Joon Kim founded Apollonia Health, an oral healthcare biotech company
Apollonia Health researches and develops innovative oral hygiene products that can safely and selectively eliminate cavity causing bacteria.
The company manufactures revolutionary oral healthcare products made only with naturally occurring ingredients. Because of this, their products can be used safely by children.
Anacail was formed to commercialise technology developed at the Glasgow University’s School of Physics and Astronomy. The technology can rapidly and safely turn some of the oxygen inside packaged food into ozone, a very effective germicide. Plasma generated by a retractable device held briefly against the surface of plastic or glass packaging splits the bonds between oxygen molecules (O2) inside the packaging which then reform as ozone (or O3). The ozone naturally returns to its original state after just a couple of hours – more than enough time for any mould, fungi or bacteria on the packaging’s contents to be destroyed without adversely affecting its taste.
The product’s effectiveness as a germ-killer also extends food’s shelf-life by at least one extra day, and has been proven at UK labs including Campden BRI in Gloucestershire, where tests have shown an increase in shelf-life for products including bread and muffins, and a significant reduction of many pathogens in poultry including campylobacter, pseudomonas, and E.coli. The name Anacail means ‘shield’, ‘preserve’ or ‘protect’ in Gaelic.
MYO lets you use the electrical activity in your muscles to wirelessly control your computer, phone, and other favorite digital technologies.
With a wave of your hand, MYO will transform how you interact with your digital world.
SEE WHAT MATTERS
IWatchLife records video only when events are detected so you don’t have to sort through hours of meaningless video to see what’s important.
|Epiphan Systems is a world leader in high resolution VGA, DVI and audio video capture, encoding, recording and streaming hardware. Backed by rock-solid customer support, our products allow you to capture, encode, record, stream and replay virtually any highresolution video signal.
||Used extensively in a wide variety of areas including video recording, medical imaging, webcasting and conference recording, Epiphan Systems’ products have received worldwide recognition from leading companies and organizations in the medical, security, education, transportation, industrial and IT fields
Used extensively in a wide variety of areas including video recording, medical imaging, webcasting and conference recording, Epiphan Systems’ products have received worldwide recognition from leading companies and organizations in the medical, security, education, transportation, industrial and IT fields.
PERFUSIX is the world’s first and only commercial provider of ex-vivo organ perfusion services. PERFUSIX employs clinically proven ex-vivo organ perfusion technology and processes that restore and improve the function of donor organs. Most importantly, PERFUSIX increases the number of organs available for transplant, improves patient and organ survival, improves recipient quality of life, and reduces post-transplant care costs.
Oxford Performance Materials OsteoFabTM Medical Devices and ImplantsReceives FDA approval.
Breaking the mold for the medical device market.
Utilizing the most advanced materials and technology, our OsteoFabTM process can reproduce exactly what you design, or exactly what nature intended by “printing” medical implants derived directly from a CT Scan or MRI file for a perfect anatomical fit with our own OXPEKK®-IG polymers.
However, this technology allows us to go beyond merely replicating shapes: we also have the ability to meet specific performance requirements as anatomically applicable. Through our proprietary “Coherent Implantology Process”, fit, form and bio-function are digitally calculated, constructed, and then produced. http://www.oxfordpm.com/biomedical_parts.html
DLVR’s innovative technology is based on the synthesis and use of an HDL-mimetic phospholipid-based nanoparticle called HPPS (HDL-like Peptide-Phospholipid Scaffold).
DLVR Therapeutics Inc. is based in Toronto. Co-founded by University Health Network, the Ontario Institute for Cancer Research and MaRS Innovation, the Company is developing an innovative, HDL-like Peptide-Phospholipid Scaffold (HPPS) nanoparticle delivery system. HPPS enhances cell targeting and bypasses endosomal degradation, two common problems which beset contemporary delivery systems. Mechanistically, HPPS appropriates HDL’s affinity for its natural ligand, Scavenger Receptor B1 (SR-B1) to preferentially target this receptor. Upregulated in many solid tumors such as breast, colorectal, pancreatic and ovarian, SR-B1 facilitates direct delivery of payload to the cytosol of tumor cells. The ultra-small HPPS particle is suitable for a variety of different RNAi payloads. The company’s development strategy is to collaborate with partners that have developed novel RNAi therapeutics that require an innovative delivery technology.
