with the other data. Because of the fact that not all strains were tested in all environments, it is not possible to make realistic comparisons between them. Presented in Table 5 are the highest ranked “Egg value minus feed cost” data for each of the environmental systems. Most notable among these data are the low values for the free-range flocks.  These reflect relatively low egg production and high feed cost. As in conventional cages, the greater space allowance in the enriched cages resulted in higher values for egg income minus feed cost. Whether this would offset the higher cost associated with the extra space is doubtful. All told, these data from the North Carolina Laying Test are of interest but this is limited by the very high mortality experienced in all but the conventional cage systems.  Causes of mortality are not reported.  As noted above, higher mortality is frequently associated with large colonies and with non-cage systems.  This runs counter to the popular belief among consumers that bird welfare is improved in such systems.  Until the systems can be improved, or consumers become more accepting of small colonies or conventional cages (unlikely in this writer’s opinion) industry will be faced with higher costs while producing eggs to meet the demand for cage-free eggs. For those interested in the complete data from the test, they are available online at  
April 9, 2016 - Connections and collaboration were a key theme during the Poultry Health Research Network (PHRN) Research Day at the University of Guelph March 29. The research day brought together representatives from government, industry and academia to provide updates on current research and prompt discussion for future collaborations. “The whole intent was to ensure that our industry partners and our researchers, either from academia or the government agencies that work with us, have a chance to mingle and talk about their research needs and what we can do to address those research needs,” said Dr. Shayan Sharif, an immunologist in the Ontario Veterinary College’s Department of Pathobiology and leader of the PHRN. The University of Guelph has had a long-standing commitment to innovation in animal health and production, with one of the largest groups of poultry scientists and poultry experts in North America. The Poultry Health Research Network has been steadily expanding since its inception in 2012 and now includes more than 60 members from across the UofG campus, as well as industry and government researchers.  Lloyd Longfield, Member of Parliament for Guelph, addressed the group during lunch, pointing out how important it is to work together to “share resources and specific expertise to solve global problems.” Bringing everyone together in the room is where it needs to start, he added. “We’ve got researchers from the government here, we’ve got researchers from university, we’ve got industry and that’s really the chemistry we need to drive forward.” “Here at the University of Guelph we have an unprecedented and unique gathering of expertise in support of the poultry industry,” said OVC Dean Jeff Wichtel, in addressing the group. “It involves upwards of five of our seven colleges and spans the breadth from poultry welfare right through to vaccine development and molecular basis for immunity to disease.” During the day, UofG researchers, including MSc, PhD students and post-doctoral researchers, outlined current research in a variety of areas, including poultry welfare, biosecurity, vaccine development, nutrition, and antimicrobial resistance. Afternoon presentations with industry representatives, including pharmaceutical, feed, genetics and equipment companies, and researchers provided a forum to explore areas of mutual interest for future collaborations. Sharif recognized funding from the Ontario Ministry of Agriculture, Food and Rural Affairs for part of the research day and also acknowledged the Poultry Industry Council, Canadian Poultry Research Council, Livestock Research Innovation Corporation and the Ontario Veterinary College for their ongoing support for PHRN’s work. 
March 21, 2016 - Synergy Agri Group of Nova Scotia is the latest winner of the award for the top Cobb500 breeder performance in Canada. The award was presented to Synergy production manager Gary McAleer by Cobb-Vantress technical service manager for Eastern Canada, David Engel.  The group was also presented with the award for the top chick producing Cobb 500FF flock as well as the top egg producing Cobb 500 flock in Canada  Ranked on adjusted production to 65 weeks of age, the company averaged 150.91 chicks / hen housed on all of their flocks.  Their flock in Barn 5 won the award for the most chicks with an individual Cobb 500FF flock and shared the award for the most total eggs, averaging 159.37 chicks / hen housed and 189.9 total eggs, adjusted to 65 weeks of age. ”Gary and the team at Synergy once again showed that paying attention to the finer details of flock management will help achieve such excellent results,” said David Engel. An award was also presented for the top Cobb 500SF flock which Couvoir Boire & Frères in Quebec won for the third year running.  The flock at Girard-1 achieved 151.26 chicks / hen adjusted to 65 weeks of age. Sharing the award with Synergy’s B5 barn for the highest total eggs with a Cobb 500 flock was Barn      B-52 at the Pondeuses Atlantique farm in New Brunswick.  This flock produced 189.20 total eggs adjusted to 65 weeks.  
March 18, 2016 - The Retail Council of Canada (RCC) grocery members, including:Loblaw Companies Limited, Metro Inc., Sobeys Inc., and Wal-Mart Canada Corp., announced that they are voluntarily committing to the objective of purchasing cage-free eggs by the end of 2025. The grocery members of the Retail Council of Canada (RCC) remain committed to taking a leadership role in animal welfare and have been working collaboratively to ensure the animal products they purchase meet stringent food safety standards and are raised in a sustainable and humane manner. Guided by this approach, RCC and its members have been actively engaged in domestic and international discussions related to egg production. "There have been significant discussions over the last several months among producers, processors, the scientific community and consumers regarding the best approach for raising hens," says David Wilkes, RCC Senior Vice President of Government Relations and Grocery Division. "These discussions have led to the announcement our members are making today, further demonstrating our commitment to providing Canadians with responsibly sourced food." Wilkes commented that: "this voluntary commitment is made recognizing the restrictions created by Canada's supply management system and importantly this objective will have to be managed in the context of availability of supply within the domestic market." A key part of RCC's approach to animal welfare issues is support for the National Farm Animal Care Council (NFACC). NFACC is the only group in the world that brings together animal welfare groups, retailers, government and farmers under a collective decision-making model for advancing farm animal welfare. NFACC is currently finalizing recommendations on a Code of Practice for Layer Hens. This code will provide guidance to industry on a number of areas related to the sound management and welfare practices through recommendations and requirements for housing, care, transportation, processing and other animal husbandry practices. Wilkes concluded by saying that: "RCC remains firmly committed to the NFACC process and will work with other participants to not only advance our voluntary commitment to move to cage-free environments by the end of 2025, but also by ensuring suppliers adhere to the Code's recommendations." The Code is expected to be finalized later this year.
Agricultural operations contribute to the atmospheric burden of pollutants, mainly in the form of ammonia (NH3), particulate matter (PM) and greenhouse gases (CH4 and NO2).     Poultry operations are major emitters of PM and NH3 whereas other pollutants are emitted to a lesser degree.  Much still remains unknown about the variability in the emissions of pollutants. Additional issues are evident with PM that relate to its composition, toxicity and pathogenicity. PM2.5 are typically secondary particles formed by the reactions of specific gaseous pollutants that create fine airborne salts and liquid aerosols. Secondary inorganic aerosol (SIA) formation chemistry typically involves NH3 as an alkaline precursor gas.  As NH3 is produced in poultry houses, SIA particles may be partly responsible for the high PM2.5 levels observed. Thus, if SIA are being formed, it may be feasible to reduce the toxic PM2.5 levels in the house by targeting gaseous NH3 and/or the other reactive gases directly with control methods and thus reduce exposure to both poultry and barn workers. Dr. Bill Van Heyst and his team from the University of Guelph’s School of Engineering conducted a study to determine some of the impacts poultry production has on our environment. OBJECTIVESThe study investigated the indoor concentrations and emissions to the atmosphere of a variety of air contaminants from different poultry production systems.  Measurements included: Air emissions from poultry housing units Air emissions from litter storage facilities Ammonia emissions from land application of litter Assessment of nitrogen loss via emissions from deadstock composting The overall objective of this project was to provide a sound scientific knowledge base regarding actual agricultural air emissions.  Contaminants focused on included: size fractionated particulate matter (PM), NH3, SIA concentrations and emissions as well as that for CH4 and non-methane volatile organic compounds, sulfur dioxide and other gaseous gases.   Air emissions from poultry housing units:a)    Broiler and Layer facilitiesActual pollutant emissions were determined for broiler chicken (NH3, PM2.5, PM10 and CH4), layer hen (NH3 and PM2.5 and PM10), and turkey grow-out (NH3 and PM2.5 and PM10) housing units NH3 and PM10 emissions peaked during the winter months, while PM2.5 emissions peaked during the summer months in the layer hen facility b)    Efficacy of a sprinkler system to control NH3 and PM levels Use of a sprinkler system reduced pollutant emissions more so for PM10 and PM2.5 than NH3 emissions. c)    Effectiveness of Poultry Litter Treatment (PLT) application Poultry litter treatments reduced ammonia emissions Measurement of air emissions from litter/manure storage facilities:a)    Broiler litter storage facilities emit more CH4 than that from cattle manure but less than liquid swine manure storage facilities.   b)    Broiler litter storage facilities emit more N2O than that from cattle manure and liquid swine manure storage facilities. Measurement of air emissions from land application of manure/litter:a)    NH3 losses from the broadcasted broiler manure were found to be 22 per cent and 25 per cent of the NH4-N applied after 72 and 132 hours respectively. Measurement of nitrogen loss via ammonia emissions from deadstock compostinga)    The NH3 emissions for piles using poultry litter were greater than that of the control (wood chips) and the finished/mature poultry compost, whereas the CH4 emissions were the lowest. Dr. Van Heyst’s research was supported by the Natural Sciences and Engineering Research Council of Canada, Poultry Industry Council and CPRC. SponsorshipAviagen Inc. renewed its Research Sponsorship for 2015. CPRC appreciates Aviagen’s continued support of poultry research through the Research Sponsorship Program (  Aviagen funds have helped support more than $8 million in poultry-related research through both CPRC’s annual funding call and as part of the Poultry Science Cluster since 2012.   CPRC, its Board of Directors and member organizations are committed to supporting and enhancing Canada’s poultry sector through research and related activities. For more details on these or any other CPRC activities, please contact The Canadian Poultry Research Council, 350 Sparks Street, Suite 1007, Ottawa, Ontario, K1R 7S8, phone: (613) 566-5916, fax: (613) 241-5999, email: This e-mail address is being protected from spambots. You need JavaScript enabled to view it , or visit us at        
