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Active Research Projects | Sports Medicine Research

§ September 27th, 2015 § Filed under Nano Medicine Comments Off on Active Research Projects | Sports Medicine Research

Theoretical and correlation data indicate that abnormal patterns of frontal plane knee tracking and knee flexion angle are important factors in the development of overuse injuries in cycling. Currently, bicycle fitters typically rely on visual assessments to apply current theories. However, practitioners are limited by a lack of prospective data, an unknown applicability to the field setting and unvalidated methods that are subjective and experience dependent. The current gold standard for motion analysis, 3D video motion, is largely limited to use in resource rich laboratory settings, and the complex multivariate data can still be difficult to interpret. Here we propose a novel to cycling method of relative accelerometry, employing triaxial accelerometers and functional principal component analysis (fPCA), as a valid cost effective means capable of discriminating between common bicycle fit conditions. Procedure: Ten to 20 experienced competitive subjects age 13 and older, with a good bike fit, and free of biomechanic dysfunction, as determined by the survey and physical assessment, will undergo motion analysis while cycling on a stationary trainer in each one of six randomized fit conditions including current fit, standardized fit, high seat, low seat, varus cleat wedge and valgus cleat wedge. Trials will be recorded simultaneously by manual rating, 2D and 3D video, foot-bed pressure sensors, and triaxial accelerometers.

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Sports Medicine Research Summary – University of Miami

§ September 27th, 2015 § Filed under Nano Medicine Comments Off on Sports Medicine Research Summary – University of Miami

Sports Medicine Research Summary

(Updated as of 3/22/12)

The UHealth Sports Medicine Research Group has a variety of clinical research projects investigating the outcome of commonly performed procedures. We are able to have a wide variety of ongoing clinical studies because of our close collaboration with other departments within our university including physical therapy, radiology as well as working with other institutions as a participant in multicenter trials. Some examples of this include return to sports/activities after ACL reconstruction or rotator cuff repair or the effect of patient related factors on treatment outcomes. Critically examining the success of surgical procedures allows the physicians in sports medicine to analyze which procedures work well and which can use modification. It also allows for the surgeons to give their patients more substantial information in terms of expected recovery after these procedures.

In collaboration with our physical therapy department, the sports research team is investigating baseball pitchers and catchers throwing mechanics and how different changes in body position or stance affect throwing. This will allow our physicians to assist throwing athletes to achieve his or her maximal performance in the safest way possible. Another study with the physical therapy department is studying different ACL graft choices and how that affects muscle endurance and fatigue.

We are working on multiple studies with our board certified musculoskeletal radiologists as well. Current ongoing projects include the MRI findings of asymptomatic professional baseball pitchers as well as the usefullnesss of ultrasonography in the treatment of common sports related injuries. Several upcoming radiologic studies will focus on MRIs and articular cartilage injury.

In conjunction with the Hussman Institute & the department of Biomedical Engineering, the UHealth Sports Medicine team is studying what, if any, impact genetics has on the bodys response to cartilage and meniscal injury. This team collaboration has been the winner of recent competitive grants as well as upcoming national presentations and publications.

The UHealth Sports Medicine Group is very happy to announce its latest collaboration with The University of Miami Stem Cell Institute. This latest partnership has enabled us to begin several research projects investigating the potential use of human stem cells in the treatment of ligament and cartilage injuries. This cutting edge research is currently being performed in animal models with the goal to translate the results into practical application in our sports medicine patients.

Our basic science interests include projects on ACL graft strain after anatomic single and double bundle reconstruction. We also have numerous biomechanical studies being developed for common knee and shoulder injuries.

The Sports Medicine Research Team:

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Nanomedicine Awards 2015

§ September 25th, 2015 § Filed under Nano Medicine Comments Off on Nanomedicine Awards 2015

The 2nd edition of the Nanomedicine Award aims to reward projects that have developed innovative solutions based on nanomedicine that can ultimately change the way diseases are treated or diagnosed and that could provide new tools for physicians and large benefits to patients.

Open to companies, academic and private researchers from European and non-European countries, the Nanomedicine Award aims to honor the best international nanomedicine innovations. Proposals will be evaluated in two areas: Early clinical stage project Award and Best product / deal Award for application in diagnostic, therapeutic or regenerative medicine.

All applications will be reviewed and assessed by a panel of highly-qualified pharma industry specialists with experience in R&D and commercial roles. The reviewers are:

The European Technology Platform for Nanomedicine (ETPN) together with an EU funded consortium named ENATRANS are organizing the second edition of the Nanomedicine Award.

Further information can be found here and on the ETPN website

The Nanomedicine Award is supported by EBD Group and the award ceremony will take place during BIO-Europe 2015. The 21th annual BIO-Europe event will be the largest biotechnology partnering conference held in Europe. Over 3,200 international decision makers from biotech, pharma and finance along with the most promising start-ups and emerging companies, representing upwards of 1,800 companies, annually attend BIO-Europe to identify new business opportunities and develop strategic relationships. BIO-Europe features the industrys most advanced web-based partnering system enabling delegates from all parts of the biotechnology value chain to quickly identify, engage and enter into strategic relationships that drive their business successfully forward. BIO-Europe will take place November 2-4, 2015 in Munich, Germany.

To learn more visit the BIO-Europe website

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nanoDDS 2015 | September 16 18, 2015

§ September 25th, 2015 § Filed under Nano Medicine Comments Off on nanoDDS 2015 | September 16 18, 2015

Thank you for making nanoDDS 2015 a success. Conference photos are available in the galleries below. If youd like any full-resolution versions of images in these galleries for high-quality printing, pleaseemail Erik Liu.

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The 13th International Nanomedicine & Drug Delivery Symposium (nanoDDS 2015) was chaired by University of Washington Professors Patrick Stayton and Suzie Pun and will be held at the University of Washington on September 16-18, 2015.

The symposium followed nanoDDS 2014 Carolina, which was co-chaired by Kam Leong (James B. Duke Professor of Biomedical Engineering at Duke University) and Alexander V. Kabanov (Director, Center for Nanotechnology in Drug Delivery; Mescal S. Ferguson Distinguished Professor; Codirector, Carolina Institute for Nanomedicine at the University of North Carolina at Chapel Hill).

nanoDDS is the key annual event for researchers developing next-generation delivery vehicles targeted, responsive, biodegradable nanomaterials to make diagnostics more sensitive and drugs more effective. Since 2003 nanoDDS has been held annually in different locations across North America. Over years it has attracted more than 2,000 participants from 30 different countries and became one of the most authoritative forums in its field. Each year the meeting comes to a different University campus, thereby promoting knowledge and becoming a major world-class scientific event for its students and scholars.

See this years speakers

Download the nanoDDS 2015 Program Schedule

Learn more about previous and future symposiaat nanodds.org

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Nanomedicine: The Future of Medicine: Megatrends in …

§ September 20th, 2015 § Filed under Nano Medicine Comments Off on Nanomedicine: The Future of Medicine: Megatrends in …

A nanometer is one billionth of a meter. New science and technology based on the nanometer refers to the ability to manipulate individual atoms and molecules to build machines on a scale of nanometers or to create materials and structures from the bottom up with novel properties.

Nanotechnology, according to the National Science Foundation, could change the way almost everything is designed and made, from automobile tires to vaccines to objects not yet imagined. The concept is to prepare “smart objects” that can invade small spaces and target specific parts of the body. Some researchers expect nanoscience to have a profound impact on the way medicine is practiced.

The National Institutes of Health has established a “roadmap” to guide its research directions over the coming years and the roadmap includes specific reference to nanomedicine. “What if doctors could search out and destroy the very first cancer cells that would otherwise have caused a tumor to develop in the body? What if a broken part of a cell could be removed and replaced with a miniature biological machine? What if pumps the size of molecules could be implanted to deliver life-saving medicines precisely when and where they are needed?” These scenarios may sound unbelievable but they are the long-term goals of the NIH Roadmap to Nanomedicine Initiative that we anticipate will yield medical benefits as early as five to seven years from now.

