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Author: Tilda Barliya PhD Peripheral nerve lacerations are common injuries and often cause long lasting disability (1a) due to pain, paralyzed muscles and loss of adequate sensory feedback from the... 
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RT @iNanoParticles: Regenerative Medicine Company, Eqalix, Announces Grant from Nanotechnology Institute in Philadelphia, Pennsylv... http://t.co/4UM8qGWWto
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Kidney cells grown in research lab - | Get health news & research updates on beauty, body fitness, Sexual health, weight loss. Get to know all news on AIDS, Cancer, Addiction, Allergies, Anti-ageing, Backache & more news on health.
Luís Bastos's insight:
Researchers from the Institute of Bioengineering and Nanotechnology (IBN) have successfully generated the renal cells under artificial conditions in the lab.
Carlos Garcia Pando's curator insight,
22 February 2013, 15:13
Next, we need to make a printer dedicated to print Kidneys. I guess thw easiest way will be engineering one machine for each kind of tissue.
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A new study details the creation of innovative cardiac patches that utilize nanotechnology to enhance the conductivity of materials to induce cardiac tissue formation.
Luís Bastos's insight:
Creation of these ultra-thin cardiac patches put medicine a step closer to durable, high-functioning artificial tissues that could be used to repair damaged hearts and other organs.
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PHG Foundation
Luís Bastos's insight:
Billions of yen will go to projects in computing, space research, energy and nanotechnology, but the largest single allocation will be for stem cell research, with a focus on work involving clinical applications of induced pluripotent stem (iPS) cells – cells derived from adult tissue that are ‘reprogrammed’ into new cell types. The total investment package is just over 10 trillion yen, or approximately £70 billion, around 10% of which will go to scientific research.
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Luís Bastos's insight:
The programme for the first Nanotechnology in Medical Devices event has now been announced. The eSTI2 Consortium - Fitting Modern Diagnostic Technologies into Clinical Care Pathways - Dr Tariq Sadiq, eSTI2 Consortium Development of Hand-held Instrument for STI Diagnosis - Prof Wamadeva Balachandran, Director of Centre for Electronic Systems Research, School of Engineering & Design, Brunel UniversityInnovation in Glucose Monitoring Devices to Improve Environmental Impact -Dr Richard Day, Associate Director in Medical Technology, Cambridge ConsultantsPiezofilm Sensors for Point-of-care Immunoassay - Dr Oliver Boucher, Chief Business Officer, VivactaHow Length Scales Affect Performance in Micro- and Nano-Biosensors - Prof Tony Cass, Deputy Director & Research Director (Bionanotechnology), Institute of Biomedical Engineering, Imperial College LondonDiscussion Session: Needs of the Community - Facilitated by Dr Marian Rehak, NanoKTNNetworking Drinks Reception – sponsored by eSTI2
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McGill Dentistry Prof. Marc McKee and colleagues have been awarded $3.7 million from CFI, the Quebec Government and partners to acquire the first and only cr...
Luís Bastos's insight:
McGill Dentistry Prof. Marc McKee and colleagues have been awarded $3.7 million from CFI, the Quebec Government and partners to acquire the first and only cryo-FIBSEM (electron microscope) in Canada. McKee explains how this new generation electron microscope maintains the integrity of samples, allowing researchers to better visualize and analyze biological processes at the cellular, subcellular and molecular levels. This could lead to the earlier diagnosis of disease and the creation of new implant materials for tissue repair.
Luís Bastos's curator insight,
17 January 2013, 19:59
McGill Dentistry Prof. Marc McKee and colleagues have been awarded $3.7 million from CFI, the Quebec Government and partners to acquire the first and only cryo-FIBSEM (electron microscope) in Canada. McKee explains how this new generation electron microscope maintains the integrity of samples, allowing researchers to better visualize and analyze biological processes at the cellular, subcellular and molecular levels. This could lead to the earlier diagnosis of disease and the creation of new implant materials for tissue repair.
Luís Bastos's curator insight,
17 January 2013, 20:02
McGill Dentistry Prof. Marc McKee and colleagues have been awarded $3.7 million from CFI, the Quebec Government and partners to acquire the first and only cryo-FIBSEM (electron microscope) in Canada. McKee explains how this new generation electron microscope maintains the integrity of samples, allowing researchers to better visualize and analyze biological processes at the cellular, subcellular and molecular levels. This could lead to the earlier diagnosis of disease and the creation of new implant materials for tissue repair.
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Via Gerd Moe-Behrens
Luís Bastos's insight:
The hope has been that those properties could be exploited in creating devices that could interface with nervous tissue.
Gerd Moe-Behrens's curator insight,
17 December 2012, 19:26
Research this summer out of Rice University showed that newly developednanoparticles could be an effective emergency treatment for traumatic brain injuries. Now researchers at Duke University have come up with an ultra-pure carbon nanotube—dubbed “few-walled carbon nanotubes” (a reference to the single-walled and multi-walled varieties)—that canregulate excessive levels of chloride in nerve cells.
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TED Talks Each of our bodies is utterly unique, which is a lovely thought until it comes to treating an illness -- when every body reacts differently, often unpredictably, to standard treatment.
Luís Bastos's insight:
Tissue engineer Nina Tandon talks about a possible solution: Using pluripotent stem cells to make personalized models of organs on which to test new drugs and treatments, and storing them on computer chips. (Call it extremely personalized medicine.)
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Researcher moves closer to 'cell' controlMedical XpressUC College of Engineering and Applied Science chemical and materials engineering associate professor, Chia-Chi Ho, announces ability to sort and steer cells, opening doors to a potential future...
Luís Bastos's insight:
Ho is a chemical and materials engineering associate professor in the School of Energy, Environmental, Biological and Medical Engineering, working with nanotechnology to advance our understanding and control of cells.