  Chickens, like all vertebrates, are governed by a circadian rhythm that is governed by the natural light/dark cycle of day and night. As such, chickens mostly rest and are inactive at night, especially when it is dark.  Although they do rest during the daylight hours, most of their feeding and activity is performed during this time.    Studies show that just as in humans, major abrupt changes to the day/night cycle of the chickens, such as waking up the chickens at night with loud noises, will lead to stressed and anxious chickens. In addition, studies have shown that loud noises such as found near airports, rail road tracks or loud hydraulic or pneumatic equipment and machinery close to the chickens leads to lower egg production, stunted growth, higher blood pressure, stress and fatigue in the birds.  A study has shown that loud noise simulating noisy ventilation fans and operational machines found at slaughterhouses led to increased plasma corticosteroids, cholesterol and total protein.1 This study recommended the control of noise pollution near the chickens and chicks. Other studies show that noise levels past the 85 dB level can lead to a decreased feed intake of between 15 to 25 per cent.  Lower feed intake stunts chicken growth — something the poultry farmer or processor does not want. But all is not lost. Below are some tips and advice to reduce the noise level to an acceptable and healthier level leading to happier and healthier chickens – both psychologically and physically. First identify the sources of noise pollution equipment. Use a sound measuring tool if necessary. Erect sound barrier secondary glazing in windows. Establish your chicken farm in a quiet area away from airports and industrial areas and rail yards. Maintain your ventilation fans and feeding machines making sure they are not producing excess noise. Try to buy machines that produce the least noise possible. Avoid repairs and renovations with noisy equipment, especially during the rest and sleep hours of the chickens Muffle noisy equipment. Make sure that family members do not honk the car horn too often during chicken sleep hours. Investigate “active noise control” - a noise cancelation anti-noise system that produces sound waves of the same amplitude as the noise pollution, but in opposite polarity causing a cancelling of the noise pollution. Train employees and family members to respect the sleep hours of the chickens - they should not be screaming out to each other, joking etc. around sleeping chickens. We simply see that it’s about common sense and respect. We need to respect the fact that chickens are living beings that need many of the same things that we need, including a good night’s sleep and some peace and quiet during the day. We just have to sensitize ourselves by imaging how we feel when we are woken up while we are asleep. We feel grouchy the next day and are less productive in the office. If we internalize this reality, we will treat the chickens with more respect, which not only is the proper thing to do, but it is actual good business sense. The results will be healthier, bigger chickens.  Thus, everybody gains by respecting the chickens needs not to be exposed to high levels of noise pollution: the commercial poultry farmer, the backyard chicken farmer enthusiast, the processor and the chickens. Ronnie P. Cons is EVP of C&C Packing Inc., a leading Canadian distributor of meat and poultry. He can be contacted at
  I was attracted to a review article on this topic in the September 2015 issue of the World’s Poultry Science Journal (Harlander-Matauschek et al, vol.71, pp 461-472).  It is the outcome of an International Keel Bone Workshop held in Switzerland in 2014. For local interest, I also reviewed the paper of Petrik et al in Poultry Science, vol.94, pp579-585. Unusually for a review paper, this one is primarily targeted at what is not known, and mainly consists of 9 recommendations for further study. Most scientists in the field, and also experienced managers of layers, intuitively know that the keels of laying hens are susceptible to damage during the laying cycle.  This was first brought to light several years ago when scientists in England examined carcases of spent hens following slaughter, and found a high incidence of keel damage and breakage.  The degree to which this causes pain or distress during the life of the birds is not known. In live birds, damage to the keel can only be determined by palpation, and there is no recognized standard method, or protocol for evaluating or reporting the results.  There is also the distinction between actual fracture of the keel, and various levels of distortion or deformity.  Fractures usually result in a callus around the fracture site that can be detected on handling the bird.  So the first recommendation in the review paper is to develop a uniform method of evaluating keel bone damage so that future results will be comparable.  Petrik et al studied only keel fractures. The second recommendation was to investigate the kind of event or bird activity that results in keel damage.  In non-cage systems, collisions with other birds and with furniture and equipment are thought to be some of the factors.  However, even in conventional cages, keel damage occurs, but the reasons are not known. Another unknown is whether initial deviation or distortion of the keel, from whatever cause, may result in keel fracture. Do birds reared in different environments have different potential for keel bone damage in adult life?  This is yet another unanswered question.  Growing birds in an environment where wing flapping is encouraged is thought to improve locomotor skills and thus may avoid some of the (also largely unknown) challenges that result in keel damage. In non-cage laying systems, individual birds as well as groups may display escape reactions to events that result in panic or fright. This can result in keel bone damage.  These events may result from management activities and are thus susceptible to variation and potential improvement, but they must first be identified and studied. As with any, even imprecisely measured, characteristic, there is always the question of a genetic influence.  Interestingly, these 21st century scientists managed to find a study reported in 1955 showing that the tendency to develop keel deformity could be altered by genetic selection. Whether the methods used in this selection experiment would be relevant to contemporary keel damage observations would need to be confirmed. If genetics is involved, can nutrition also play a part in affecting keel bone damage?  The answer to this question is, of course, related to how nutrition influences bone development and maintenance.  And this in turn may be related to the interactions involved in egg shell deposition and bone integrity.  The likelihood of direct involvement of calcium balance as it affects shell deposition and keel bone integrity is probably low.  This is because the calcium flow from bones to the egg shell gland is from the long bones and not the keel. There are large differences in keel fracture incidence between housing systems and even within similar systems.  Perches, although considered desirable from a welfare standpoint, seem to result in elevated keel damage and fracture.  But different materials used for perches result in widely variable keel damage.  Round metal perches seem to be inferior to other designs.  Petrik et al’s work in Ontario compared keel fractures in conventional cages with single tiered floor housing and found almost double the incidence in the floor systems. The final recommendation from the Harlander-Matauschek paper in to investigate and quantify keel bone damage and production losses.  A new report (as yet unpublished) shows that birds with keel fractures laid eggs with reduced shell breaking strength.  This would represent a serious challenge if confirmed.  The fact that most of the keel fractures appear to occur during the period of peak egg production would suggest that the nutrient status of the affected birds is inadequate to support both maximum egg production and bone maintenance.  The inadequacy must be minimal though, since many flocks continue to lay at or near peak level for many months and if keel damage is compromising productivity, its effect must be very small. In reading this research, one can sense the authors’ frustration at the lack of clear information. Obviously, much more research is needed before industry would be able to take firm action to deal with this problem.    
Research from the University of Saskatchewan shows that the impact of beak trimming poultry at a young age, if done properly, is minor. This is compared to the greater impact on flock welfare of not trimming. Researchers globally have studied the impact of beak trimming and beak trimming methods, as this practice has been criticized for its impact on bird welfare. “Research in our lab and labs of others have found that when beak treatment is performed appropriately, with proper techniques and at young ages, the negative impact of the treatment itself is relatively minor in comparison to the larger animal welfare concern of feather pecking and cannibalism,” writes Dr. Karen Schwean-Lardner in a report about the project.   In terms of beak treatment she explains that infrared beak treatment (IRBT) birds are less impacted from a welfare perspective than birds treated with hot blade trimming. She adds that there is some suggestion that using IRBT does not seem to affect all strains of birds in the same way, particularly white versus brown feathered strains A research team led by Schwean-Lardner and Dr. Henry Classen has recently completed a three year project which addresses questions regarding the need to adjust IRBT settings for specific bird breeds.   The team worked with  two white and two brown feathered commercial strains of laying hens. Their work  looked specifically at beak morphology differences between the strains, and aimed to determine the impact of variation in IRBT settings on beak characteristics, healing and re-growth, production and welfare.   “It is imperative to establish guidelines for infrared treatment use that result in the benefits producers expect, while maintaining the welfare qualities of this procedure.” In their report, Classen and Schwean-Lardner describe the main findings of the research team: “IRBT settings should be adjusted for specific conditions, including strain, but it also suggests that some variation in treatment settings does not have important welfare or production effects.”   They went onto explain: “The effects of IRBT are short-lived and minor, and likely a reaction to the treatment and beak sloughing. The nature of beak sloughing due to treatment was quite different and the effect was strain specific. However, despite these differences, growth and production later in life were unaffected.” “This research will hopefully produce consensus on the value of the technique, and will also refine the technique to permit ever increasing success in beak growth in an animal welfare appropriate way.” This research was funded by the Poultry Industry Council.  The research team would like to thank  Clark’s Hy-line Inc., Brandon Man. for allowing them to work in their facility.