Oxitec is a pioneer in controlling insects that spread disease and damage crops. They have developed an innovative new solution to controlling harmful insects pests.
EnvirOx, LLC was started in 1995 as a research project with the primary objective of developing a cleaning technology that would reduce toxicity in a meaningful way. EnvirOx has literally transformed the cleaning industry. The company’s original goal of developing a safer cleaning product helped spur the entire industry to become safer and healthier.
What is Nanotechnology? and how it will affect us? Learn about products that use materials at nano-scale!
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The active layer (blue line) is sandwiched between layers of dielectric material.
Researchers from North Carolina State University have found a way to create much slimmer thin-film solar cells without sacrificing the cells’ ability to absorb solar energy. Making the cells thinner should significantly decrease manufacturing costs for the technology (see paper in Nano Letters: “Dielectric Core–Shell Optical Antennas for Strong Solar Absorption Enhancement”).
“We were able to create solar cells using a ‘nanoscale sandwich’ design with an ultra-thin ‘active’ layer,” says Dr. Linyou Cao, an assistant professor of materials science and engineering at NC State and co-author of a paper describing the research. “For example, we created a solar cell with an active layer of amorphous silicon that is only 70 nanometers (nm) thick. This is a significant improvement, because typical thin-film solar cells currently on the market that also use amorphous silicon have active layers between 300 and 500 nm thick.” The “active” layer in thin-film solar cells is the layer of material that actually absorbs solar energy for conversion into electricity or chemical fuel.
The BiopSys team has already developed the technique to the point where it produces “a higher-fidelity, more sensitive measurement than in any existing commercial technology,” Walker says. “That’s a good first step. But that’s in a lab setting.” He hopes that companies will soon seek to license the technology, for which his team has made several patent applications. “The hope and expectation is that, as this technology develops, it gets translated onto end users – companies that will manufacture the devices, and doctors that will use them.” That could take another five to 10 years, he says.
Source: Prof Gilbert Walker Laboratory at the University of Toronto
………a three-year debate over the need to regulate decamethylcyclopentasiloxane, also known as D5, ended when federal Environment Minister Peter Kent concluded that it does not harm the environment.
D5 and related siloxanes are noted for their ability to provide a quick-drying, non-oily feel to everything from shampoo to sunscreen. In January 2009, a screening assessment, conducted as part of Canada’s ongoing Chemicals Management Plan, flagged D5 as potentially harmful to the environment. However, in July 2009 the Silicones Environmental, Health and Safety Council of North America submitted a Notice of Objection. In response to this, then-environment minister Jim Prentice established a scientific board of review to look into the matter. The board issued its report last fall.
The Report of the Board of Review for Decamethylcyclopentasiloxane (Siloxane D5) concluded that, due to its high vapour pressure, D5 tends to partition primarily into air, where it is quickly degraded into harmless compounds by indirect photolysis. Although it can persist in sediments and accumulate in sediment-dwelling organisms, it does not biomagnify through the food chain. The report noted that “siloxane D5 will not accumulate to sufficiently great concentrations to cause adverse effects in organisms in air, water, soils, or sediments.”
Source: The Canadian Chemical News (Canadian Society for Chemistry))
Thirty-seven skeletons found in a mass burial site in the grounds of St John’s College may not be who they initially seemed, according to Oxford researchers studying the remains.
Researchers from the Research Laboratory for Archaeology and the History of Art at the University of Oxford carried out a chemical analysis of collagen from the bones and teeth of some of the individuals and concluded that they had had a substantial amount of seafood in their diet. It was higher in marine protein than that found in the local Oxfordshire population, as recorded in existing data.
Testing was done using strontium isotope analysis of tooth enamel, a technique which provides evidence of where an individual lived when the tooth formed. Strontium, a naturally occurring element in rocks and soils, is absorbed by plants and animals, and can be found in trace amounts in mammalian teeth. Strontium isotopes reflect the particular geological conditions so even small traces can be revealing of that individual’s location.
The researchers also looked at data relating to previous research in which an isotopic analysis of dismembered skeletons found in a burial pit at the Weymouth Ridgeway in Dorset identified the individuals as Scandinavian Viking raiders. The decapitated skeletons in Dorset were dated at between 890 and 1030 AD, and were thought to be a group of young men from different countries across Scandinavia. The isotopic analysis of the Dorset group when compared with the individuals found in the mass burial site at St John’s College show similarities.