Applied Food Technologies, Inc. (AFT) is a privately held corporation in Alachua, Florida that develops diagnostics needed in the seafood industry and runs fee-for-service species identification and verification programs.
Applied Food Technologies is primarily a research and development company focusing on fish species identification using DNA and environmental contaminant detection using gene expression in sentinel organisms. AFT also offers a fee-for-service business for seafood species identification. [1]
The DNA-based species identification diagnostics developed by AFT are used in-house and are also packaged in a kit format and sold to federal, state and private laboratories in the US, Europe and Asia. AFT has established an extensive library of taxonomically verified fish species and has developed DNA standards for these fish.
AFT has been criticized as being "in industry's pocket" because AFT has been a loud voice in support of industry against media reports of mislabeling. AFT claims their internal testing has shown a much lower mislabeling rate than media reports. Although Applied Food Technologies has been included in numerous media reports concerning seafood species mislabeling and has been contacted to conduct testing for the media many times, AFT does not perform species identification testing for the media, which may be the cause of some criticism. AFT's mission statement includes offering a testing service to the seafood industry utilizing the "best available science" for the purpose of improving the industry to better serve the consumer. Typically the media outlets are unable to meet the chain of custody requirements within the "best available science" component, which is one of the principal reasons AFT does not offer testing to the media.
Applied Food Technologies offers fee-for-service business in several areas including fish species identification (also known as Fish ID), seafood net weight, and antibiotic residue testing, which are described in detail below.
Even with the plethora of laws and regulations protecting consumers from mislabeling of seafood, enforcing compliance has been challenging because of the unique nature of seafood itself. [2] Unlike cattle, poultry, pork, crops, or other land-based food sources, the "farms" on which wild seafood is grown cannot easily be inspected. LeeAnn Applewhite realized in 2000 that modern technology could be used to solve this problem, was awarded several USDA SBIR research awards to develop the tools, and founded AFT to create a solution. [1]
Applied Food Technologies maintains an internal DNA database generated from a collection of economically important seafood specimens, which were taxonomically identified by third-party institutions, such as the Smithsonian and the Florida Museum. [1] These taxonomically validated specimens were sequenced in multiple regions to create a database of unique sequences capable of correctly identifying and distinguishing different seafood species." [1] Because only species identification testing that compares the sequence to a validated reference meets the current FDA guidelines for species identification, any lab not using a validated reference does not meet the FDA requirement. [3] AFT's Applewhite says, "Using a public database to determine a fish species is not very useful because the data is only as accurate as the least careful person submitting sequences, thus, the DNA sequences for common substitutes can also appear in the database under the wrong name." [4] FDA’s Stephanie Yao agrees, "Most other labs are pulling publicly available sequences off of the Internet to make their identifications, a practice FDA does not recommend for regulatory decisions." [4] FDA's Yao continued, AFT "often runs samples for importers whose shipments are being held by the FDA and the FDA has released some of those shipments based on AFT’s results." [4]
Applied Food Technologies CEO, LeeAnn Applewhite, incorporated APL Sciences in 1997 after inventing a seafood test kit and licensing the technology to Neogen Corporation. APL Sciences received five USDA Small Business Innovation Research (SBIR) Awards totaling approximately $1,000,000.00. AFT was formed in 2003 in Blacksburg, Virginia, by LeeAnn Applewhite and Maureen Dolan to be the fee-for-service testing laboratory and manufacturing and marketing arms for APL Science, Inc. Robert Mino later joined as a co-owner until the company’s sale in 2015. AFT has also been awarded several SBIR grants and industry research contracts including most recently a grant to develop a method for species identification for the U.S. shrimp industry.
Applied Food Technologies was showcased on a national broadcast of The Early Show on CBS on June 8, 2011 to discuss seafood mislabeling [5] after release of a national publication on the issue by consumer advocate group Oceana and a subsequent New York Times publication [6] on the subject. Although in business for several years, Applied Food Technologies came to the national attention after becoming the first company with DNA-based fish species identification methods recognized by the FDA to test all catfish imported from China in the late 2000s. [7] Applied Food Technologies was subsequently interviewed in May, 2010, by ABC affiliate WCJB-TV. [8] Applied Food Technologies was showcased in University of Florida’s Explore magazine Fall 2011, issue. [9]
Bioinformatics is an interdisciplinary field of science that develops methods and software tools for understanding biological data, especially when the data sets are large and complex. Bioinformatics uses biology, chemistry, physics, computer science, computer programming, information engineering, mathematics and statistics to analyze and interpret biological data. The process of analyzing and interpreting data can some times referred to as computational biology, however this distinction between the two terms is often disputed. To some, the term computational biology refers to building and using models of biological systems.