August 31, 2015 – A sold-out crowd of 250 gathered at War Memorial Hall at the University of Guelph on August 27 to hear world-renowned animal behaviourist Dr. Temple Grandin give a keynote presentation. Dr. Grandin addressed the audience for an hour, talking on the subject of how different minds solve problems. She then met with attendees at a reception following her presentation. Dr. Grandin is an inspiration to people with autism for her work as an animal behaviorist. Dr. Grandin has developed humane livestock handling systems, and has worked as a consultant to the livestock handling industry on animal care standards. She has, in addition, designed processing facilities in which half the cattle in the United States are handled while working for Burger King, McDonalds, Swift and others. Dr. Grandin was in Ontario assisting with the Professional Animal Auditor Certification Organization training (PAACO). The organization’s mission is to promote the humane treatment of animals through education and certification of animal auditors. Dr. Grandin was named by Time Magazine as one of 2010’s “100 most influential People in the World”. HBO also produced the award-winning biographical film on her life entitled Temple Grandin. She currently speaks around the world on both autism and animal behaviour. The event was organized as a fundraiser for Farm & Food Care Canada. The charitable organization, based out of Guelph, cultivates appreciation for food and farming by connecting Canadian farm gates to our dinner plates. Farm & Food Care is a coalition of farmers and associated businesses proactively working together with a commitment to provide credible information and strengthen sustainable food and farming for the future. For more information on the initiatives of Farm & Food Care Canada, please visit
May 22, 2015 - A national training and certification program for those who handle and transport farm animals will be made available online thanks to $180,000 in government funds. The money comes from Growing Forward 2, a five-year provincial and federal initiative that supports a variety of projects in the agriculture and agri-food industries. The Canadian Livestock Transport (CLT) Certification program was developed in Alberta in 2007 and has enjoyed national and U.S. participation since the program was moved to the Canadian Animal Health Coalition in 2013. This has included growing international recognition of CLT as an innovative, pioneering program and a leading example of industry-driven leadership in livestock welfare. The overall goal is to help ensure that farm animals inCanada are transported in a safe and humane manner.The Canadian Animal Health Coalition is very pleased to receive this funding, said Coalition Chair, Jennifer MacTavish. "It will allow us to advance the highest animal welfare standards in the transport of farm animals," she said. The funding will be used to develop interactive multimedia online materials and delivery of the existing CLT program that is offered to transport drivers and handlers of livestock and poultry. The program is uniquely Canadian, reflecting Canada's standards and regulations and is available for those who transport or receive cattle, hogs, horses, sheep and poultry. Although voluntary, a growing number of companies that process meat now require drivers and handlers to have this certification, said Mark Beaven, executive director of the non-profit coalition. It is estimated that 5,000 to 10,000 people are involved in the transportation of animals in Canada. Currently, about 1,500 transport drivers and handlers who load and unload livestock and poultry are certified. Re-training is required every three years to maintain certification and the online program will not only make the recertification process more efficient and consistent but will allow more people across the country to participate, said Beavan. The training involves everything from knowing the regulations and proper techniques for the safe handling of animals, to loading capacities and avoiding overcrowding as well as biosecurity and other protocols that are necessary to protect agricultural industries. Program details can be found at "This funding allows us to take the program into the 21st century," he said. "It will be very interactive and intense, but it allows the current participants to be recertified and new ones to come on board and do it at their own pace."  It will build Canada's reputation as "a world leader" in the safe and humane handling of farm animals, he added.     
  As consumers, retailers and the broader community continue to demand movement towards housing systems that place high value on offering improved behavioural opportunities for hens, it’s important to track measures related to their physical condition. Do the proposed solutions carry unintended consequences? What are the physiological and physical effects of more open housing systems? As a benchmarking tool, researchers Mike Petrik, Michele Guerin and Tina Widowski have just published a study that gives a snapshot of commercial Ontario brown laying hens in cage and non-cage systems using three welfare indicators: keel bone fracture prevalence, feather scores and cumulative mortality. These three parameters are typically used to reflect some of the physical aspects of the welfare status of the hens.   Benchmarking welfare indicators from alternative housing systems is important to ensure that progress is made in improving their well-being. This is the first study in North America to compare housing systems on multiple farms as well as providing a more detailed assessment of keel fractures during the life of a flock. There are 64 farms in Ontario housing brown hens in cages with an average flock size of 9,965, while 27 farms average 9,410 hens per flock in floor-housed systems. For their study, Petrik et al. recruited nine commercial farms that housed brown hens in cages and eight farms using floor systems. Only brown hens were included because there are no white hen flocks housed using floor systems in Ontario at present. All hens were beak trimmed; caged pullets were grown in caged housing and floor flocks were grown in single-tier floor pullet houses.  All birds were fed a commercial diet that was adjusted to individual flock requirements. Hens were sampled four times over the course of lay, at 20, 35, 50 and 65 weeks of age. At each visit, 50 hens were weighed and palpated for evidence of healed keel bone fractures. Feather scores were assigned based on evaluation of the neck, back, breast and vent. The daily records maintained by the farmer provided mortality data. Keel fracture prevalence was significantly higher for the floor housing compared to conventional housing.  As birds neared the end of lay at 65 weeks, the fracture rate was 54.7% compared to 40% for caged flocks. These floor-flock figures were comparable to those for floor birds in Europe (45 to 86%) but the conventional numbers were greater than those reported in conventional cages in the UK (26 to 30%). This might be due to the difference in cage size (483 cm2 in North America vs. 550 cm2 in Europe) that may result in more piling behaviour, or possibly cage design or nutritional factors. ResultsKeel fractures are often attributed to traumatic injury. Five of the eight floor barns in this study had no perches; the researchers suggested that fixed perches were not a contributing factor to the incidence of keel bone fractures in these flocks.   While most studies evaluate keel fractures at the end of lay, this study points to fractures occurring much earlier in production. In this study, the fracture prevalence increased substantially from 20 to 50 weeks in both floor and cage systems, after which the incidence stabilized. This is a serious concern because fractures occuring early in lay results in a higher potential for chronic pain over the course of production. Flock-level mean feather score was not significantly affected by the housing system, possibly due to the hens having been beak trimmed. Cumulative mortality tended to be lower (1.29%) for cage housing than floor housing (2.13%), but the figure for floor housing was much lower than in other studies, which have indicated that non-cage systems put hens at a much higher risk for feather pecking, cannibalism and mortality for various reasons. These feather condition and mortality results showed that these Ontario flocks performed really well. Mean body weight was lower but more uniform in floor housed flocks compared to cage housed flocks, possibly due to a higher activity level and the need to search for feed.  Heavier birds had more fractures, so in a chicken or egg type of question, did heavier birds have more keel fractures because of their weight, or were they heavier because of less activity due to the fracture? Production parameters and behaviour were not evaluated in this study. More work is indicated to identify specific risk factors and etiology of keel fractures, especially if non-cage housing becomes more common in North America. These findings indicate that younger hens, between 20 and 35 weeks of age, showed the highest incidence of keel bone fractures and should be the focus of future studies. As the layer industry continues to evolve, the benchmarking of welfare indicators from alternative housing systems from this study will help to ensure that progress is being made to improve the well-being of the hens. This research was funded by Egg Farmers of Canada and the Ontario Ministry of Agriculture and Food. The researchers would like to thank participating egg farmers in Ontario for allowing access to their flocks and records.      
July 18, 2016 - The genes of some chickens make them almost completely resistant to a serious strain of bird flu, new research has revealed. The findings, which are published in the journal Scientific Reports, show that genetics play a key part in whether the birds are susceptible or resistant to the potentially deadly virus. READ MORE 
Study using genetic lines of Virginia Tech chickens reveals evolution happens faster than previously thought November 4, 2015 - A critical component of an experiment that proved evolution happens 15 times faster than was previously believed relied upon genetic lines of chickens from Virginia Tech. The discovery utilized the DNA of lines of White Plymouth Rock chickens that have been developed for more than 50 years. The research was published recently in Biology Letters, a journal of Royal Society Publishing. The discovery involved researchers from several universities, including the University of York, Oxford University, the University of Sydney, Uppsala University, the Swedish University of Agricultural Sciences, and Virginia Tech. “This experiment and many others involving everything from animal appetites to genetics could never have been done without the pedigree lines here at Virginia Tech,” said Siegel, distinguished professor emeritus of animal and poultry sciences in the College of Agriculture and Life Sciences.  “This experiment was also an excellent example of international collaboration between six countries that was necessary for the success of the study.” Siegel, along with Ben Dorshorst and Christa Honaker, also in the Virginia Tech Department of Animal and Poultry SciencesDepartment of Animal and Poultry Sciences, were co-authors on the paper. The pedigree lines of White Plymouth Rock chickens were developed by Siegel, who began breeding them in 1957. From the common founder population, he produced two distinct lines of chickens selected for high- and low-body weight. Today, the high-weight line dwarfs its low-growth counterpart by an average of 12 times more by the time they reach the eight-week selection age. In the latest experiment, researchers analyzed blood samples of chickens of the same generation using the most distantly related maternal lines to reconstruct how the mitochondrial DNA passed from mothers to daughters. Mitochondria are specialized structures in the cells of animals, plants, and fungi that generate energy, synthesize proteins, and package proteins for transport to different parts of the cell and beyond. Previously, estimates put the rate of change in a mitochondrial genome about 2 percent per million years,” Greger Larson, professor of archaeology at Oxford University, said in a news release. “At this pace we should not have been able to spot a single mutation in just 50 years, but in fact we spotted two.” The sampling scheme yielded 385 mitochondrial transmissions that were analyzed for linkages within the mitochondrial DNA. The rate of evolution was calculated by analyzing the number of observed mutations in the approximately 16,000 samples of mitochondrial DNA in the genome over 47 generations. The scientists then reconstructed the maternal pedigree based on the mitogenome sequences. “Our observations reveal that evolution is always moving quickly, but we tend not to see it because we typically measure it over longer time periods,” Larson said in the news release. “Our study shows that evolution can move much faster in the short term than we had believed from fossil-based estimates.” The experiment also determined that mitochondria are not solely passed down from maternal lines. Strictly maternal inheritance has long been thought of as the characteristic of mitochondrial genomes. “The thing everyone knew about mitochondria is that it is almost exclusively passed down the maternal line, but we identified chicks who inherited their mitochondria from their father,” said Michelle Alexander, lead author. This finding supports the theory that “paternal leakage” is not such a rare phenomenon. This is not the first time the scientific community has benefited from the research done on Virginia Tech’s high- and low-body weight chicken lines. A 2010 article in the scientific journal "Nature" highlighted a breakthrough in genetic studies of animal domestication, thanks in part to these two lines. In 2010, the American Poultry Historical Society inducted Siegel into the American Poultry Association Hall of Fame, the industry’s top honor. In 2011, he was given an honorary doctorate from the Swedish University of Agricultural Sciences.    