Nanomedicine and biotechnology can be integrated and some see this as perhaps the most exciting scientific and economic development opportunity since the creation of the information technology revolution in the Silicon Valley several decades ago. They see the potential for major improvements in health care, the creation of revolutionary new “smart” materials and the development of a new generation of environmental sensors as real possibilities. They see that this can rapidly improve the ability to sequence the human genome, develop new techniques for characterizing the internal structure of cells, and allow scientists to duplicate the properties of the molecular machines found in living systems.

So let’s consider nanodevices which have been defined by the government as meaning 1)smaller than 100nm (nanometers) – or much smaller than can even be seen with a microscope- with 2)a new function and 3)an ability to be controlled externally. The concept is that smaller is better and that recent advances in medicine and nanotechnology can converge. So scientists are making nanoparticles that can be controlled and that function in new ways and that can get to a cell or get inside the correct cell and deliver a payload such as a drug.

In the field of diabetes the great hope has long been to find a form of insulin that can be taken by mouth. Today, the enzymes in our stomachs and intestines break down the insulin before it can be absorbed into our blood stream. But scientists are trying to fabricate a porous silicone particle that can travel across the intestinal cell wall and deliver insulin instantly to the blood. If this could be done it would be like finding the Holy Grail of diabetes – oral insulin. The studies so far have demonstrated an increase in insulin transport across the cell wall by a factor of 10. This is not enough but it does show a proof of principle, which encourages those working in this field.

Here is another example. A “nanotube” can be formed from silicone dioxide or other similar materials. Actually they form naturally in the right setting but then can be designed to carry certain attachments such as drugs, antibodies or diagnostic devices or indeed all three of these. A nanotube can be made from a naturally magnetic material such as magnetite; can have drugs placed inside the tubule and can have a targeting molecule such as a monoclonal antibody placed on the surface of the tubule. Now the nanotubules are injected into the blood stream via a vein and travel through the body until that monoclonal antibody finds the site that it has been directed to such as a cancerous cell. The tubule now binds tightly to the cancer cell and because it is magnetic it can be detected with an MRI. Now we know where the cancer cell is and that our nanotube is attached to it, and the drug in the tube is now in high concentration right at the site of the cancer cell and nowhere else in the body. This is an example of how medicine can become personalized to the individual patient. In the United States about 1.4 million cases of cancer are diagnosed per year, and about 600,000 people die from it. More than 200 types of cancer exist, each with multiple subtypes or variants. With nanoparticles it should be possible to get right to that cancer – improving the diagnosis, imaging and treatment — all done with one particle that can target just that cancer cell but not the normal cell, image the cancer cell and deliver the drug.

Here are some other approaches to cancer diagnostics. Another type of nanoparticle is a silicone based “nanowire” device. It is designed to recognize electrically minute levels of marker proteins that are over produced in cancer cells and which then circulate in the bloodstream. I mentioned magnetic emitting nanoparticles earlier. Some new techniques have created the ability to detect breast cancer cells in mice when the tumor is just half a millimeter in size – smaller than this letter o.

In the field of therapeutics any number of drugs or monoclonal antibodies can be attached nanoparticles and be potentially effective. Again the concept is to get the drug in high concentrations to exactly where it is needed yet not cause side effects with other cells in the body. This type of approach will mean producing “drugs” for each type of cancer. This is quite different than today’s drug development approach of, more or less, one size fits all. As mentioned elsewhere and I will repeat here, the concept of personalized medicine means that drugs will be designed for increasingly specific indications. No one drug will be sold in large quantities. The large pharmaceutical companies are always looking for a “blockbuster” drug – a drug that they can sell more than a billion dollars worth of per year. Given this inclination, I wonder whether the big pharmaceutical companies will show an interest in this personalized medicine approach of individualized medications. If not, then smaller, entrepreneurial companies will pick up the slack.

For sure, nanomedicine’s time is coming and it will have a major impact.

Last Modified: June 11, 2010

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Nanomedicine Research Center – Cedars-Sinai

§ September 20th, 2015 § Filed under Nano Medicine Comments Off on Nanomedicine Research Center – Cedars-Sinai

Director: Julia Y. Ljubimova, MD, PhD

Faculty members: Eggehard Holler, PhD; Hui Ding, PhD; J. Manuel Perez, PhD; Rameshwar Patil, PhD; Jos Portilla-Arias, PhD; Pallavi Gangalum, PhD; Szu-Ting Chou, PhD; Anna Galstyan, MD, PhD; and Helena Kozlova, MBA.

For more information on research conducted at the Nanomedicine Research Center, visit the Ljubimova Laboratory.

The Nanomedicine Research Center at the Cedars-Sinai Department of Neurosurgery was established in August 2011. Julia Ljubimova, MD, PhD, leads the nanomedicine research team that includes synthetic chemists, pharmacologists, molecular biologists, radiologists and clinical oncologists.

The main goal of the nanomedicine research team is to engineer and synthesize effective nanomedicines for imaging and treatment of primary and metastatic cancers, including brain gliomas and primary and metastatic (secondary) HER2-positive and triple negative breast and lung cancers, which are incurable with current therapy. These nanodrugs can be intravenously delivered across the blood-brain barrier (BBB) and have been shown to be effective in treating gliomas, as well as breast cancer and brain metastasis from primary lung and breast tumors in mice.

The Nanomedicine Research Center has been awarded $11.5 million by NIH/NCI grants for developing and establishing a novel class of anti-cancer imaging and treatment agents, the latest evolution of molecular drugs designed to slow or stop cancers by blocking them in multiple ways. The ultimate goal is to bring these novel classes of imaging and treatment nanomedicines to the clinical practice.

Compared with conventional chemotherapy, the novel nanodrugs developed at the Cedars-Sinai Nanomedicine Research Center are more effective for treating experimental primary and secondary tumors by increasing the concentration of the anti-cancer drug directly at the tumor site while decreasing general toxicity and immunogenicity. By using the alternative nanodrug delivery mechanisms, scientists can aid in fighting the multidrug resistance that is the hallmark of cancer cells.

The new generation of nanomedicine imaging agents and drugs aim to

The nanodrugs are biodegradable and nontoxic for patients and are able to deliver multiple anti-tumor inhibitors simultaneously directly to cancer cells. In addition, nanodrugs prevent and/or overcome drug resistance and improve the efficacy of treatment, leading to improved quality of cancer patients’ lives. Engineered drugs can be adapted for each cancer patient, with adjustments for individual tumor genome/proteome profiles for treatment of primary tumors and for patients’ tumor progression.

Environmental nano pollution and its influence leading to the development of brain tumors and neurodegenerative disorders are under intensive investigation at the Nanomedicine Research Center.

The Nanomedicine Research Center is a part of the NIH/NCI Alliance for Nanotechnology in Cancer 20102015, which engages the nation’s leading nanomedicine centers in a collaborative effort aimed at accelerating use of nanotechnology to advance cancer diagnosis, treatment and prevention.

Nanomedicine Research Center is multidisciplinary, combining collaborations across a number of departments at Cedars-Sinai, including:

Through these collaborations, we are able to design drugs in the laboratory and test them on animal models.

Patil R, Ljubimov AV, Gangalum PR, Ding H, Portilla-Arias J, Wagner S, Inoue S, Konda B, Rekechenetskiy A, Chesnokova A, Markman JL, Ljubimov VA, Li D, Prasad RS, Black KL, Holler E, Ljubimova JY. MRI virtual biopsy and treatment of brain metastatic tumors with targeted nanobioconjugates. ACS Nano. 2015. [In press.]

