A number of market leaders have consolidated their positions within the surgical closure and securement markets through successful internal development programs and through technology partnerships with innovative vendors of next-generation technologies. For example, Covidien and Ethicon (Johnson & Johnson) are major suppliers of cyanoacrylate products in the United States; with dominant sales resources to sell these products, these companies lead the market, although they face competition from the Canadian company Glustitch, the U.K.-based Medlogic and others. Synovis (formally Biovascular Inc.) has targeted cardiovascular and other procedures, and has a range of closure products; it has partnered with GEM to develop and exploit GEM’s internal high-strength glue product (Glubran) in the United States.
Thursday, March 26, 2009
Report predicts excess of 100 million procedures
A number of market leaders have consolidated their positions within the surgical closure and securement markets through successful internal development programs and through technology partnerships with innovative vendors of next-generation technologies. For example, Covidien and Ethicon (Johnson & Johnson) are major suppliers of cyanoacrylate products in the United States; with dominant sales resources to sell these products, these companies lead the market, although they face competition from the Canadian company Glustitch, the U.K.-based Medlogic and others. Synovis (formally Biovascular Inc.) has targeted cardiovascular and other procedures, and has a range of closure products; it has partnered with GEM to develop and exploit GEM’s internal high-strength glue product (Glubran) in the United States.
Tuesday, March 24, 2009
Frost & Sullivan Commends Nycomed for Excellence in Product Differentiation Innovation
Monday, March 23, 2009
Prospective randomized study evaluating an absorbable cyanoacrylate for use in vascular reconstructions
J Vasc Surg, vol. 44, 1002 - 1009, 2006
Abstract
Background:
An easy-to-use vascular sealant with good safety and efficacy is needed to prevent anastomotic bleeding in vascular surgery. This study evaluated the safety and efficacy of cyanoacrylate surgical sealant in establishing hemostasis of expanded polytetrafluoroethylene to arterial vascular anastomoses in arteriovenous (AV) grafts and femoral bypass grafts.
Methods:
This multicenter, randomized, controlled, open-label study was conducted in a hospital setting at 12 sites: 10 in the United States and 2 in Europe. A total of 151 patients undergoing femoral bypass procedures or AV shunt procedures for hemodialysis access using expanded polytetrafluoroethylene grafts were randomized 2:1 to receive cyanoacrylate surgical sealant or the control (oxidized cellulose) between April 26, 2004, and January 18, 2005. Randomization was stratified by clinical site and type of procedure. After the anastomosis, cyanoacrylate surgical sealant or the control was applied to all anastomosis sites for patients undergoing femoral bypass procedures and to only the arterial anastomosis sites for patients undergoing AV shunt procedures. The primary end point was the elapsed time from clamp release to hemostasis. Secondary end points were the proportion of patients achieving hemostasis at t=0 (immediate), 1, 5, or 10 minutes after clamp release, use of additional adjunctive measures to achieve hemostasis, and occurrence of adverse events.
Results:
Baseline demographics and clinical characteristics showed that the two treatment groups were similar at baseline. The mean time from clamp release to hemostasis was 119.3 seconds with cyanoacrylate surgical sealant vs 403.8 seconds with the control (P<.001). Immediate hemostasis was achieved in 54.5% of patients receiving cyanoacrylate surgical sealant and in 10% of those receiving the control. The proportion of patients requiring additional adjunctive measures was lower with cyanoacrylate surgical sealant, and the occurrence of adverse events was similar in both groups.
Conclusions:
This study demonstrates that cyanoacrylate surgical sealant is effective at reducing the time to hemostasis and achieving immediate hemostasis in AV shunt and femoral bypass procedures and that it is safe for internal use. Cyanoacrylate surgical sealant is an easy-to-use vascular sealant with good safety and efficacy that significantly decreases anastomotic bleeding in vascular surgery.
Sunday, March 22, 2009
Camp HemoVon to Host Kids With Blood Disorders
Formerly known as West Virginia Hemophilia Camp, Camp HemoVon is a weeklong camp for children ages 7 to 16 who have a bleeding disorder such as hemophilia or von Willebrand disease. The camp is sponsored by West Virginia University Health Sciences, West Virginia Bleeding Disorder Association, Camp Happy Valley and various pharmaceutical companies.
“Camp HemoVon is a way for kids to engage in normal activities they might not otherwise be able to do,” said Anita Graham, camp coordinator.
According to the Centers for Disease Control and Prevention, hemophilia is an inherited disorder that affects 18,000 people in the United States, most of whom are male. The condition results from deficiencies in blood clotting factors and can lead to spontaneous internal bleeding and bleeding following injuries or surgery.