August 27, 2015 - Aviagen has announced it will continue its contribution to the Canadian Poultry Research Council (CPRC) through the CPRC’s Research Sponsorship Program.  Aviagen has presented the CPRC with a check for $25,000 in support of the program. This check represents the fourth in a series of annual sponsorships contributed to the CPRC since 2012, qualifying Aviagen as a Platinum sponsor of the program.  Established in 2001, the CPRC creates and implements programs for poultry research throughout Canada. The goal of the CPRC’s research is to effect discoveries that lead to improved food safety through enhanced poultry nutrition. The programs also focus on heightened environmental safety measures.  “The CPRC has made invaluable contributions to the success of Canada’s poultry industry. Vast components of the poultry value chain stand to benefit from the research conducted by the CPRC, including producers, feed suppliers, animal health care companies, processors, distributors and ultimately, consumers,” explains Scott Gillingham, Canadian  Regional Business Consultant for Aviagen. “Aviagen is proud to support the organization’s research efforts and we look forward to continued collaboration in the future.”  CPRC Executive Director Bruce Roberts, Ph.D., says he values Aviagen’s support of the council. “Aviagen has helped fund 29 projects, enabling us to address critical issues such as poultry welfare, alternatives to the use of antimicrobials in poultry production, poultry health food safety and the environment,” adds Roberts. “As a premier sponsor of the program, Aviagen assists the CPRC not only financially, but also through cooperation and sharing of ideas and expertise. In addition to its value add to the CPRC, Aviagen supports Canadian university research activities outside of the CPRC. For these reasons, Aviagen should be commended for its strong commitment to advancing the poultry industry on a global basis.”  Roberts concludes that efforts are currently underway for considerable future marketing and expansion of the CPRC’s Research Sponsorship Program.
July 17, 2015 - More than 100 delegates including 75 hatchery managers from across the United States and Canada took part in the first national hatchery conference hosted by Cobb in Memphis, Tennessee. During the two day event there were presentations on 20 different aspects of hatchery management with speakers from 16 organizations, enabling delegates to learn and share with each other in the unique, cross-industry event. Ben Green, hatchery specialist in the Cobb World Technical Support Team said in a release that the classroom setting allowed attendees to share experiences and put questions to Cobb personnel, industry vendors and other hatchery managers. In addition to hearing presentations covering topics from sanitation, maintenance and importance of vaccination to industry trends and animal welfare, delegates were able to visit the booths of 11 different vendors, which included: Jamesway, Merial, Smithway, Zoetis, Clearview, KL Automation, Ivesco, Incubation Systems, Chickmaster, Hatchery Planning and CID Lines. Scott Martin, hatchery specialist in the Cobb World Technical Support Team said that Cobb set out to have the conference cover areas that everyone is interested in and curious about. He said audience engagement was high, witnessed by the number and type of questions attendees asked and the interesting discussions held after each presentation.    
July 1, 2015 - Hendrix Genetics and NPM Capital, a subsidiary of family-owned, SHV Holdings, have completed an agreement that will advance the animal breeding sector. Through the issue of new shares, NPM has become a 25 per cent minority shareholder in Hendrix Genetics, alongside existing shareholders. The Hendrix Family remains the majority and controlling shareholder. Hendrix Genetics will continue to conduct its business under its current corporate governance and with its existing management team, strategy and structure. Its Vision 2020 plan, created last year, identified many opportunities to invest in R&D, capacity expansion and acquisitions to continue the company’s growth of the last decade. The equity of NPM/SHV will enable Hendrix Genetics to accelerate the execution of its ambitious plan. Antoon van den Berg, CEO, Co-Shareholder and Co-Founder of Hendrix Genetics commented: “We are privileged as the Management Team of Hendrix Genetics, to have shareholders that fully support the accelerated execution of our ambitions. The fact that we continue to be family-controlled ensures passion and quick decision-making, which is essential to our company’s future.” Jeroen Drost, CEO of NPM Capital, stated: “We discovered in Hendrix Genetics an ambitious company with dedicated shareholders, capable management and an excellent track-record in building a sound platform for industry consolidation. Their mission to help the world meet the growing demand for food, making animal protein production more efficient, affordable and sustainable perfectly fits our company ethos.” International Advisory Board Michel Boucly, member of the International Advisory Board since 2008, will step down per July 1, 2015 and will be succeeded by Cyril Melin, Investment Director of Sofiprotéol. New member of the International Advisory Board, Investment Director of NPM Capital, Johan Terpstra sees clear benefits: “The strategic and cultural fit of Hendrix Genetics with NPM/SHV was clear from the onset and we look forward to partnering with existing shareholders and management to assist the growth of Hendrix Genetics in the years to come.”
April 6, 2015 - Two senior appointments have been made by Cobb-Vantress to strengthen its research and development team.  Dr. Anu Frank-Lawale, who has wide experience across a range of species, joins the team as pedigree geneticist, while Dr. Frank Siewerdt moves from this role to become director of genetics responsible for the Cobb genetic program. Dr. Anu Frank-Lawale is based at the Three Springs pedigree farm in Oklahoma, where he will be responsible for the selection program in several commercial and experimental lines.  He studied animal breeding at the universities of Nottingham and Edinburgh in the UK, and went on to gain a PhD for work on aquaculture genetics at Stirling University.  He worked as a biometrician at the Roslin Institute, Edinburgh, and then in 2007 moved to the United States as breeding research manager for the Aquaculture Genetics and Breeding Technology Center at Virginia Institute of Marine Science.   Dr. Frank Siewerdt now has a team of seven PhD geneticists and a business engineer working with other areas of R&D and the business units to continue genetic progress on existing Cobb products and developing new ones to meet market needs.  He joined Cobb three years ago as the inaugural geneticist at the new Dry Creek complex in Deer Lodge, Tennessee, and became responsible for the genetic program in two of the pedigree farms.  Originally qualifying from the Federal University of Pelotas in Brazil, Dr Siewerdt obtained his PhD from North Carolina State University in the USA and has worked for more than 20 years in academic and industry positions including four years with Heritage Breeders / Perdue Farms.
Sept. 20, 2016 - Ontario farmers are invited to safely and responsibly dispose of their unwanted or obsolete pesticides and livestock (including equine) medications from Sept. 20-30. This collection program is offered at no cost to Ontario farmers.  CleanFARMS, an industry-led, national not-for-profit agricultural waste management organization partnered with the Canadian Animal Health Institute (CAHI) and the Ontario Ministry of Agriculture, Food and Rural Affairs to co-fund the disposal program with support from CropLife Canada, Ontario Agri Business Association, Farm & Food Care Ontario, and the Ontario Fruit & Vegetable Growers' Association, in offering this free program."Ontario farmers are environmentally conscious and are pleased to partner with CleanFARMS to safely dispose of obsolete pesticides and livestock medications," says Craig Hunter from the Ontario Fruit and Vegetable Growers Association. "The CleanFARMS collection program provides an excellent one-stop service for Ontario farmers to continue to protect the land."Farmers in Ontario have a long history of good stewardship practices. Since 1998, Ontario farmers have turned in more than 500,000 kilograms of obsolete pesticides."Ontario has a history of successful collections," says Barry Friesen, General Manager of CleanFARMS. "The participation of Ontario farmers shows they are good stewards of their land and committed to protecting the environment."After collection, the pesticides and livestock medications are taken to a licensed waste management facility where they are disposed of through high temperature incineration.The following locations will be accepting obsolete pesticides and livestock/equine medications from 9 a.m. until 4 p.m. on the dates specified:Tuesday, Sept. 20Brodhagen - Hoegy's Farm SupplyGuelph - Woodrill FarmsGlencoe - Parrish & HeimbeckerWednesday, Sept. 21Brussels - Brussels AgromartAilsa Craig - Hensall District Co-opAylmer - Max Underhill's Farm SupplyThursday, Sept. 22Beamsville - NM BartlettForest - Lakeside Grain & Feed LtdKitchener - GROWMARK IncMonday, Sept. 26Bothwell - Hagerty CreekAlliston - Alliance Agri-TurfTara - Sprucedale AgromartNew Hamburg - Good Crop ServicesLancaster - Munro's AgromartTuesday, Sept. 27Tupperville - Agris Co-opWellandport - Clark AgriServiceBradford - Bradford Co-opWalkerton - Huron Bay Co-opAlfred - SynagriWednesday, Sept. 28Paincourt - South West Ag PartnersPrinceton - CargillOakwood - Oakwood Ag CentreHarriston - CargillCasselman - Agro Culture 2001Thursday, Sept. 29Blenheim - ThompsonsBolton - Alliance Agri-TurfTrenton - TCO AgromartDundalk - Huron Bay Co-opRichmond - SynagriSept. 27-29Verner - Verner Ag CentreGore Bay - Northland AgromartPembroke - M&R Feeds and Farm SupplyArnprior - M&R Feeds and Farm SupplyThornloe - Temiskaming Ag CentreThunder Bay - Thunder Bay Co-opFriday, Sept. 30Courtland - CargillOrangeville - Holmes AgroPicton - County Farm CentreLeamington - Agris Co-opChesterville - SynagriFor more information, please call CleanFARMS at 877-622-4460 or visit
September 15, 2016 - The Government of Canada has announced an investment of $10 million over seven years to bring one of the world's most respected experts in food security to  Canada. A recognized leader in crop adaptation to marginal soil environments, Leon Kochian will become the Canada Excellence Research Chair (CERC) in Food  Systems and Security at the University of Saskatchewan.  The United Nations estimates the world's population will reach 9.7 billion by 2050. Ensuring sufficient nutritious food will therefore be one of the greatest  challenges facing humanity in the 21st century. Working out of the university's Global Institute for Food Security, Kochian will lead a multidisciplinary team  to unlock the secrets of a plant's "hidden half"-the root system-an unexplored aspect of plant breeding.  His research will develop new root-based approaches to crop improvement that will enable breeding for improved root system structure and function, producing  new varieties with higher yields and greater capacity to thrive in difficult conditions. Kochian will identify and map the genes linked to root system  traits that are specifically responsible for nutrient and water uptake under drought conditions. He anticipates this research will enable increased crop  production in less fertile areas.  Leon Kochian is the University of Saskatchewan's second CERC after Howard Wheater, Canada Excellence Research Chair in Water Security. He becomes the country's 27th CERC.  In total, Leon Kochian's research will receive support worth almost $21 million. The Government of Canada is also providing $800,000 through the Canada Foundation for Innovation. The balance will be invested by the Global Institute for Food Security ($7 million) and the University of  Saskatchewan ($3 million).   