Patil R, Gangalum PR, Wagner S, Portilla-Arias J, Ding H, Rekechenetskiy A, Konda B, Inoue S, Black KL, Ljubimova JY, Holler E. Curcumin targeted, polymalic acid-based MRI contrast agent for the detection of A plaques in Alzheimer’s disease. Macromol Biosci. 2015 Jun 2. http://onlinelibrary.wiley.com/doi/10.1002/mabi.201500062/abstract. [Epub ahead of print]

Hsu BB, Hagerman SR, Jamieson K, Castleberry SA, Wang W, Holler E, Ljubimova JY, Hammond PT. Multifunctional self-assembled films for rapid hemostat and sustained anti-infective delivery. ACS Biomater Sci Eng. 2015;1(3):148-156. http://pubs.acs.org/doi/abs/10.1021/ab500050m.

Hsu BB, Jamieson KS, Hagerman SR, Holler E, Ljubimova JY, Hammond PT. Ordered and kinetically discrete sequential protein release from biodegradable thin films. Angew Chem Int Ed Engl. 2014 Jul 28;53(31):8093-8098. http://onlinelibrary.wiley.com/doi/10.1002/anie.201403702/abstract;jsessionid=DF6B56E755 BAD775EDBBC9E7C7F5A7BB.f04t01.

Hsu BB, Hagerman SR, Jamieson K, Veselinovic J, O’Neill N, Holler E, Ljubimova JY, Hammond PT. Multilayer films assembled from naturally-derived materials for controlled protein release. Biomacromolecules. 2014 Jun 9;15(6):2049-2057. http://pubs.acs.org/doi/abs/10.1021/bm5001839.

Brennan CW, Verhaak RG, McKenna A, Campos B, Noushmehr H, Salama SR, Zheng S, Black KL, Chakravarty D, Sanborn JZ, Berman SH, Ljubimova JY, et al; TCGA Research Network. The somatic genomic landscape of glioblastoma. Cell. 2013 Oct 10;155(2):462-477. http://www.cell.com/cell/abstract/S0092-8674(13)01208-7.

Ljubimova JY, Ding H, Portilla-Arias J, Patil R, Gangalum PR, Chesnokova A, Inoue S, Rekechenetskiy A, Nassoura T, Black KL, Holler E. Polymalic acid-based nano biopolymers for targeting of multiple tumor markers: an opportunity for personalized medicine? J Vis Exp. 2014 Jun 13;(88). http://www.jove.com/video/50668/polymalic-acid-based-nano-biopolymers-for-targeting-multiple-tumor.

Ljubimova JY, Portilla-Arias J, Patil R, Ding H, Inoue S, Markman JL, Rekechenetskiy A, Konda B, Gangalum PR, Chesnokova A, Ljubimov AV, Black KL, Holler E. Toxicity and efficacy evaluation of multiple targeted polymalic acid conjugates for triple-negative breast cancer treatment. J Drug Target. 2013 Dec;21(10):956-967. http://informahealthcare.com/doi/abs/10.3109/1061186X.2013.837470.

Ljubimova JY, Kleinman MT, Karabalin NM, Inoue S, Konda B, Gangalum P, Markman JL, Ljubimov AV, Black KL. Gene expression changes in rat brain after short and long exposures to particulate matter in Los Angeles basin air: comparison with human brain tumors. Exp Toxicol Pathol. 2013 Nov;65(7-8):1063-1071. http://www.sciencedirect.com/science/article/pii/S0940299313000547.

Ding H, Helguera G, Rodrguez JA, Markman J, Luria-Prez R, Gangalum P, Portilla-Arias J, Inoue S, Daniels-Wells TR, Black K, Holler E, Penichet ML, Ljubimova JY. Polymalic acid nanobioconjugate for simultaneous immunostimulation and inhibition of tumor growth in HER2/neu-positive breast cancer. J Control Release. 2013 Nov 10;171(3):322-329. http://www.sciencedirect.com/science/article/pii/S0168365913003350.

Markman JL, Rekechenetskiy A, Holler E, Ljubimova JY. Nanomedicine therapeutic approaches to overcome cancer drug resistance. Adv Drug Deliv Rev. 2013 Nov;65(13-14):1866-1879. http://www.sciencedirect.com/science/article/pii/S0169409X13002329.

Ljubimova JY, Holler E. Biocompatible nanopolymers: the next generation of breast cancer treatment? Nanomedicine (Lond.) 2012 Oct;7(10):1467-1470. http://www.futuremedicine.com/doi/abs/10.2217/nnm.12.115.

Patil R, Portilla-Arias J, Ding H, Konda B, Rekechenetskiy A, Inoue S, Black KL, Holler E, Ljubimova JY. Cellular delivery of doxorubicin via pH-controlled hydrazone linkage using multifunctional nano vehicle based on poly(-L-malic acid). Int J Mol Sci. 2012;13(9):11681-11693. http://www.mdpi.com/1422-0067/13/9/11681.

Inoue S, Patil R, Portilla-Arias J, Ding H, Konda B, Espinoza A, Mongayt D, Markman JL, Elramsisy A, Phillips HW, Black KL, Holler E, Ljubimova JY. Nanobiopolymer for direct targeting and inhibition of EGFR expression in triple negative breast cancer. PLOS One. 2012;7(2):e31070. http://www.plosone.org/article/info%3Adoi%2F10.1371%2Fjournal.pone.0031070.

Inoue S, Ding H, Portilla-Arias J, Hu J, Konda B, Fujita M, Espinoza A, Suhane S, Riley M, Gates M, Patil R, Penichet ML, Ljubimov AV, Black KL, Holler E, Ljubimova JY. Polymalic acid-based nanobiopolymer provides efficient systemic breast cancer treatment by inhibiting both HER2/neu receptor synthesis and activity. Cancer Res. 2011 Feb 15;71(4):1454-1464. http://cancerres.aacrjournals.org/content/71/4/1454.

Patil R, Portilla-Arias J, Ding H, Inoue S, Konda B, Hu J, Wawrowsky KA, Shin PK, Black KL, Holler E, Ljubimova JY. Temozolomide delivery to tumor cells by a multifunctional nano vehicle based on poly(-L-malic acid). Pharm Res. 2010; 27(11):2317-2329. http://link.springer.com/article/10.1007%2Fs11095-010-0091-0.

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Learn About Nanotechnology in Cancer

§ September 19th, 2015 § Filed under Nano Medicine Comments Off on Learn About Nanotechnology in Cancer

Nanotechnologythe science and engineering of controlling matter, at the molecular scale, to create devices with novel chemical, physical and/or biological propertieshas the potential to radically change how we diagnose and treat cancer. Although scientists and engineers have only recently (ca. 1980’s) developed the ability to industrialize technologies at this scale, there has been good progress in translating nano-based cancer therapies and diagnostics into the clinic and many more are in development.

Nanoscale objectstypically, although not exclusively, with dimensions smaller than 100 nanometerscan be useful by themselves or as part of larger devices containing multiple nanoscale objects. Nanotechnology is being applied to almost every field imaginable including biosciences, electronics, magnetics, optics, information technology, and materials development, all of which have an impact on biomedicine. Explore the world of nanotechnology

Nanotechnology can provide rapid and sensitive detection of cancer-related targets, enabling scientists to detect molecular changes even when they occur only in a small percentage of cells. Nanotechnology also has the potential to generate unique and highly effective theraputic agents. Learn about nanotechnology in cancer research

The use of nanotechnology for diagnosis and treatment of cancer is largely still in the development phase. However, there are already several nanocarrier-based drugs on the market and many more nano-based therapeutics in clinical trials. Read about current developments

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Nanomedicine

§ September 15th, 2015 § Filed under Nano Medicine Comments Off on Nanomedicine

OMICS Internationalis a renowned organization that organizes highly notable conferences throughout the globe. OMICS International is currently bringing forth “International Conference and Exhibition on Nanomedicine and Nanotechnology in Health Care (Nanomedicine 2016) slated on July 25-27, 2016 at Bangkok, Thailand.