Seafood is the culinary name for food that comes from any form of sea life, prominently including fish and shellfish. Shellfish include various species of molluscs.
Hazard analysis and critical control points, or HACCP, is a systematic preventive approach to food safety from biological, chemical, and physical hazards in production processes that can cause the finished product to be unsafe and designs measures to reduce these risks to a safe level. In this manner, HACCP attempts to avoid hazards rather than attempting to inspect finished products for the effects of those hazards. The HACCP system can be used at all stages of a food chain, from food production and preparation processes including packaging, distribution, etc. The Food and Drug Administration (FDA) and the United States Department of Agriculture (USDA) require mandatory HACCP programs for juice and meat as an effective approach to food safety and protecting public health. Meat HACCP systems are regulated by the USDA, while seafood and juice are regulated by the FDA. All other food companies in the United States that are required to register with the FDA under the Public Health Security and Bioterrorism Preparedness and Response Act of 2002, as well as firms outside the US that export food to the US, are transitioning to mandatory hazard analysis and risk-based preventive controls (HARPC) plans.
The Consortium for the Barcode of Life (CBOL) was an international initiative dedicated to supporting the development of DNA barcoding as a global standard for species identification. CBOL's Secretariat Office is hosted by the National Museum of Natural History, Smithsonian Institution, in Washington, DC. Barcoding was proposed in 2003 by Prof. Paul Hebert of the University of Guelph in Ontario as a way of distinguishing and identifying species with a short standardized gene sequence. Hebert proposed the 658 bases of the Folmer region of the mitochondrial gene cytochrome-C oxidase-1 as the standard barcode region. Hebert is the Director of the Biodiversity Institute of Ontario, the Canadian Centre for DNA Barcoding, and the International Barcode of Life Project (iBOL), all headquartered at the University of Guelph. The Barcode of Life Data Systems (BOLD) is also located at the University of Guelph.
Basa is a species of catfish in the family Pangasiidae. Basa are native to the Mekong and Chao Phraya basins in Mainland Southeast Asia. These fish are important as a food source, and also on the international market. They are often labelled in North America and Australia as "basa fish", "swai", or "bocourti". In the UK all species of Pangasius may legally be described as "river cobbler", "cobbler", "basa", "pangasius", "panga", or any of these with the addition of "catfish". In the rest of Europe, these fish are commonly marketed as "pangasius" or "panga". In Asian markets, names for basa include "Pacific dory" and "patin". Other related shark catfish may occasionally be incorrectly labeled as basa fish, including P. hypophthalmus and P. pangasius.
The process of establishing documentary evidence demonstrating that a procedure, process, or activity carried out in testing and then production maintains the desired level of compliance at all stages. In the pharmaceutical industry, it is very important that in addition to final testing and compliance of products, it is also assured that the process will consistently produce the expected results. The desired results are established in terms of specifications for outcome of the process. Qualification of systems and equipment is therefore a part of the process of validation. Validation is a requirement of food, drug and pharmaceutical regulating agencies such as the US FDA and their good manufacturing practices guidelines. Since a wide variety of procedures, processes, and activities need to be validated, the field of validation is divided into a number of subsections including the following:
The escolar, Lepidocybium flavobrunneum, a species of fish in the family Gempylidae, is found in deep tropical and temperate waters around the world. It is also known as snake mackerel, walu walu, and is sometimes sold as "butterfish" or "white tuna".
Safe Harbor Certified Seafood is the first brand developed under San Rafael, California based Micro Analytical Systems, Inc. (MASI). Seafood bearing the Safe Harbor seal is tested for overall mercury content to be under the FDA's action level of 1ppm, histamine, Escherichia coli O157:H7(E.coli O157:H7) and salmonella. Every large fin fish is individually tested by MASI personnel so the maximum mercury level in that fish does not exceed the limit set for that species. In addition, most shellfish and farmed species of catfish, shrimp and tilapia are screened for E.coli O157:H7 and Salmonella while exotic species like tuna, mahi mahi and swordfish are tested for scombroid food poisoning see histamine. Fish that are not individually tested are batch tested using an ANSI approved sampling algorithm ensuring a 95% confidence rate that the respective lot being tested falls under the Safe Harbor standard set for that species.
AquAdvantage salmon is a genetically engineered (GE) fish, a GE Atlantic salmon developed by AquaBounty Technologies in 1989. The typical growth hormone-regulating gene in the Atlantic salmon was replaced with the growth hormone-regulating gene from Pacific Chinook salmon, with a promoter sequence from ocean pout. This gene enables GM salmon to grow year-round instead of only during spring and summer.