  Fifty years of sustainability analysis and insight – that is what Egg Farmers of Canada (EFC) recently commissioned Canadian consulting firm Global Ecologic to produce. The report is entitled: “Environmental Footprint of Canadian Eggs: 1962 versus 2012.” EFC CEO Tim Lambert says the study results demonstrate the way Canadian egg farmers have been, and still are, constantly looking for new ways to make egg production more efficient and environmentally sound. “While egg production increased by more than 50 per cent between 1962 and 2012 [from about 43 million dozen to 66 million dozen eggs per year],” he notes, “the industry’s overall environmental footprint decreased across all emissions and resource use domains.” Indeed, Nathan Pelletier (president of Global Ecologic) found the average environmental impact for eggs produced in conventional housing systems in 2012 was roughly one-third of what it was in 1962. To begin the study, Pelletier identified the average conditions that existed in the egg production supply chains of 2012 and 1962, and measured supply chain water, land and energy use, as well as greenhouse gas, acidifying and eutrophying emissions. For this, he relied on recent environmental life cycle analysis done for EFC that outlined the state of the industry in 2012, and also drew from various sources to gain insights into the realities of 1962. Taking these conditions, uses and emissions, he then evaluated the resource and environmental performance gains linked to specific advancements over the past five decades, differentiating between changes attributed to supply chain versus farm-level activities.  However, any study that involves gathering and analyzing data from decades ago has potential challenges. “Important to conducting an analysis such as this is to know in advance which variables really matter, and to focus data collection activities accordingly,” Pelletier explains. “For example, having previously evaluated contemporary egg production systems in both the US and Canada, as well as a variety of other livestock production systems, I knew that gathering representative data for variables such as feed composition, feed conversion efficiency, rate of lay, and mortality rates in the early 1960s would be quite important for the overall results. Fortunately, 1960s data for these variables are available in peer-reviewed literature, Canadian random sample egg production test data and from Statistics Canada.” Pelletier also found good information on such factors as fertilizer production, and inputs and yields for feed production.  Pelletier found that compared to 1962, Canadian egg industry acidifying emissions (those that cause acidification of freshwater systems, such as sulfur dioxide and nitrogen oxides) of 2012 were a whopping 61 per cent lower. Eutrophying emissions (those that lead to excessive nutrients in waterways, resultant explosive plant growth such as algal blooms and death of animal life due to lack of oxygen; sulfur dioxide, nitrogen oxides and ammonia) were even lower (68 per cent). Greenhouse gas emissions were 72 per cent lower. The energy, land and water use in the entire supply chain decreased by 41, 81 and 69 per cent respectively. Pelletier notes the Canadian egg industry was in transition to cage-based production during the 1960s, and explains that the specific mix of housing systems does not really matter for an analysis such as this. “What is important are hen performance data (e.g. rate of lay, mortality, etc.), whatever the housing system employed. Quite good data are available for these variables.” Reasons for improved  performanceAs you can imagine, the Canadian egg industry’s much-diminished environmental footprint compared to fifty years ago is due to several factors. The most important of these is changes, for both layer and pullet feeds, in feed composition, feed conversion efficiency, and the environmental footprints of specific feed inputs. Layer feeds in 2012 had, on average, just 38 per cent of the overall environmental impact of those of 1962, and pullet feeds 69%. This is because the average impact per tonne of production of feed ingredients improved, such as a 43 per cent decrease for corn in 2012 compared to 1962. It’s also because general inputs for field crops also dropped. Pelletier found, for example, that the energy required for ammonia synthesis (used to make nitrogen fertilizer) was cut by half over the study period. Improved crop yields and higher fuel efficiencies in freight transport also contributed. In addition, the amount of meat/bone/feather meals and fats in feed has dropped over the last 50 years, and these inputs have a much higher environmental impact compared to ingredients whose use has risen over the decades, such as soy meal. Other important industry improv-ements include improved animal health and higher productivity in pullet and egg production. Production per hen has improved by almost 50 per cent and feed conversion efficiency by 35 per cent, while the combined mortality rate for pullets and layers declined by 63 per cent. Energy use, however, was the least improved factor, and Pelletier says this is because current energy production involving fossil fuels requires more input energy (for extraction and processing, etc.) than it did 50 years ago. “Without the changes we’ve seen in feed composition and efficiencies at the level of pullet and egg production,” he notes, “contemporary egg production would be considerably more energy intensive, simply due to the declining efficiency of fossil energy provision over time.” U.S. resultsSeveral years ago, Pelletier and colleagues from other organizations conducted a similar 50-year comparison of life cycle environmental impacts for egg production in the U.S. (1960 compared to 2010). Feed efficiency was the biggest factor. “The feed conversion ratio for egg production improved from 3.44 kg/kg in 1960 to 1.98 kg/kg — a gain of 42 per cent,” he notes. “Nonetheless, achieving feed use efficiencies comparable to the best performing contemporary facilities [the range reported by survey respondents was 1.76-2.32 kg/kg] industry-wide would do much to further reduce overall impact.” As it has in Canada, differing feed composition has also played an important role in reducing impacts — in particular, both reduction in the total amount of animal-derived materials used, as well as increased use of porcine and poultry materials in place of ruminant materials.   Overall use of studyPelletier sees several uses to which the study results can be put. “First, they help us to understand the relative importance of specific variables in changing the environmental footprint of Canadian egg production,” he notes. “This knowledge will inform future efforts to continue to improve the sustainability of Canadian eggs in terms of priority areas for targeted management initiatives.” The results, in Pelletier’s view, also provide valuable benchmarks. He says looking forward individual producers as well as the industry as a whole will be able to measure their sustainability performance and track their progress relative to these benchmarks. Finally, the study results provide solid evidence of the progress that the Canadian industry has achieved. “The results are also a source of inspiration for the future,” Pelletier says. “When I think about what has been accomplished over the past 50 years, I’m excited to imagine what will be possible over the next 50! The next steps, I believe, are for the industry to collaborate in defining a sustainability agenda, along with metrics, targets and milestones for sustainability initiatives looking forward.” Lambert agrees. “Egg Farmers of Canada is becoming recognized as a global leader in agriculture for its commitment to society through its sustainability initiatives and dedication to social responsibility,” he says. “This 50-year study provides a firm foundation for the industry’s sustainability initiatives going forward, setting out benchmarks by which we can continue to measure progress. Understanding the components of the industry’s environmental footprint ensures that we can work with our producers and stakeholders to make sound, sustainable choices for the future.” Percentage change in Canadian egg production from 1962 to 2012, per tonne of eggs produced Acidifying emissions 61% lower Eutrophying emissions 68% lower GHG emissions 72% lower Energy use 41% lower Land use 81% lower Water use 69% lower Feed conversion rate 35% increase Production per hen housed 50% increase Mortality rate (pullets) 21% lower Mortality rate (layers) 75% lower Percentage change between 1962 and 2012, industry-wide Acidifying emissions 41% lower Eutrophying emissions 51% lower GHG emissions 57% lower Energy use 10% lower Land use 71% lower Water use 53% lower Egg production 51% higher    