OMICS International invites all the participants across the globe to attend the “International Conference and Exhibition on Nanomedicine and Nanotechnology in Health Care slated on July 25-27, 2016 at Bangkok, Thailand. Nanomedicine 2016 conveys recent developments in Nanotechnology and Nanomedicine. A complete knowledge of a scientific discipline that described the overt effects of Nanotechnology, Nanomedicine now explores the use the nanotechnology in Healthcare. One of the biggest technological forces behind our rapidly changing world is our ability to manipulate objects on a smaller and smaller scale.

With nanotechnology, were taking progress to the next level. We can now manipulate objects (and build them) at the molecular, and even atomic, levels. Its life-changing work.

For example, chemotherapy can now be applied directly to cancerous tumors, delivering treatment to the affected area only, rather than having toxic chemicals wash through the body, destroying the immune system, as well as the cancer.

Diseases such as diabetes, cancer, multiple sclerosis and Alzheimers pose a tremendous challenge to modern medicine.

Nanomedicine,the application of nanotechnology to human healthcare, offers abundant potential pathways to improving medical diagnosis, therapy and even to regenerate tissues and organs. It can provide tailored yet more affordable healthcare while at the same time offering an improved quality of life for everyone.

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Journal of International Journal of Nanomedicine – Dove Press

§ September 12th, 2015 § Filed under Nano Medicine Comments Off on Journal of International Journal of Nanomedicine – Dove Press

About Journal Editors Publishing Fees Articles Articles Aims and Scope Call For Papers Interview: Dr Webster

An international, peer-reviewed journal focusing on the application of nanotechnology in diagnostics, therapeutics, and drug delivery systems throughout the biomedical field. Reflecting the growing activity in this emerging specialty, the aim of this journal is to highlight research and development leading to potential clinical applications in the prevention and treatment of disease.

Endorsed by the American Society for Nanomedicine

Journal Impact Factor:4.383 (5 year impact 4.742)

This journal is a member of and subscribes to the principles of the Committee on Publication Ethics (COPE).

Indexed in:

We are pleased to announce the following 2015 IJN award winners:

International Journal of Nanomedicine Distinguished Career Award: Dr Rebecca Carrier, Associate Professor in Chemical Engineering, Northeastern University, Boston, MA, USA.

International Journal of Nanomedicine Young Scholar Award Cate Lockhart Graduate student at the University of Washington, Seattle, WA, USA

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Journal of Nanomedicine & Nanotechnology

§ September 12th, 2015 § Filed under Nano Medicine Comments Off on Journal of Nanomedicine & Nanotechnology

Impact Factor: 4.68* Index Copernicus Value: 4.22 NLM ID: 101562615

This top best scholarly journal is using Editorial Manager System for online manuscript submission, review and tracking. Editorial board members of the JNMNT or outside experts review manuscripts; at least two independent reviewers approval followed by the editor is required for the acceptance of any citable manuscript.

Nanobiotechnology is the application of nanotechnology to the life sciences: The technology encompasses precision engineering as well as electronics, and electromechanical systems as well as mainstream biomedical applications in areas as diverse as gene therapy, drug delivery and novel drug discovery techniques.

Related Journals of Nanobiotechnology Nanomaterials & Molecular Nanotechnology, Nature Nanotechnology, Nano Letters, Advanced Materials, Nano Today

Nanotechnology is the engineering of functional systems at the molecular scale. It is the study and application of extremely small things and can be used across all the other science fields, such as chemistry, biology, physics, materials science, and engineering.

Related Journals of Nanotechnology Journal of Nanomedicine & Biotherapeutic Discovery, IEEE Transactions on Nanobioscience, Journal of Biomedical Nanotechnology, Photonics and Nanostructures – Fundamentals and Applications, Physica E: Low-Dimensional Systems and Nanostructures

A Nanocomposite is a multiphase solid material where one of the phases has one, two or three dimensions of less than 100nm, or structure having nano-scale repeat distance between the different phases that make up the material.

Related Journals of Nanocomposites Journal of Nanomedicine & Biotherapeutic Discovery, Scripta Materialia, Nanoscale, Lab on a Chip – Miniaturisation for Chemistry and Biology, Materials Science & Engineering A: Structural Materials: Properties, Microstructure and Processing

The Integrated Project Nanobiopharmaceutics aims at the development of innovative multidisciplinary approaches for the design, synthesis and evaluation of functionalised nano-carriers and nano-particle-based micro-carriers for the treatment of various diseases based on targeted, controlled delivery of therapeutic peptides and proteins (biopharmaceutics).

Related Journals of Nanobiopharmaceutics Journal of Nanomedicine & Biotherapeutic Discovery, Journal of Obsessive-Compulsive and Related Disorders, Journal of Homotopy and Related Structures, Journal of Venomous Animals and Toxins including Tropical Diseases

Nanoelectronics is one of the major technologies of Nanotechnology. It plays vital role in the field of engineering and electronics.

Related Journals of Nanoelectronics Nano Research & Applications, ACS Applied Materials and Interfaces, Biosensors and Bioelectronics, Journal of Physical Chemistry C, Nanomedicine: Nanotechnology, Biology, and Medicine

Nanomedicine is the medical application of nanotechnology. Nanomedicine ranges from the medical applications of nanomaterials, to nanoelectronic biosensors, and even possible future applications of molecular nanotechnology.

Related Journals of Nanomedicine Nanomaterials & Molecular Nanotechnology, International Journal of Nanomedicine, Nanomedicine: Nanotechnology, Biology and Medicine, Journal of Nanomedicine Research, European Journal of Nanomedicine

Nanotoxicology is a branch of toxicology concerned with the study of the toxicity of nanomaterials, which can be divided into those derived from combustion processes (like diesel soot), manufacturing processes (such as spray drying or grinding) and naturally occurring processes (such as volcanic eruptions or atmospheric reactions).

Related Journals of Nanotoxicology Nanomedicine & Nanotechnology, Microscale Thermophysical Engineering, Microelectronic Engineering, Nano Biomedicine and Engineering, Nano-Micro Letters

Nanoengineering is the practice of engineering on the nanoscale. It derives its name from the nanometre, a unit of measurement equalling one billionth of a meter. Nanoengineering is largely a synonym for nanotechnology, but emphasizes the engineering rather than the pure science aspects of the field.

Related Journals of Nanoengineering Research & Reviews: Journal of Pharmaceutics and Nanotechnology, Wiley Interdisciplinary Reviews: Nanomedicine and Nanobiotechnology, Nanotoxicology, Precision Engineering, Nanomedicine, Nanotechnology

The spontaneous association of molecules under equilibrium conditions into stable, structurally well-defined aggregates.

Related Journals of Nanofabrications Nanomaterials & Molecular Nanotechnology, Microporous and Mesoporous Materials, International Journal of Nanomedicine, Beilstein Journal of Nanotechnology

Nanofluidics is often defined as the study and application of fluid flow in and around nanosized objects.

Related Journals of Nanofluidics Journal of Bionanoscience, Nanotechnology, Science and Applications, Journal of Nanobiotechnology, Plasmonics, Biomedical Microdevices

Nanohedron aims to exhibit scientific images, with a focus on images depicting nanoscale objects. The work ranges from electron microscopy images of nanoscale materials to graphical renderings of molecules. Scientific images lying outside the realm of nanoscience such as algorithmic art or confocal microscopy images of cells will also be considered.

Related Journals of Nanohedron Biomicrofluidics, IEEE Transactions on Nanotechnology, Microfluidics and Nanofluidics, Journal of Micromechanics and Microengineering

Nano Cars Into the robotics is new technology which is useful for designing robots. Difference in exisiting robotics and nano cars is this system works as nervous system where as in existing system stepper motors are used.