The most common bleeding disorder is von Willebrand disease, found in approximately 1 to 2 percent of the U.S. population, according to the CDC. It results from a deficiency or defect in the body’s ability to make von Willebrand factor, which is a protein that helps blood clot. While the disorder occurs equally in both genders, females are more likely to recognize the symptoms of the disease because of heavy or abnormal menstrual periods and bleeding after giving birth.
In its 13th year, Camp HemoVon usually hosts campers from West Virginia, Maryland and Pennsylvania, as well as doctors and counselors. Campers are patients who have been treated in Morgantown, Charleston and Pittsburgh.
This marks the first year the camp will be held at Camp Happy Valley in Scott Depot, W.Va. Previously, the camp was held at Camp Horseshoe in Tucker County, W.Va. The camp is held in conjunction with Camp WINACA (Children WIN Against CAncer), a camp for children with cancer.
Campers have the opportunity to participate in a variety of activities including swimming, archery, hiking, fishing, boating, ropes course, climbing wall, zip line, basketball, tetherball, field activities and campfires.
There is no cost for campers to attend. The WVU Hemophilia Center secures funding, runs the infirmary and provides on-site 24-hour medical coverage with help from a licensed physician and registered nurses from around the state. The infirmary is under the direction of Elizabeth Kurczynski, M.D. The Hemophilia Center of Western Pennsylvania also provides care.
Initial registration for Camp HemoVon is due by April 30. For more information on attending the camp or on providing financial support to the camp, contact Anita Graham by phone at 304-293-1205 or by e-mail at agraham@hsc.wvu.edu.
Wednesday, March 18, 2009
Researchers hope to take a lesson from mussels

The bandages of the future may come from oceanic tidal zones, where creatures who want to stay in one place have developed sophisticated ways of sticking to things. Frustrated by the inadequacies of human-engineered medical adhesives, researchers hope to take a lesson from mussels, barnacles, tubeworms and other animals that can resist the ocean's buffeting currents. "The interface between ocean and land has been an important zone in evolutionary history," said University of Utah biochemist Russell Stewart. "Marine organisms exploit multiple bonding mechanisms. By using multiple chemical bonds, they're able to bond to multiple substrates" — a fancy way of saying they can stick to anything. Chemists recently made prototype bandages with an inkjet printer filled with adhesive proteins taken from mussels, whose remarkable "feet" — a tangle of fibers that anchor them to rocks — have made them the most widely-studied specialist in marine clinging. Mussels can also attach themselves to wood, iron, steel, each other, and even Teflon. The shortcomings of modern medical adhesives are manifold. As anyone who's ever put a Band-Aid on an elbow knows, off-the-shelf medical glues aren't suitable for moving joints. Sutures — which can be thought of as a form of mechanical adhesion — can leave scars and leave bodies open to infection. Sealants made from blood-coagulating compounds are promising, but still prone to contamination. And surgical-grade glues are essentially Krazy Glue with different brand names. As the instructions on Krazy Glue packets make clear, it's a toxic substance not meant to be put inside a body, even if it could seal a tissue under repair by a surgeon — which, often, it can't. The inside of a body, however, poses many of the same challenges as an intertidal zone. Marine glues need to stick to wet surfaces. They do so by employing a variety of chemical bonds to displace the water, right down to the last molecule. Then they need to keep their glue from dissolving in water. "There are chemical changes and cellular changes within the body, and all sorts of causes" that can dissolve a medical adhesive, said University of North Carolina bioengineer Roger Narayan, coauthor of the inkjet adhesive study in the Journal of Biomedical Materials Research Tuesday. Earlier research by co-author Jonathan Wilker, a chemist at Purdue University, showed that mussels strengthen their glue with molecules of iron, though the mechanical details of this process remain unclear. So do the molecular details of mussel adhesive itself. The glue is made from a mix of proteins that can be harvested and even synthesized — but much of its adhesive power comes from the proteins' structural arrangement. That's lost during harvesting, and can't yet be artificially replicated. "There's a gradient of proteins in that structure," said Stewart. "The proteins have different functions: varnishes, primers, the parts that connect the adhesive" to the threads that compose the mussel's foot. The difficulty in recreating mussel protein structures could explain why mussel-based medical adhesives are not yet on the market, despite nearly two decades of research. Stewart has chosen a less-complicated source of inspiration: the polycheate, a surf-dwelling worm that glues together grains of sand to make a tubular home for itself. "The mussel has to glue a string to a wet rock, whereas a polycheate just has to glue two similar materials together. That's a much simpler bonding problem," said Stewart. At the point of contact between surface and adhesive, said Stewart, polycheate and mussel glues — though composed of similar proteins — likely rely on a different mix of molecular bonds. Among them are the van der Waal forces of gecko foot fame, hydrogen bonds, covalent bonds, and salt bridges — a smorgasbord of molecular stickiness. The bonds have been identified, said Stewart, but not their configuration, or their relationship to individual proteins. Researchers need to determine "the proportion of different bonds, and how those might work in some cooperative and unexpected manner." Meanwhile, barnacles — the least-understood marine adhesive — don't use dopa, a protein central essential for mussel and polycheate glues. The lack of dopa, said Stewart, shows just how many ways nature has found to solve the problem of adherence in the surf. "A lot of these things are not well-understood," said Narayan. "These sorts of studies are the first steps to better understanding these materials."