  The poultry industry has a long and complicated supply chain, incorporating a wide spectrum of costs and benefits. When you think about sustainability in that chain, it doesn’t make sense to improve one part of the system if that change may unintentionally burden another part of the process and outweigh the advantages achieved. Nathan Pelletier is the president of Global Ecologic, an independent sustainability consulting firm that measures and manages strategy in food and other industrial systems. Speaking at the 2015 Canadian Poultry Sustainability Conference in London, Ont., he explained how life cycle thinking could be used to help analyze the past, present and future of the poultry industry in the quest for sustainability. Life cycle thinking – changing from a management perspective to a systems perspective – is an analytical process that helps to examine the relevant interactions associated with the production of goods and services, allowing us to pinpoint which aspects of the supply chain have the biggest impact. The results of life cycle thinking can often be counterintuitive, flying in the face of our current thoughts. For example, is local food more sustainable? With life cycle analysis, this argument is no longer credible if you factor in the efficiencies of transport over long distances by rail, truck or boat. “There will always be trade-offs,” said Pelletier. “We need to be conscious of these to make decisions regarding our own priorities.” For the poultry industry, he sees no alternative but to embrace this management philosophy throughout the supply chain, but Pelletier says it won’t be a straightforward journey. Complexity will surround everything from agreeing on definitions of sustainability to operationalizing the information, but he predicts that life cycle thinking will become a requirement in the new marketplace, coming to the forefront of regulatory guidelines within 10 years. Looking back over 50 years, in an in-depth historical life cycle analysis published in the Poultry Journal in 2014, Pelletier compared the environmental footprint of the poultry industry in the U.S. in 1960 versus 2010, putting some hard numbers around poultry production. The modern poultry industry is not the same as it was 50 years ago, and that’s an interesting story itself. His results show astonishing changes. While egg production in the U.S. has risen 30 per cent in 50 years, the environmental footprint per kilogram of eggs produced in 2010 is 65 per cent lower in acidifying emissions, 71 per cent lower in eutrophying emissions, 71 per cent lower in greenhouse gas emissions and 31 per cent lower in cumulative energy demand during that same time. According to Pelletier, the reduction could be attributed to factors such as feed and manure management. Up to 30 per cent of the improvement is based in improved efficiencies of background systems, for example supply chain efficiencies in transportation and energy use. Thirty to 44 per cent was from changes in feed composition, reflecting efficiencies realized in crop production with less inputs for increased yields. Another 28 to 43 per cent was due to improvements in genetics, feed conversion and bird health. Productivity has increased 50 per cent, from 195 eggs to 297 eggs annually. In 1960, 3.1 kg of feed equaled one kg of eggs; now only two kg of feed is needed per kg of eggs. Not only that but the birds are healthier, with 63 per cent lower mortality. This is a good news story, but how does poultry stack up against other protein sources? It’s hard to compare unless studies have been done with the same protocols, said Pelletier, but in general, monogastrics are more efficient. The most efficient protein source is pork, followed by eggs, both better than beef. This matters because sustainability is becoming such a differentiating factor in the marketplace, for social license, regulatory compliance and market access. In this respect, poultry is well positioned for the future. Looking forward, Pelletier suggested that proactive engagement in sustainability is essential, making four suggestions. First, develop a Canadian life cycle inventory of consistent data to support production. Defending any kind of comparison requires such data. The poultry industry also needs to develop and implement a transparent, multi-criteria sustainability benchmarking program for producers, to support sustainability initiatives and provide benchmarking and goal setting targets. He sees a third opportunity in acting as a leader in pushing new frontiers. “Don’t be too attached to the status quo,” said Pelletier. “Just think about the changes in your industry over the past 50 years, and imagine where you could be 50 years from now?” Support and participate in the research that will be necessary to define the sustainable poultry production systems of the future. Finally, formalize a commitment industry wide by engaging all stakeholders in a round-table discussion on sustainability, defining a common vision and a strategy to achieve it. As Pelletier says, “use it as an opportunity to see sustainability not as a challenge or as a hoop to jump through, but as a source of competitive advantage, as an exciting and necessary collaborative journey toward that shared vision of the future.”      
April 1, 201`6 - The Government of Canada is investing $27 million to help producers find ways to mitigate greenhouse gas (GHG) emissions from their farming operations, Agriculture and Agri-Food Minister, Lawrence MacAulay announced March 30. The investment is part of the Government of Canada’s ongoing efforts to help the sector be innovative, competitive and sustainable. The Agricultural Greenhouse Gases Program (AGGP) supports research into greenhouse gas mitigation practices and technologies that can be adopted on the farm. This new five-year investment (2016-2021) extends Canada’s existing commitment to support the objectives of the Global Research Alliance on Agricultural Greenhouse Gases. The initial AGGP investment (2011-16) provided $21 million for 18 projects undertaken by universities, provincial governments, research institutions and conservation groups. These projects have resulted in innovative technologies and Beneficial Management Practices (BMPs) in four priority areas for farmers: livestock systems, cropping systems, agricultural water use efficiency, and agro-forestry.
February 17, 2016 – New research has shown that tackling antibiotic resistance on only one front is a waste of time because resistant genes are freely crossing environmental. Analysis of historic soil archives dating back to 1923 has revealed a clear parallel between the appearance of antibiotic resistance in medicine and similar antibiotic resistant genes detected over time in agricultural soils treated with animal manure. Collected in Denmark – where antibiotics were banned in agriculture from the 1990s for non-therapeutic use – the soil archives provide an 'antibiotic resistance timeline' that reflects resistant genes found in the environment and the evolution of the same types of antibiotic resistance in medicine. Led by Newcastle University, UK, the study also showed that the repeated use of animal manure and antibiotic substitutes can increase the capacity of soil bacteria to mobilize, or ready themselves, and acquire resistance genes to new antibiotics. Publishing their findings in the academic journal Scientific Reports, the study's authors say the data highlights the importance of reducing antibiotic use across all sectors if we are to reduce global antibiotic resistance. "The observed bridge between clinical and agricultural antibiotic resistance means we are not going to solve the resistance problem just by reducing the number of antibiotics we prescribe in our GP clinics,” said lead author David Graham, professor of ecosystems engineering at Newcastle University. "To reduce the global rise in resistance, we need to reduce use and improve antibiotic stewardship across all sectors. If this is not done, antibiotic resistance from imprudent sectors will cross-contaminate the whole system and we will quickly find ourselves in a situation where our antibiotics are no longer effective." Antibiotics have been used in medicine since the 1930s, saving millions of lives. Two decades later, they were introduced into agricultural practices and Denmark was among the leaders in employing antibiotics to increase agricultural productivity and animal production. However, a growing awareness of the antibiotic resistance crisis and continued debate over who and which activities are most responsible led to the EU calling for the use of antibiotics in non-therapeutic settings to be phased out and Denmark led the way. The Askov Long-Term Experiment station in Denmark was originally set up in 1894 to study the role of animal manure versus inorganic fertilizers on soil fertility. Analyzing the samples, the team – involving experts from Newcastle University, the University of Strathclyde and Aarhus University – were able to measure the relative abundance of specific β-lactam antibiotic resistant genes, which can confer resistance to a class of antibiotics that are of considerable medical importance. Prior to 1960, the team found low levels of the genes in both the manured soil and that treated with inorganic fertilizer. However, by the mid 1970s, levels of selected β-lactam genes started to increase in the manured soils, with levels peaking in the mid 1980's. No increase or change was detected in the soil treated with inorganic fertilizer. "We chose these resistant genes because their appearance and rapid increase in hospitals from 1963 to 1989 is well-documented," explains Professor Graham. "By comparing the two timelines, we saw the appearance of each specific gene in the soil samples was consistent with the evolution of similar types of resistance in medicine. So the question now is not which came first, clinical or environmental resistance, but what do we do about it?" Following the ban on non-therapeutic antibiotic use in Danish agriculture, farmers substituted metals for antibiotics, such as copper, and levels of the key β-lactam genes in the manured soils declined rapidly, reaching pre-industrialization levels by 2010. However, at the same time the team measured a 10-fold rise in Class 1 Integrons. These are gene carrier and exchange molecules – transporters that allow bacteria to readily share genes, including resistance genes. These findings suggest the application of manure and antibiotic substitutes, such as copper, may be 'priming' the soils, readying them for increased resistance transmission in the future. "Once antibiotics were banned, operators substituted them with copper which has natural antibiotic properties," explains Professor Graham. "More research is needed but our findings suggest that by substituting antibiotics for metals such as copper we may have increased the potential for resistance transmission. "Unless we reduce use and improve stewardship across all sectors – environmental, clinical and agricultural – we don't stand a chance of reducing antibiotic resistance in the future."