Related Journals of Nanocars Nanomedicine & Biotherapeutic Discovery, ACS Nano, Advanced Functional Materials, Journal of Physical Chemistry Letters, Biomaterials, Small, Nano Research

Nanothermite, as the name suggests, is thermite in which the particles are so small that they are measured in nanometers is an ultra-fine-grained (UFG) variant of thermite that can be formulated to be explosive by adding gas-releasing substances.

Related Journals of Nanothermite Nanoscale Research Letters, Microelectronics and Reliability, Journal of Nanoparticle Research, AIP Advances

A sequence of nanoscale C60 atoms arranged in a long thin cylindrical structure. Nanotubes are extremely strong mechanically and very pure conductors of electric current. Applications of the nanotube in nanotechnology include resistors, capacitors, inductors, diodes and transistors.

Related Journals of Nanotubes ACM Journal on Emerging Technologies in Computing Systems, Science of Advanced Materials, Journal of Nanophotonics

Having an organization more complex than that of a molecule.

Realated Journals of Supramolecule Plasmonics, Biomedical Microdevices, Biomicrofluidics, IEEE Transactions on Nanotechnology

Nanoionics is the study and application of phenomena, properties, effects and mechanisms of processes connected with fast ion transport (FIT) in all-solid-state nanoscale systems.

Related Journals of Nanoionics Nanomedicine, Nanotechnology, Microporous and Mesoporous Materials, International Journal of Nanomedicine

Nanolithography is the branch of nanotechnology concerned with the study and application of fabricating nanometer-scale structures, meaning patterns with at least one lateral dimension between 1 and 100 nm.

Related Journals of Nanolithography Nano Research, Scripta Materialia, Nanoscale, Lab on a Chip – Miniaturisation for Chemistry and Biology

Nanoparticles are particles between 1 and 100 nanometers in size. In nanotechnology, a particle is defined as a small object that behaves as a whole unit with respect to its transport and properties. Particles are further classified according to diameter.

Related Journals of Nanoparticles Journal of Nanoparticle Research, Journal of Nanoparticles, International Journal of Nanoparticles,

Exploitation of biomaterials, devices or methodologies on the nanoscale.

Related Journals of Bionanoscience Journal of Bionanoscience, BioNanoScience, Nanomedicine, Nanotechnology, Microporous and Mesoporous Materials

OMICS International organises 1000+ Conferences across USA, Europe & Asia with support from 1000 more scientific societies and Publishes 700 open access journals which contains over 50000 eminent personalities, 10 million readers, reputed scientists as editorial board members.

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Journal of Nanomedicine & Nanotechnology

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Nanomedicine: Nanotechnology, Biology and Medicine – ISSN …

§ September 12th, 2015 § Filed under Nano Medicine Comments Off on Nanomedicine: Nanotechnology, Biology and Medicine – ISSN …

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The mission of Nanomedicine: Nanotechnology, Biology, and Medicine (Nanomedicine: NBM) is to promote the emerging interdisciplinary field of nanomedicine.

Nanomedicine: NBM is an international, peer-reviewed journal presenting novel, significant, and interdisciplinary theoretical and experimental results related to nanoscience and nanotechnology in the life sciences. Content includes basic, translational, and clinical research addressing diagnosis, treatment, monitoring, prediction, and prevention of diseases. In addition to bimonthly issues, the journal website (click here) also presents important nanomedicine-related information, such as future meetings, meeting summaries, funding opportunities, societal subjects, public health, and ethical issues of nanomedicine.

The potential scope of nanomedicine is broad, and we expect it to eventually involve all aspects of medicine. Sub-categories include synthesis, bioavailability, and biodistribution of nanomedicines; delivery, pharmacodynamics, and pharmacokinetics of nanomedicines; imaging; diagnostics; improved therapeutics; innovative biomaterials; interactions of nanomaterials with cells, tissues, and living organisms; regenerative medicine; public health; toxicology; point of care monitoring; nutrition; nanomedical devices; prosthetics; biomimetics; and bioinformatics.

Article formats include Communications, Original Articles, Reviews, Perspectives, Technical and Commercialization Notes, and Letters to the Editor. We invite authors to submit original manuscripts in these categories. The journal website (click here) also presents important nanomedicine-related information, such as future meetings, meeting summaries, funding opportunities, societal subjects, public health, and ethical issues of nanomedicine.

* 2011 Journal Citation Reports, published by Thomson Reuters

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Nanomedicine – MIT Technology Review

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James Baker designs nanoparticles to guide drugs directly into cancer cells, which could lead to far safer treatments.

This article is the second in a series of 10 stories we’re running over two weeks, covering today’s most significant (and just plain cool) emerging technologies. It’s part of our annual “10 Emerging Technologies” report, which appears in the March/April print issue of Technology Review.

The treatment begins with an injection of an unremarkable-looking clear fluid. Invisible inside, however, are particles precisely engineered to slip past barriers such as blood vessel walls, latch onto cancer cells, and trick the cells into engulfing them as if they were food. These Trojan particles flag the cells with a fluorescent dye and simultaneously destroy them with a drug.

Developed by University of Michigan physician and researcher James Baker, these multipurpose nanoparticles — which should be ready for patient trials later this year — are at the leading edge of a nanotechnology-based medical revolution. Such methodically designed nanoparticles have the potential to transfigure the diagnosis and treatment of not only cancer but virtually any disease. Already, researchers are working on inexpensive tests that could distinguish a case of the sniffles from the early symptoms of a bioterror attack, as well as treatments for disorders ranging from rheumatoid arthritis to cystic fibrosis. The molecular finesse of nanotechnology, Baker says, makes it possible to “find things like tumor cells or inflammatory cells and get into them and change them directly.”

[To view an illustration of nanoparticles delivering a drug, click here.]

Cancer therapies may be the first nanomedicines to take off. Treatments that deliver drugs to the neighborhood of cancer cells in nanoscale capsules have recently become available for breast and ovarian cancers and for Kaposi’s sarcoma. The next generation of treatments, not yet approved, improves the drugs by delivering them inside individual cancer cells. This generation also boasts multifunction particles such as Baker’s; in experiments reported last June, Baker’s particles slowed and even killed human tumors grown in mice far more efficiently than conventional chemotherapy.

“The field is dramatically expanding,” says Piotr Grodzinski, program director of the National Cancer Institute’s Alliance for Nanotechnology in Cancer. “It’s not an evolutionary technology; it’s a disruptive technology that can address the problems which former approaches couldn’t.”

The heart of Baker’s approach is a highly branched molecule called a dendrimer. Each dendrimer has more than a hundred molecular “hooks” on its surface. To five or six of these, Baker connects folic-acid molecules. Because folic acid is a vitamin, most cells in the body have proteins on their surfaces that bind to it. But many cancer cells have significantly more of these receptors than normal cells. Baker links an anticancer drug to other branches of the dendrimer; when cancer cells ingest the folic acid, they consume the deadly drugs as well.

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Visionaries 2020: The Future of Nanomedicine By Robert A …

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Visionaries 2020

2009 Robert A. Freitas Jr. All Rights Reserved.

For countless centuries, physicians and their antecedents have sought to aid the human body in its efforts to heal and repair itself. Slowly at first, and later with gathering speed, new methods and instruments have been added to the physicians toolkit anesthesia and x-ray imaging, antibiotics for jamming the molecular machinery of unwanted bacteria, microsurgical techniques for physically removing pathological tissue and reconfiguring healthy tissue, and most recently biotechnology, molecular medicine, pharmacogenetics and whole-genome sequencing, and early efforts at gene therapies.

In most cases, however, physicians must chiefly rely on the bodys ability to repair itself. If this fails, external efforts may be useless. We cannot today place the component parts of human cells exactly where they should be, and restructure them as they should be, to ensure a healthy physiological state. There are no tools for working, precisely and with three-dimensional control, at the molecular level.

To obtain such tools, we need nanotechnology ( nanomedicine.com/NMI/1.1.htm ). Nanotechnology is the engineering of atomically precise structures and, ultimately, molecular machines. The prefix nano- refers to the scale of these constructions. A nanometer is one-billionth of a meter, the width of about five carbon atoms nestled side by side. Nanomedicine is the application of nanotechnology to medicine.