DNA barcoding is a method of species identification using a short section of DNA from a specific gene or genes. The premise of DNA barcoding is that by comparison with a reference library of such DNA sections, an individual sequence can be used to uniquely identify an organism to species, just as a supermarket scanner uses the familiar black stripes of the UPC barcode to identify an item in its stock against its reference database. These "barcodes" are sometimes used in an effort to identify unknown species or parts of an organism, simply to catalog as many taxa as possible, or to compare with traditional taxonomy in an effort to determine species boundaries.
Barcode technology in healthcare is the use of optical machine-readable representation of data in a hospital or healthcare setting.
Seafood species can be mislabelled in misleading ways. This article examines the history and types of mislabelling, and looks at the current state of the law in different locations.
Antimicrobials destroy bacteria, viruses, fungi, algae, and other microbes. The cells of bacteria (prokaryotes), such as salmonella, differ from those of higher-level organisms (eukaryotes), such as fish. Antibiotics are chemicals designed to either kill or inhibit the growth of pathogenic bacteria while exploiting the differences between prokaryotes and eukaryotes in order to make them relatively harmless in higher-level organisms. Antibiotics are constructed to act in one of three ways: by disrupting cell membranes of bacteria, by impeding DNA or protein synthesis, or by hampering the activity of certain enzymes unique to bacteria.
Molecular diagnostics is a collection of techniques used to analyze biological markers in the genome and proteome, and how their cells express their genes as proteins, applying molecular biology to medical testing. In medicine the technique is used to diagnose and monitor disease, detect risk, and decide which therapies will work best for individual patients, and in agricultural biosecurity similarly to monitor crop- and livestock disease, estimate risk, and decide what quarantine measures must be taken.
The Barcode of Life Data System is a web platform specifically devoted to DNA barcoding. It is a cloud-based data storage and analysis platform developed at the Centre for Biodiversity Genomics in Canada. It consists of four main modules, a data portal, an educational portal, a registry of BINs, and a data collection and analysis workbench which provides an online platform for analyzing DNA sequences. Since its launch in 2005, BOLD has been extended to provide a range of functionality including data organization, validation, visualization and publication. The most recent version of the system, version 4, launched in 2017, brings a set of improvements supporting data collection and analysis but also includes novel functionality improving data dissemination, citation, and annotation. Before November 16, 2020, BOLD already contained barcode sequences for 318,105 formally described species covering animals, plants, fungi, protists.
Sunil Kumar Verma, was an Indian biologist and a principal scientist at the Centre for Cellular and Molecular Biology, Hyderabad, India. Verma was primarily known for his contributions to the development of "universal primer technology", a first generation DNA barcoding method, that can identify any bird, fish, reptile or mammal from a small biological sample, and satisfy legal evidence requirements in a court of law. This technology has revitalised the field of wildlife forensics and is now routinely used across India to provide a species identification service in cases of wildlife crime. This approach of species identification is now known as "DNA barcoding" across the world.
DNA barcoding is an alternative method to the traditional morphological taxonomic classification, and has frequently been used to identify species of aquatic macroinvertebrates. Many are crucial indicator organisms in the bioassessment of freshwater and marine ecosystems.
Microbial DNA barcoding is the use of DNA metabarcoding to characterize a mixture of microorganisms. DNA metabarcoding is a method of DNA barcoding that uses universal genetic markers to identify DNA of a mixture of organisms.
DNA barcoding methods for fish are used to identify groups of fish based on DNA sequences within selected regions of a genome. These methods can be used to study fish, as genetic material, in the form of environmental DNA (eDNA) or cells, is freely diffused in the water. This allows researchers to identify which species are present in a body of water by collecting a water sample, extracting DNA from the sample and isolating DNA sequences that are specific for the species of interest. Barcoding methods can also be used for biomonitoring and food safety validation, animal diet assessment, assessment of food webs and species distribution, and for detection of invasive species.
Fungal DNA barcoding is the process of identifying species of the biological kingdom Fungi through the amplification and sequencing of specific DNA sequences and their comparison with sequences deposited in a DNA barcode database such as the ISHAM reference database, or the Barcode of Life Data System (BOLD). In this attempt, DNA barcoding relies on universal genes that are ideally present in all fungi with the same degree of sequence variation. The interspecific variation, i.e., the variation between species, in the chosen DNA barcode gene should exceed the intraspecific (within-species) variation.