The University of Guelph has received $76.6 million from the federal government to start a “digital revolution” in food and agriculture. The government is investing in U of G’s Food From Thought research project, which will use high-tech information systems to help produce enough food for a growing human population while sustaining the Earth’s ecosystems. The funding, announced by Lloyd Longfield, MP for Guelph, on behalf of Kirsty Duncan, minister of science, will come from the Canada First Research Excellence Fund (CFREF), which supports world-leading research at universities and colleges. It’s the largest single federal research investment in U of G history. “This will position Canada as a leader in sustainable food production,” said U of G president Franco Vaccarino, adding the project will help farmers produce more food on less land using fewer inputs. “Our faculty, staff and students will have opportunities to participate in innovative discovery and to play a role in tackling one of the world’s greatest challenges: how to sustainably feed our growing population.” Longfield added: “The University of Guelph has a long history of collaborating across Canada and globally to contribute to understanding complex challenges. The global food supply will require the University’s unique leadership skills that bring together agricultural expertise, big data, environmental science, business and civil society. Today’s funding announcement will give Canada a huge step forward to become a global leader in food.” Food From Thought will create novel tools for producing more and safer food while also protecting the environment. “It is not just how much food we produce but also the way we produce it that will be key in the next century,” said Prof. Malcolm Campbell, vice-president (research), who is the institutional lead for Food From Thought and a plant genomicist in the Department of Molecular and Cellular Biology. New technology and agricultural practices must enhance biodiversity, produce safe, nutritious food, and improve animal welfare and human health, he said. U of G is well-placed to lead this project, Campbell said. “We are Canada’s food university, with a 150-year legacy in agri-food and a reputation for innovation and commitment. We also have the capacity, with world-class researchers and facilities, and strong partnerships with government and industry.” Geography professor Evan Fraser, scientific director of Food From Thought and director of U of G’s Food Institute, said launching a digital revolution will require improved understanding of the complex interplay between farming practices, the genetic potential of our crops and livestock, and the environment. “This is essential if we are to realize the potential offered by our emerging ability to collect vast amounts of data and to develop information management systems,” he said. Food From Thought will bring together experts to generate and commercialize knowledge, and to inform agri-food policy-makers and practices from farm management to global conservation planning. The initiative will offer new teaching and research opportunities, and will focus on training the next generation of agri-food leaders through fellowships and graduate student positions. More than $1 million will be available for annual research awards and competitions intended to develop innovations for sustainable food systems. Within Food From Thought, researchers will work on key scientific missions including: Expanding use of DNA barcoding technology developed at U of G to identify food fraud, food-borne ailments and invasive pests, and to improve environmental impact assessments; Using “big data” on farms to reduce pesticide use, monitor watershed health and identify crops suited to the effects of climate change; and Using information management systems to help track emerging infectious disease threats to livestock and control pathogens in the food supply. Food From Thought includes partnerships with academic institutions around the globe, numerous government agencies, and industry and innovation centres. One key partner is IBM Canada, which will be involved in everything from research collaborations to cognitive and data analytics tools and training to secure cloud-based storage. “IBM shares the scientific vision of Food From Thought: ensuring that we sustainably, resiliently and safely increase production while enhancing ecosystem services and livestock health and welfare using data-driven approaches,” said Sanjeev Gill, research executive at IBM Canada. Food From Thought will be one of U of G’s largest and most inclusive research projects, spanning all seven colleges. It will be led by 10 principal investigators from across campus.This funding announcement was part of a $900-million competition lasting several months and involving a review panel of Canadian and international scientific experts. This is the second CFREF competition since 2014.  
  The revelation that a bacteria resistant to antibiotics of last resort was found in a Pennsylvania woman prompted a flurry of media activity in late May. Increased consumer concern on an already-sensitive topic is understandable in light of such headlines as, “Nightmare Superbug Shows Up in the United States” and “Infection Raises Specter of Superbugs Resistant to All Antibiotics.” The Washington Post conducted a Q&A with an infectious disease doctor at the University of Pittsburgh who tried to put the development into perspective. He said, “While certainly concerning and something to keep a close eye on from a public health point of view, there is no evidence that this is a widespread problem at this time. Even in the rare event that you get sick from this bacteria, there are treatment options available.” Since the bacteria has also been detected in pigs, the Post asked about food safety concerns. The doctor stated there is no risk as long as meat is properly handled and cooked to the recommended temperature. There’s growing consumer concern and rising pressure on the food system about the use of antibiotics in food animals. Antibiotic resistance is a serious issue and one farms and food companies are taking seriously, but the connection between antibiotics used in animals raised for food and the risk of human antibiotic failure is a complex issue not easily distilled for widespread understanding. Several things must happen before resistant bacteria from a farm can affect people: Antibiotic-resistant bacteria must be present in an animal when it leaves a farm The bacteria must survive sanitation steps during the packaging process The meat must be undercooked, enabling bacteria to survive The bacteria must cause human illness The ill person must receive medical attention and the antibiotic therapy must involve the same class of antibiotic used on the farm The patient must get worse or fail to recover due to the resistant infection There’s also the perception that antibiotic resistance results from eating meat containing antibiotic residue, but there are strict federal laws in place to prevent unsafe residues in meat. By law, since the 1950’s, the FDA strictly audits and enforces that unsafe levels of antibiotics may not be present in meat before it enters the food supply. Leading drug companies have recognized the concern about the resistance issue and are making antibiotics available only for treatment and prevention of disease — not growth promotion. Beginning next year in the U.S., antibiotics important to human medicine will only be available under a Veterinary Feed Directive (VFD), which is essentially a prescription from a veterinarian. There are unanswered questions on the link between animal antibiotic use and human resistance and the issue is still being studied. Until those questions are conclusively answered, the best source of information is sound science in the form of peer-reviewed and published studies. Dr. Peter Davies, BVSC, PhD, professor of Animal Science at the University of Minnesota, says, “There are almost no documented clinical cases where antibiotic resistance was unequivocally tied to animal antibiotic use. So while the risk is not zero, in my opinion, it is extremely low.” Animal antibiotics must be used responsibly to minimize agriculture’s contribution to antibiotic resistance. But much of the current discussion about antibiotic use is highly polarized, pitting commercial interests against public health interests. It’s important to remember that preventing disease and treating sick animals through the responsible use of antibiotics is the ethical thing to do. Reprinted with permission from the Center for Food Integrity (CFI).  CFI’s vision is to lead the public discussion to build trust in today’s food system and facilitate dialog with the food system to create better alignment with consumer expectations. For more information, visit:      
  Sustainability – making sure that food is produced in such a way that it can be produced at the same quality for generations to come – is something increasing numbers of consumers are looking for. In particular, seafood, poultry, egg and meat products seem to be of strong interest to many members of the general public, and therefore also of significant interest to the grocery distribution industry. “Retailers believe that animal products that they sell must be safe and of high quality, as well as produced in a sustainable and humane manner,” says Nathalie St-Pierre, vice-president (Sustainability) and vice-president Québec at the Retail Council of Canada (RCC). She notes that there are significant implications and complexities in making changes to how animals are raised – including animal well-being, socio-economic and environmental considerations – and this is why the Council continues to work with many parties through constructive dialogue and shared objectives to bring about the best outcomes. Some examples of food sustainability issues that RCC is working on include the neonicotinoid insecticide concerns (involving CropLife Canada, Flowers Canada Growers and beekeeper associations) as well as seafood sourcing and related labour issues (involving Greenpeace and other parties). A COMBINATIONTo get a sense of the big picture of how food retailers are currently approaching companies with regard to sustainability, we asked St-Pierre if they’re mostly dealing with companies on an individual basis or if they’re creating collective sustainability criteria together. It seems to be a combination of both. “Retailers often work on these issues in a pre-competitive fashion,” she explains. “However, when it comes to actual sourcing, this is part of the retailers’ individual strategies and we do not comment on such matters.” SUSTAINABILITY AT LOBLAWLet’s look at one retailer’s individual strategy – in this case the largest food retailer in Canada. Loblaw owns more than 20 different store chains across the country, and with the recent acquisition of Shoppers Drug Mart, now operates over 2,300 individual stores. The firm’s corporate social responsibility (CSR) approach includes five pillars that govern the way it does business in achieving its overall purpose of “Helping Canadians Live Life Well.” These pillars, which all relate to sustainability, are respect for the environment, waste reduction, energy reduction, packaging improvement and sourcing product ingredients with integrity. The Loblaw “pillars of sustainability” have stemmed from the recognition that customers are not only looking to understand where their food comes from, but to understand the health and sourcing implications of the ingredients in their food. “On any given day,” says Melanie Agopian, Loblaw Senior Director of Sustainability, “we may encounter questions as diverse as the degree of sustainability of a fishery that a seafood ingredient is sourced from, to whether our pork products are sourced from a loose housing environment, to the right approach to sodium in our diets. As a retailer, we need to have the answers to these various questions ready, and also ensure we advocate for consumers. That means we need to be very familiar with the issues customers care about, and our supply chain.”  To ensure Loblaw understands their customers’ perspectives, the company does things like conduct an annual survey. Recent survey results show that in general, half of the respondents chose environmental, sustainability and animal welfare aspects of their food as high in importance, followed by worker’s rights, food choices, waste reduction and local sourcing. However, with regard specifically to groceries, survey participants placed priority on local sourcing, healthier food choices, packaging reduction and animal welfare. To drive change in response to these concerns, Loblaw puts its corporate policy in action through collaborations with the Retail Council of Canada. In addition, a key driver for change at Loblaw is the firm’s leadership with their private label products (‘President’s Choice’ and ‘No Name’ are Canada’s #1 and #2 food brands respectively). “Our customers expect higher standards with our private label brands and these high standards are a mechanism to drive loyalty and trust,” Agopian explains. “We often look to lead and differentiate by innovating with our brands, and sustainability work is included in that.” Through these labels, Loblaw has a close relationship with their vendors, relationships in which the firm can partner and collaborate to find creative solutions on important sustainability issues. Agopian adds that in their effort to be as credible and science-based as possible, they use globally-recognized 3rd party certifications when appropriate. “We’ve seen from our own data that customers significantly prefer sustainability supported by [these] certifications,” she explains, “and we also partner with academic and scientific advisors on key files.” SOURCINGIn making their private label brands more sustainable, Loblaw is beginning with a close examination of the raw ingredient sourcing of seafood, palm oil, cocoa, coffee and beef. They are also working to continuously improve packaging with guidelines for weight reduction, using renewable or recycled content, and working on overall package recyclability/reusability. In terms of egg and poultry products, Agopian says animal welfare is a key sustainability focus. Loblaw is committed to expanding the President’s Choice (PC) Blue Menu Omega Free-Run Eggs offering in order to provide further choice to customers. The company is also expanding the full PC “Free From” range of products, which is meat and poultry raised without the use of antibiotics and hormones (noting that in Canada, all poultry and pork is raised without the use of hormones). Additionally, the company is an associate member of the National Farm Animal Care Council (NFACC) and supports the implementation of the NFACC Codes as they become available. SUSTAINABILITY OUTLOOKJust where sustainability issues are headed in the future for retailers is hard to say. Will it become mandatory for most (or even all) companies to satisfy retailers that their products are produced in a sustainable way? Which products will receive the most attention going forward in terms of sustainability concerns? While it’s impossible for anyone to predict the future, St-Pierre believes the public will lead the way. “The retailers’ first priority is to give consumers the products they want,” she notes. “Thus, consumers will define the next trends in sustainability. If we look at the current consumers’ demands, it is difficult to judge if, going forward, sustainability and animal welfare will become a standard for products, or if they will only serve a certain type of consumer.” St-Pierre adds that while ‘green’ factors do influence many consumers’ purchase decisions, they trail price and quality by a significant margin. “Still, analysts feel that awareness of ‘green’ products has been growing and will continue to grow, though they note that awareness does not necessarily translate to interest, especially if prices remain high,” she says. “On the other hand, retailers often announce commitments of their own to ‘green’ initiatives: buying locally- grown/produced products, sustainable fishing and sourcing, fair trade and safety of workers, commitments for the health and wellness of animals.” She points out that retailers have had an important role in the reduction of plastic bags use, as well as a significant impact in the development and implementation of many types of recycling programs across Canada. Food RetailersHere is some of the sustainability work being done by food retailers who operate in Canada: Metro’s (Ontario and Quebec) sustainable fisheries policy, for example, aims at providing fresh or frozen, wild and farmed seafood to customers. Sobeys also targets seafood in its sustainability efforts, fully supporting and embracing sustainable seafood certification programs and making a commitment to “fix the worst [fishery concerns] first.”   Walmart Canada is also committed to selling sustainably-managed seafood products. IKEA cooperates with World Wildlife Fund, Save the Children, UNICEF and many others on sustainability projects. All coffee sold at IKEA is third-party certified to meet social and environmental standards. IKEA’s food suppliers must agree to work to reduce waste and emissions to air, ground and water, handle, store and dispose of hazardous waste in an environmentally safe manner, contribute to the recycling and reuse of materials and products, and more.     