The ultimate tool of nanomedicine is the medical nanorobot (nanomedicine.com/index.htm#NanorobotAnalyses ) a robot the size of a bacterium, composed of many thousands of molecule-size mechanical parts perhaps resembling macroscale gears, bearings, and ratchets, possibly composed of a strong diamond-like material. A nanorobot will need motors to make things move, and manipulator arms or mechanical legs for dexterity and mobility. It will have a power supply for energy, sensors to guide its actions, and an onboard computer to control its behavior. But unlike a regular robot, a nanorobot will be very small. A nanorobot that would travel through the bloodstream must be smaller than the red cells in our blood tiny enough to squeeze through even the narrowest capillaries in the human body. Medical nanorobotics holds the greatest promise for curing disease and extending the human health span. With diligent effort, the first fruits of this advanced nanomedicine could begin to appear in clinical treatment sometime during the 2020s.

For example, one medical nanorobot called a microbivore ( jetpress.org/volume14/freitas.pdf ) could act as an artificial mechanical white cell, seeking out and digesting unwanted pathogens including bacteria, viruses, or fungi in the bloodstream. A patient with a bloodborne infection might be injected with a dose of about 100 billion microbivores (about 1 cc). When a targeted bacterium bumps into a microbivore, the microbe sticks to the nanorobots surface like a fly caught on flypaper. Telescoping grapples emerge from the microbivores hull and transport the pathogen toward the front of the device, bucket-brigade style, and into the microbivores mouth. Once inside, the microbe is minced and digested into amino acids, mononucleotides, simple fatty acids and sugars in just minutes. These basic molecules are then harmlessly discharged back into the bloodstream through an exhaust port at the rear of the device. A complete treatment might take a few hours, far faster than the days or weeks often needed for antibiotics to work, and no microbe can evolve multidrug resistance to these machines as they can to antibiotics. When the nanorobotic treatment is finished, the doctor broadcasts an ultrasound signal and the nanorobots exit the body through the kidneys, to be excreted with the urine in due course. Related nanorobots could be programmed to quickly recognize and digest even the tiniest aggregates of early cancer cells.

Medical nanorobots could also be used to perform surgery on individual cells. In one proposed procedure, a cell repair nanorobot called a chromallocyte ( jetpress.org/v16/freitas.pdf ), controlled by a physician, would extract all existing chromosomes from a diseased cell and insert fresh new ones in their place. This process is called chromosome replacement therapy. The replacement chromosomes are manufactured outside of the patients body using a desktop nanofactory optimized for organic molecules. The patients own individual genome serves as the blueprint to fabricate the new genetic material. Each chromallocyte is loaded with a single copy of a digitally corrected chromosome set. After injection, each device travels to its target tissue cell, enters the nucleus, replaces old worn-out genes with new chromosome copies, then exits the cell and is removed from the body. If the patient chooses, inherited defective genes could be replaced with non-defective base-pair sequences, permanently curing any genetic disease and even permitting cancerous cells to be reprogrammed to a healthy state. Perhaps most importantly, chromosome replacement therapy could correct the accumulating genetic damage and mutations that lead to aging in every one of our cells.

Right now, medical nanorobots are just theory. To actually build them, we need to create a new technology called molecular manufacturing. Molecular manufacturing is the production of complex atomically precise structures using positionally controlled fabrication and assembly of nanoparts inside a nanofactory, much like cars are manufactured on an assembly line. The first experimental proof that individual atoms could be manipulated was obtained by IBM scientists back in 1989 when they used a scanning tunneling microscope to precisely position 35 xenon atoms on a nickel surface to spell out the corporate logo IBM. Similarly, inside the nanofactory simple feedstock molecules such as methane (natural gas), propane, or acetylene will be manipulated by massively parallel arrays of tiny probe tips to build atomically precise structures needed for medical nanorobots. In 2006, Ralph Merkle and I founded the Nanofactory Collaboration ( MolecularAssembler.com/Nanofactory ) to coordinate a combined experimental and theoretical R&D program to design and build the first working diamondoid nanofactory that could build medical nanorobots.

How are these ideas being received in the medical community? Initial skepticism was anticipated, but over time people have begun taking the concept more seriously. (In late 1999 when my first book on nanomedicine came out, googling the word returned only 420 hits but this number rose fourfold in 2000 and fourfold again in 2001, finally exceeding 1 million hits by 2008.) Of course, most physicians cannot indulge themselves in exploring the future of medicine. This is not only understandable but quite reasonable for those who must treat patients today with the methods available today. The same is true of the medical researcher, diligently working to improve current pharmaceuticals, whose natural curiosity may be restrained by the knowledge that his or her success no matter how dramatic will eventually be superseded. In both cases, what can be done today, or next year, is the most appropriate professional focus.

But only a fraction of todays physicians and researchers need look ahead for the entire field of medicine to benefit. Those practitioners who plan to continue their careers into the timeframe when nanomedical developments are expected to arrive e.g., younger physicians and researchers, certainly those now in medical and graduate programs can incrementally speed the development process, while simultaneously positioning their own work for best effect, if they have a solid idea of where the field of medicine is heading. Those farther along in their careers will be better able to direct research resources today if the goals of nanomedicine are better understood.

The potential impact of medical nanorobotics is enormous. Rather than using drugs that act statistically and have unwanted side effects, we can deploy therapeutic nanomachines that act with digital precision, have no side effects, and can report exactly what they did back to the physician. Test results, ranging from simple blood panels to full genomic sequencing, should be available to the doctor within minutes of sample collection from the patient. Continuous medical monitoring by embedded nanorobotic systems, as exemplified by the programmable dermal display ( nanogirl.com/museumfuture/freitastalk.htm ), can permit very early disease detection by patients or their physicians. Such monitoring will also provide automatic collection of long-baseline physiologic data permitting detection of slowly developing chronic conditions that may take years or decades to develop, such as obesity, diabetes, calcium loss, or Alzheimers.

Drug companies? Rather than brewing giant batches of single-action drug molecules, Big Pharma can shift to manufacturing large quantities of generic nanorobots of several basic types. These devices could later be customized to each patients unique genome and physiology, then programmed to address specific disease conditions, on site in the doctors office at the time of need. Could personal nanofactories ( rfreitas.com/Nano/NoninflationaryPN.pdf ) in patients homes eventually do some of this manufacturing? Yes, especially if creative designs for new devices or procedures are placed online as open-source information. But basic issues such as IP rights, quality control, legal liability, trustworthiness of design improvements and software upgrades, product branding, government regulation and the like should allow Big Pharma to retain a significant role in medical nanomachine manufacture even in an era of widespread at-home personal manufacturing.

Doctors and hospitals? For commonplace pathologies such as cuts or bruises, colds or flu, bacterial infections or cancers of many kinds, individuals might keep a batch of generic nanorobots at the ready in their home medical appliance, ready to be reprogrammed at need either remotely by their doctor or by some generically-available procedure, allowing patients to self-treat in the simplest of cases. Doctors in this situation will act in the role of consultants, advisors, or in some cases gatekeepers regarding a particular subset of regulated conventional treatments. This will free up physicians and hospitals to deal with the most difficult or complex cases, including acute physical trauma and emergency care. These practitioners can also concentrate on rare disease conditions; many diseases also have few symptoms and thus go unrecognized for a long time. Medical specialists will also be needed to plan and coordinate major body modifications such as cosmetic surgeries and genetic upgrades, as well as more comprehensive procedures such as whole-body rejuvenations that may involve cell repair of most of the tissue cells in the body and might require several days of continuous treatment in a specialized facility.