Erin Grills's curator insight,
6 March 2013, 19:23
This seems to be a credible source to find pharmacuetical information. The advancements in cells can lead to the advancements in drug discovery. I would use this to display chain-reaction advancements in this field of work.
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A coming generation of devices promise clear, high-quality vision for the blind.
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Alexander Seifalian is professor of nanotechnology and regenerative medicine at University College London.
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The miniature implant provides immediate analysis of substances found in blood and transmits results to you and your doc. (RT @MythBusters: Dreading going to the doctor?
Luís Bastos's insight:
"Nanobioelectronics were used to increase the sensitivity of the sensor and develop low-noise electronics to give us the ability to have a reliable signal."
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Eqalix, Inc. (Eqalix), an emerging regenerative medicine development company, announced that it has received a $50,000 grant from NTI to advance their development of alimentary protein scaffolds (APS) for wound healing and aesthetic dermatology.
Luís Bastos's insight:
As a first goal, the NTI Grant will be used to advance research and development of a novel plant-protein basednano-fibrous scaffold for difficult to treat wounds as well as applications in aesthetic dermatology.
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Using Laser Technology, Aleksandr Ovsianikov from the Vienna University of Technology wants to create microstructures with embedded living cells. This project will be funded by an ERC Starting Grant.
Luís Bastos's insight:
The behavior of cells strongly depends on their environment. If they are to be researched and manipulated, it is crucial to embed them in suitable surroundings. Aleksandr Ovsianikov is developing a laser system, which allows living cells to be incorporated into intricate taylor-made structures, similar to biological tissue, in which cells are surrounded by the extracellular matrix. This technology is particularly important for artificially growing biotissue, for finding new drugs or for stem cell research.
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Author, editor; Tilda Barliya PhD Tissue Engineering is an emerging multidisciplinary field involving biology, medicine, and engineering that is likely to revolutionize the ways we improve the heal...
Luís Bastos's insight:
Nanotechnological tools for tissue engineering may help design advanced nanocomposite scaffolds that can better mimic the ECM and eventually assemble more complex and larger functional tissues.
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New Data from University of Coimbra Illuminate Research in Stem Cells Equities.com Keywords for this news article include: Brain, Europe, Coimbra, Portugal, Nanoparticle, Nanotechnology, Stem Cell Research, Emerging Technologies, Central Nervous...
Luís Bastos's insight:
Investigators discuss new findings in Stem Cell Research. According to news reporting originating from Coimbra, Portugal, by NewsRx correspondents, research stated, "Herein, we report the use of retinoic acid-loaded polymeric nanoparticles as a potent tool to induce the neuronal differentiation of subventricular zone neural stem cells. The intracellular delivery of retinoic acid by the nanoparticles activated nuclear retinoic acid receptors, decreased stemness, and increased proneurogenic gene expression."
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Xian Li, M.D., Ph.D., a renowned expert on therapies that coax the body's acceptance of donor organs, has joined the Methodist J.C. Walter Jr. Transplant Center as its new director of transplant immunology.
Luís Bastos's insight:
Xian Li, M.D., Ph.D., a renowned expert on therapies that coax the body's acceptance of donor organs, has joined the Methodist J.C. Walter Jr. Transplant Center as its new director of transplant immunology. Li is also scientific director of the Center for Immunobiology Research.
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Don’t panic, this isn’t a severed human ear – but one that’s been grown in a laboratory at Britain’s remarkable new human body parts store.
Luís Bastos's insight:
‘If we can grow a heart, a lung or a trachea in a lab, we don’t need to wait for donors. 'This work has massive implications for the way we function as clinicians and the way medicine is practised.’
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Engineers have developed a new technique, called bioskiving. The fabrication process creates collagen structures from thin sheets of decellularized tendon stacked with alternating fiber directions that maintain much of collagen's natural strength.
Luís Bastos's insight:
Tufts University School of Engineering researchers have developed a novel method for fabricating collagen structures that maintains the collagen's natural strength and fiber structure, making it useful for a number of biomedical applications.
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R & D MagazineIndividual cells respond to electrical signalR & D MagazineResearchers at the Department of Molecular Nanofabrication (part of the University of Twente's MESA+ Institute for Nanotechnology) have published their preliminary results in...
Luís Bastos's insight:
"(...) In the case of regeneration, for example, natural factors often play a decisive part. For instance, in the worst case, any infections that develop during treatment can lead to rejection. In such situations, the ability to control events at the cellular level is an important tool.”
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Breakthrough retinal implant fits entirely inside the eyeSmartPlanet.com (blog)A team at the University of California, San Diego, is using nanotechnology to directly mimic cells found in the eye.
Luís Bastos's insight:
In Israel, a company called Nano Retina has an implant that consists of 676 electrodes, all small enough to fit onto a single, tiny implant.
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Thanks to an experimental new therapy, a seven-year-old girl in the US with an aggressive form of childhood leukemia has been cured with her own re-engineered immune cells. After the treatment
Luís Bastos's insight:
Thanks to an experimental new therapy, a seven-year-old girl in the US with an aggressive form of childhood leukemia has been cured with her own re-engineered immune cells. After the treatment, her doctors could find no evidence of cancer.
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Borrowing from microfabrication techniques used in the semiconductor industry, MIT and Harvard Medical School (HMS) engineers have developed a simple and inexpensive way to create three-dimensional brain tissues in a lab dish.
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Peripheral nerve repair is a growing field with substantial progress being made in more effective repairs. Nanotechnology and biomedical engineering have made significant contributions; from surgical instrumentation to the development of tissue engineered grafting substitutes.
Nanotechnology and Tissue engineering pairing up to combat leading nerve damages and assisting to make recovery from said injuries all the more swift and effective.