February 19, 2015 - The Dietary Guidelines Advisory Committee (DGAC) – an panel of experts tasked with developing recommendations about what Americans should eat – has submitted its report to the U.S. Departments of Health and Human Services (HHS) and Agriculture (USDA), which will publish the 2015 Dietary Guidelines for Americans later this year. One of the key recommendations is that consumers should take sustainability into account, eating less meat and more plant-based foods. reports.   
  Canadian chicken farmers are trustworthy, responsible and they really care about their flocks, the environment and producing quality products. That’s the message of a new branding campaign just launched by the Chicken Farmers of Canada (CFC). The campaign is called “Raised by a Canadian Farmer,” and CFC says it will “showcase the commitment of Canada’s chicken farmers to providing families with nutritious chicken raised to the highest standards of care, quality, and freshness.” One push for the initiative comes from the fact that there are already many store and processor brands in the marketplace that are attempting to identify products as Canadian, but consumers don’t know which of them they should rely on. CFC research has shown that the majority of Canadians would trust a national brand if it came from a farmer group as opposed to a retailer or processor. Therefore, CFC believes that because it both represents Canada’s 2700 chicken farmers and administers the On-Farm Food Safety and Animal Care programs to which they must adhere, it made sense for CFC to spearhead a national branding campaign. “Raised by a Canadian Farmer” got off the ground in 2011, when CFC Directors approved its creation as part of the organization’s annual strategic planning process. “This kind of program takes a long time – particularly since it’s integral that as many partners are consulted as possible,” notes CFC’s Manager of Communications Lisa Bishop-Spencer. In 2012, CFC engaged a firm called “Brand Matters” to develop the campaign. This involved conducting many extensive and in-depth interviews among CFC member organizations, which represent an extensive portion of the chicken value chain. The firm also conducted many extensive interviews with representatives from major Canadian grocery retailers and primary processors. Meanwhile, CFC also did research through its “Usage & Attitude” surveys. These questionnaires are used on an ongoing basis to track Canadian consumer trends and concerns like food safety and animal care. The survey work found that it’s increasingly important to shoppers that the products they buy come from Canada. More specifically, over 85 per cent of respondents felt that it’s important that the chicken they buy be Canadian and not imported. They were also inclined to feel that their expectations for food safety and animal care are met when the chicken is raised in Canada. Throughout 2012, all of these elements were integrated in a cohesive branding strategy. “Effectively,” says Bishop-Spencer, “it cleared the path to capitalize on Canadians’ already positive view of Canadian chicken, Canadian chicken farmers, as well as on the importance of a Canadian identity.” GROCERY STORESDuring 2013, CFC approached several major grocery retailers to determine their willingness to participate in the campaign, and find out what would be needed to ensure the successful launch of branded fresh Canadian chicken in stores. CFC is currently negotiating with a variety of retailers and restaurant chains, big and small, to try to make the brand as widely available as possible. “At this time, we are not working with foodservice, as this is a program meant predominantly for fresh chicken at retail, although we do have a couple of frozen products that will be ‘on-brand’ soon,” says Bishop-Spencer. “So, the program is launching at retail right now, but we’re receiving a big influx of interest from restaurants across the country — which points to the possibility that this will be a next step in the brand’s evolution.” Bishop-Spencer says that the processors and retailers coming into the program are very enthusiastic and are making longer-term plans to incorporate it. “We currently have two retailers and one processor ‘on brand’ and other contracts are currently in negotiation,” she notes. “What’s really interesting is that we’re seeing a greater level of attention being paid to the matter of demonstrating when chicken is Canadian. We’ve brought a great deal of awareness throughout the industry to the importance of this issue…It looks like people are listening when we tell them that the vast majority of Canadians would be likely to buy chicken if it has a label showing it is from Canada.” While Bishop-Spencer says a uniform approach in marketing to the public — one that allows individual retailers or processors to market their products, but also include the message that their product has been raised to a strict set of national standards endorsed by farmers — is one she believes consumers will feel is stronger than any alternative. Every retailer or restaurant will likely reach shoppers or diners with package labelling and menu highlighting, but signage and other avenues could also be used. “We do see it as being on package, that’s for sure, but we’re hearing more and more interest in placing the brand within flyers, at point of sale,” Bishop-Spenser says. “Most interestingly, there’s interest in incorporating the use of our mark within CFC’s expansive digital strategy, which is an established means of getting directly to those people who actually buy our chicken.” CFC’s digital strategy includes things like Twitter, Facebook, mobile apps and Pinterest. Once a retailer or processor comes “on brand,” discussions are initiated about how they can work with CFC to share these avenues. “There may be later opportunities for them to partner with us in traditional print and television marketing as well,” says Bishop-Spencer. The answer to whether some of the rationale for the branding program is a firmer establishment of Canadian chicken sales (in case, for example, more chicken imports occur in future) is yes. “Certainly, there are elements of this program that, no doubt, are about keeping and growing the market for Canadian chicken,” says Bishop-Spencer. “Imports are always an issue — and so is spent fowl. As importantly, though, the program is about delivering on consumer expectations. As an industry, we have a responsibility to be straightforward with consumers and let them know what they’re buying and where it’s from and to not just let them make assumptions. That’s a risk we can’t afford. We spend a great deal of time, as a part of our ongoing strategic planning, surveying and learning about what our consumers want – and Canadians want Canadian chicken.”      
  As part of its commitment toward building a sustainable egg industry, Egg Farmers of Canada (EFC) puts a lot of weight behind research and development. By investing in research conducted at universities across the country, EFC, on behalf of egg farmers, address issues of great importance to the industry and consumers alike. With a focus on egg production, poultry science, animal and human nutrition, and environmental technologies and techniques, Egg Farmers of Canada funds research in areas that will shape the future of egg farming in Canada. To this end, we have launched a research chair program focused on the egg industry.   “Supporting proactive discovery is such an important part of our research efforts and working with Maurice and Tina makes it possible for us to shape the future of egg farming,” explains Peter Clarke, Chairman of Egg Farmers of Canada. “Our chairholders are thought leaders in their fields, who were selected for their commitment to research excellence. We are very proud to be working with them.” Investing in TomorrowEFC is dedicated to looking forward and nurturing the next generation of researchers and industry experts. “Our philosophy towards research is simple: in order to be at the forefront of social change we must drive innovation by investing in tomorrow’s industry experts,” adds Peter Clarke. Current chairholdersDr. Maurice Doyon, Egg Industry Economic Research Chair at Université Laval in Quebec CityDr. Doyon’s research focuses on the economic implications of the Canadian egg industry and supply management. Dr. Doyon and his team are developing a variety of projects on the economics of egg production that promote growth and innovation in the sector. Their projects include the development of a quota trading system between farmers, an examination of the implications of international trade on the system of supply management, an evaluation of consumers’ willingness to pay for specialty eggs and the development of a model of egg producers’ behaviour in situations of economic risk. Dr. Tina Widowski, Poultry Welfare Research Chair at the University of GuelphDr. Widowski’s work focuses on hen welfare and health, and best practices for the management of housing systems. The first project she will complete in this area examines the ways in which different pullet rearing systems affect hens’ behaviour, bone health and egg production.   Dr. Widowski’s research team is developing projects on the development of flight and locomotion in different breeds of laying hens in aviary systems, the causes and prevention of feather pecking and the effects of ammonia outputs from manure in alternative housing systems. Looking aheadEgg Farmers of Canada are dedicated to making sure we invest in innovative technology and practices for years to come, assuring the sustainability of the Canadian egg industry. “We look forward to continuing our work with our research chairs, as well as our broader network of researchers across the country,” says Clarke. “It is important to work together to mobilizing this new knowledge for the benefit of our farms, farmers and stakeholders in Canada and with partners around the world.” For more information about our research programs, please visit  

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