Cost containment? Costs can be held down because molecular manufacturing can have intrinsically cheap production costs (probably on the order of $1/kg for a mature molecular manufacturing system) and can be a green technology generating essentially zero waste products or pollution during the manufacturing process. Nanorobot life cycle costs can be very low because nanorobots, unlike drugs and other consumable pharmaceutical agents, are intended to be removed intact from the body after every use, then refurbished and recycled many times, possibly indefinitely. Even if the delivery of nanomedicine doesnt reduce total health-care expenditures which it should it will likely free up billions of dollars that are now spent on premiums for private and public health-insurance programs.

Many are working to extend the bounds of conventional medicine, so here it is relatively difficult for one person to make a big difference. Few are given the opportunity (the perspective, the resources, and the willingness) to look a bit farther down the road, identifying an exciting long-term vision for medical technology and then planning the detailed steps necessary to achieve it. Planning and executing these steps toward the long-term vision has been my career and my passion for the last two decades. As the technologies Im working on come more clearly into focus, more people will acknowledge them as realistic and their enhanced trust in the longer-term vision will help speed the development of medical nanorobotics.

Robert A. Freitas Jr. is senior research fellow at the Institute for Molecular Manufacturing (IMM) in California, after serving as a research scientist at Zyvex Corp. in Texas during 2000-2004. He is the author of Nanomedicine (Landes Bioscience, 1999, 2003), the first technical book series on medical nanorobotics. Web site http://www.rfreitas.com. Freitas is the 2009 winner of the Feynman Prize in nanotechnology for theory.

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University of South Florida Nanomedicine Research Center

§ September 12th, 2015 § Filed under Nano Medicine Comments Off on University of South Florida Nanomedicine Research Center

Who we are:

The UNRC is based at the University of South Florida College of Medicine, and membership is open to all persons from the Colleges of Medicine, Public Health, Nursing, Arts and Sciences, and Engineering interested in collaborating on nanomedicine projects. The Director of the UNRC is Shyam S. Mohapatra, PhD, Professor of Medicine in the Department of Internal Medicine Division of Allergy and Immunology. The main mission of the UNRC is to bring together a dedicated, creative, interdisciplinary group of faculty and staff to conduct research on the application of nanoengineering methods and materials to the development of novel, highly effective and useful therapies and diagnostic methods for human diseases.

Nanomethods have wide applicability for developing new approaches to the diagnosis and treatment of virtually all human diseases. Research at UNRC focuses in three major areas: nanomedicine, tissue engineering and cell technology. Nanomedicine includes such goals as the optimization of targeted drug delivery vehicles to minimize harmful side effects, the application of microelectronics/microfluidics platforms for early detection of disease conditions, and the development of point-of-care devices for field use. Tissue engineering research at UNRC has to do with the nanoscale construction of specialized cell scaffolds and artificial matrices. These biocompatible tissue hybrids have the potential to revolutionize treatment of a number of diseases from cardiovascular to neurodegenerative. Cell technology covers a range of novel applications such as using specific cell types as nanoparticle carriers and studying the potential of progenitor cells in regenerative medicine.

Goals of the UNRC:

The main mission of the UNRC is to bring together a dedicated, creative, interdisciplinary group of faculty and staff to conduct research on the application of nanoengineering methods and materials to the development of novel, highly effective and useful therapies for human diseases. read more

Areas of Interest:

The members of the UNRC have wide-ranging research interests and an exciting, creative approach to applying nanomethods. Targeted drug delivery is one of the main research areas of the UNRC, and progress in this field is a critical need in cancer treatment and severe respiratory illness. Infectious diseases are spreading at ever-increasing rates in many areas of the world and new nanomaterials being tested at UNRC show great promise in fine-tuning the immune response to destroy microbial invaders without harming the bodys own tissue. Regenerative medicine is another important focus of research. read more

Programs at the UNRC:

The UNRC sponsors a number of nanomedicine speakers during the year as well as an annual international nanomedicine conference. The USF College of Medicine offers a Masters Degree program with a focus on interdisciplinary nanomedicine research taught and mentored by faculty members of the UNRC. read more

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University of South Florida Nanomedicine Research Center

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Robotic Surgery > Surgery | Carolinas HealthCare System > NC & SC

§ September 8th, 2015 § Filed under Nano Medicine Comments Off on Robotic Surgery > Surgery | Carolinas HealthCare System > NC & SC

Robotic Surgery: Care that is Beyond Human.

Carolinas HealthCare System is proud to be the leader in robotic surgery – a sophisticated technique that blends the accuracy of a robot with the talent of specially-trained surgeons. Robotic-assisted surgery is less invasive and provides surgical teams optimal visibility and unsurpassed precision to do what is not possible with human hands alone.

Learn more about our treatments for the following conditions:

As part of our commitment to deliver the very best in talent and technology, we are proud to continue our investment in robotic-assisted surgery and offer its benefits to patients across North Carolina.

Large incision and scar

Tiny incisions, minimal scaring

Hospital stay lasting two to three days

Hospital stay less than a day in most cases

Greater risk of infection at incision site

Less risk of infectiofn or other complications

Recovery time of up to six-eight weeks

Able to drive within 72 hours in most cases; back to normal activities in about two weeks

All of ourrobotic-trained surgeons atCarolinas HealthCare Systemare experts in a variety of specialties including:

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Robotic Heart Surgery

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Traditionally, heart surgery is performedby dividing the breastplate with a saw (sternotomy). Robotic heart surgery allows surgeons to perform some of the same operations through tiny incisions. The reason is that robotic instruments have the same range of motion of a surgeons hands but are smaller than a dime. Robotic heart surgery requires a highly trained and experienced surgeon and team to perform.

With robotics, the surgeon sits at a console in the operating room controlling the instruments while looking at a high-definition 3D image from the camera inside the patient. The surgeon controls the robot at all times. It does not do anything without the surgeon directing it (just as a pilot controls an airplane). Many types of cardiac surgical procedures can be performed with robotic assistance including: mitral valve repair or replacement, atrial septal defect closure, procedures to correct atrial fibrillation (MAZE), correction of HOCM (Hypertrophic Obstructive Cardiomyopathy), removal of cardiac tumors, tricuspid valve repair or replacement, coronary artery bypass surgery (TECAB or Totally Endoscopic Coronary Artery Bypass, robotic assisted MIDCAB or Minimally Invasive Direct Coronary Artery Bypass, hybrid procedures with robotic coronary bypass and coronary stents), pacemaker lead placement, and others. The most important factor in selecting a center for robotic heart surgery is training and experience. Recent media reports have expressed appropriate concern over the safety of robotics by surgeons and teams that are inadequately trained and prepared for these advanced procedures. I have spent over a decade focused on the mastery of robotic surgery at every level and personally trained our team extensively. Many hospitalsand surgeons claim to do robotic heart surgery, but very few are doing it routinely and through only tiny incisions. We mostly do what I consider to be totally endoscopic procedures, meaning that the incisions are so small (usually 8-15 mm) that you cannot see into the chest directly to do any portion of the procedure. Many programs use the robot to do all or some parts of the surgery with larger rib spreading mini-thoracotomies through which the operation could easily be done without the robot. Unfortunately, these larger incisions can be even more painful than a sternotomy. Some make similar incisions and perform surgery without the robot.

It would be incredibly hard if not impossible to do these procedures through incisions of 8-15 mm without the robot. One way to understand the value of robotics compared to non-robotic minimally invasive techniques would be to compare use of chopsticks versus fork and hand to eat a meal. You certainly can eat with chopsticks but you lose the ability to easily move in more than 2 dimensions. In the simplest terms the robotic system allows the surgeon to have the same dexterity (or range of motion) of a human hand but with tiny incisions. Also the robotically-controlled high-definition 3-D camera and retractor allow the surgeon to constantly adjust the exposure and view of the surgical area. In the case of mitral valve surgery, the ability to see and work on the valve up close and in its natural position definitely makesvalve repair much easier.