Friday, March 13, 2009
Haemacure Reports First Quarter 2009 Results and Hires Advisor for the Sale or Merger of the Company
Results
Revenues amounted to
Financial Position
Cash, cash equivalents and temporary investments amounted to
On
"We have taken the necessary steps to lengthen our runway in these unprecedented financial and economic times. While these measures are difficult for all involved we have had tremendous support from our directors, employees, suppliers and business partners. I am encouraged by the number of industry members that have come forward and demonstrated an interest in exploring some form of relationship that could lead to a sale, merger or financing", said
Tuesday, March 10, 2009
CPC Pursues Development of Proprietary Synthetic Sealants as part of MedClose(TM)
CPC of America, Inc. (OTC Bulletin Board: CPCF.OB), a company focused on the development of therapeutic devices that enhance the quality of patient care in endovascular procedures, announced today that it is actively pursuing the development of proprietary polyethylene glycol (PEG) synthetic sealants as part of its global commercialization strategy for MedClose(TM). MedClose(TM) is an investigational-stage vascular closure system that is intended to seal arterial puncture sites following diagnostic or interventional catheterization procedures.
CPC will develop synthetic PEG sealants as platform technologies for the MedClose(TM) vascular closure system using ultra-pure functionalized, biocompatible and biodegradable polymers. The sealants will have adjustable physical properties, making it possible to 'fine tune' the gel time and strength for varied clinical applications. The proprietary compounds will be sourced from multiple suppliers, providing flexibility and accessibly for global commercialization and cost savings.
"PEG sealants have been found to have notable advantages to other surgical sealants," notes Dr. Olexander Hnojewyj, a medical advisor to CPC who has conducted extensive research and secured multiple patents and patent applications related to vascular closure sealants. Because PEG sealants are purely synthetic, they carry no risk of transmission of viral pathogens or prions. They are also shown to result in less swelling and inflammation than fibrin sealants, are easy to apply, and report consistently good hemostatic results(1).
"With our synthetic sealant strategy and the combined expertise and experience of our medical, technical and research team, we are well positioned to secure global commercialization of the MedClose(TM)," says Rod Shipman, President and CEO of CPC of America. "We anticipate clinical investigation for multiple indications, which may include sealing of femoral arteriotomy closures, biopsies and vertebral bodies following transpedicular interventions. They may also include the sealing of difficult-to-control bleeding sites during surgery - such as cardiac, lung, liver, pancreas, and OB/GYN procedures."
About CPC
CPC of America develops therapeutic devices for use in endovascular procedures. CPC's current focus is the completion of development and testing of the MedClose(TM) vascular closure system, an internal puncture-closing system for use in catheter laboratories.
Monday, March 9, 2009
Zymo webcast
Thursday, March 5, 2009
VOTE NOW !!!! Will the Feb. '09 vCJD scare in the UK affect your consideration of using a human or bovine sourced hemostat or sealant?

Currently I am offering 3 polls for open voting, if you are interested in offering an opinion I Thankyou! I will publish results later in the year, upon poll closure.
Irish Create Helpline Over Mad Cow fears

IRELAND - THE DISCOVERY that a haemophiliac who died in Britain last year had evidence of variant CJD or vCJD infection has led to just over 30 people ringing a helpline specifically set up to respond to the issue. The helpline was aimed at people who had received UK-derived plasma products or had concerns about blood products they received. Two information meetings were held in Dublin and Cork at the weekend to further allay concerns and were attended by a handful of people. It emerged two weeks ago that the elderly man, who did not die from vCJD, was infected from a UK plasma-derived product known as Factor VIII. Haemophilia and related bleeding disorders are caused by a lack of clotting factors and are treated by products containing clotting factor concentrate such as Factor VIII. Since the late 1990s, Ireland has been using a synthetic clotting concentrate. On hearing the details of the man’s death, the National Haemophilia director Dr Barry White and the Irish Haemophilia Society’s Brian O’Mahony wrote to the 50 Irish patients who had received UK plasma-derived products to inform them of developments. Only two of those had received a product that was subsequently identified as being at risk of vCJD. Thousands of people in the UK have received products where some of the donors developed vCJD, but none of the recipients have developed symptoms. There have been 167 cases of vCJD in the UK and four in Ireland since the link between eating infected meat and a new variant of CJD was made in the mid-1990s. Some nine people who died of vCJD in the UK had donated blood for the manufacture of clotting factor concentrates.