Watch out for drive by robotic surgery and bait and switch marketing. Dont be fooled by the word robotic. Drive by robotics is what I would call doing surgery through a fairly standard incision but using the robot to do part of the operation. We see no advantage to this approach over standard non-robotic procedures. This is often done for marketing purposes so a program can advertise itself as doing robotic heart surgery and attract patients. Many programs use the robot to do the operation using mini thoracotomies through which the operation could easily be done without the robot. We believe this offers little advantage to the patient given the size of the incisions and associated pain. Bait and switch marketing is where a program or surgeon uses the robot to get you in his/her office and then signs you up for a non-robotic procedure when a robot could easily be used to do your procedure. Keep in mind, however, that most patients undergoing heart surgery need a standard incision depending on what their problem is. However, many heart surgery procedures are easily performed with the robot. The purpose of this website is to provide you with detailed information and empower you so that you can make informed choices about your medical care. Ultimately the decisions are yours. Request an appointment with Dr. T. Sloane Guy to discuss robotic heart surgery.

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Robotic surgery | University of Maryland Medical Center

§ September 8th, 2015 § Filed under Nano Medicine Comments Off on Robotic surgery | University of Maryland Medical Center

Toggle: English / Spanish

Robotic surgery is a method to perform surgery using very small tools attached to a robotic arm. The surgeon controls the robotic arm with a computer.

Robot-assisted surgery; Robotic-assisted laparoscopic surgery; Laparoscopic surgery with robotic assistance

You will be given general anesthesia so that you are asleep and pain-free.

The surgeon sits at a computer station and directs the movements of a robot. Small surgical tools are attached to the robot’s arms.

Robotic surgery is similar to laparoscopic surgery. It can be performed through smaller cuts than open surgery. The small, precise movements that are possible with this type of surgery give it some advantages over standard endoscopic techniques.

The surgeon can make small, precise movements using this method. This can allow the surgeon to do a procedure through a small cut that once could be done only with open surgery.

Once the robotic arm is placed in the abdomen, it is easier for the surgeon to use the surgical tools than with laparoscopic surgery through an endoscope.

The surgeon can also see the area where the surgery is performed more easily. This method lets the surgeon move in a more comfortable way, as well.

Robotic surgery can take longer to perform. This is due to the amount of time needed to set up the robot. Also, many hospitals may not have access to this method.

Robotic surgery may be used for a number of different procedures, including:

Robotic surgery cannot be used for some complex procedures.

The risks for any anesthesia are:

Reactions to medications

Problems breathing

The risks for any surgery are:

Robotic surgery has as many risks as open and laparoscopic surgery. However, the risks are different.

You cannot have any food or fluid for 8 hours before the surgery.

You may need to cleanse your bowels with an enema or laxative the day before surgery for some types of procedures.

Stop taking aspirin, blood thinners such as warfarin (Coumadin) or Plavix, anti-inflammatory medications, vitamins, or other supplements 10 days before the procedure.

You will be taken to a recovery room after the procedure. Depending on the type of surgery performed, you may have to stay in the hospital overnight or for a couple of days.

You should be able to walk within a day after the procedure. How soon you are active will depend on the surgery that was done.

Avoid heavy lifting or straining until your doctor gives you the OK. Your doctor may tell you not to drive for at least a week.

Surgical cuts are smaller than with traditional open surgery. Benefits include:

Eichel L, McDougall EM, Clayman RV. Fundamentals of laparoscopic and robotic urologic surgery. In: Wein AJ, ed. Campbell-Walsh Urology. 10th ed. Philadelphia, Pa: Saunders Elsevier; 2011:chap 9.

Fried GM. Emerging technology in surgery: Informatics, electronics, robotics. In: Townsend CM Jr, Beauchamp RD, Evers BM, Mattox KL, eds. Sabiston Textbook of Surgery. 19th ed. Philadelphia, Pa: Saunders Elsevier; 2012:chap 17.

Oleynikov D. Robotic surgery. Surg Clin N Am. 2008;88:1121-1130.

Hu JC, Gu X, Lipsitz SR, Barry MJ, D’Amico AV, Weinberg AC, et al. Comparative effectiveness of minimally invasive vs. open radical prostatectomy. JAMA. 2009;302(14):1557-1564.

A.D.A.M., Inc. is accredited by URAC, also known as the American Accreditation HealthCare Commission (www.urac.org). URAC’s accreditation program is an independent audit to verify that A.D.A.M. follows rigorous standards of quality and accountability. A.D.A.M. is among the first to achieve this important distinction for online health information and services. Learn more about A.D.A.M.’s editorial policy, editorial process and privacy policy. A.D.A.M. is also a founding member of Hi-Ethics and subscribes to the principles of the Health on the Net Foundation (www.hon.ch)

The information provided herein should not be used during any medical emergency or for the diagnosis or treatment of any medical condition. A licensed medical professional should be consulted for diagnosis and treatment of any and all medical conditions. Call 911 for all medical emergencies. Links to other sites are provided for information only — they do not constitute endorsements of those other sites. 1997-2013 A.D.A.M., Inc. Any duplication or distribution of the information contained herein is strictly prohibited.

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Robotic Surgery | Gwinnett Medical Center

§ September 8th, 2015 § Filed under Nano Medicine Comments Off on Robotic Surgery | Gwinnett Medical Center

Minimally invasive. Extraordinary results. When medication and non-invasive procedures are unable to relieve symptoms, surgery remains the accepted and most effective treatment for a range of gynecologic conditions. These include, but are not limited to, cervical and uterine cancer, uterine fibroids, endometriosis, uterine prolapse, and menorrhagia (excessive bleeding).

Traditional open gynecologic surgery, using a large incision for access to the uterus and surrounding anatomy, has been the standard approach to gynecologic procedures for many years. Yet, open surgery can cause significant pain, trauma, a long recovery process and a threat to surrounding organs and nerves. For women facing gynecologic surgery, the period of pain, discomfort and extended time away from normal daily activities that usually follows traditional surgery can understandably cause significant anxiety.

Fortunately, less invasive options are available. Some gynecologic procedures enable surgeons to access the target anatomy using a vaginal approach, which may not require an external incision. But for complex hysterectomies and other gynecologic procedures, robot-assisted surgery with the da Vinci Robotic Surgical System may be the most effective, least invasive treatment option. Through tiny, 12 cm incisions, surgeons using the robot can operate with greater precision and control, minimizing the pain and risk associated with large incisions while increasing the likelihood of a fast recovery and excellent clinical outcomes.

Gwinnett Medical CenterLawrenceville andGwinnett Medical CenterDuluth, are proud to offer our community the latest in minimally invasive procedures through state-of-the-art, FDA-approved robotic surgery.

Minimally invasive surgeries are performed through small incisions rather than large ones. This results in potentially quicker recovery times, fewer complications, reduced hospitalization costs and less scarring.

One of the most common forms of minimally invasive surgery is performed with the da Vinci Surgical System. This technology provides surgeons an enhanced, high definition, magnified 3D view of the part of the body on which they are performing surgery.

The da Vinci robot translates the surgeons every hand movement into smaller, more precise movements for the tiny surgical instruments inside the patients body. Gwinnett Medical Center’s board-certified surgeons use robotic surgery for the following procedures and conditions:

Gynecologic Procedures

Oncology/Cancer Conditions

Thoracic Procedures Bariatric Procedures

Want to learn more about robotic surgery? Download a FREE brochure now.

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Robotic Surgery | Gwinnett Medical Center

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Robotic Surgery

§ September 8th, 2015 § Filed under Nano Medicine Comments Off on Robotic Surgery

Welcome to the CRSA Society Website Let’s keep in touch to improve our robotic clinical practice

The CRSA is the new society devoted to minimally invasive robotic surgery.

Surgeons interested in the clinical applications of robotic surgery may now get full access to the world’s largest library of minimally-invasive related media by applying for a free 15-day trial before becoming a member of the association.

No invitation codes required, no charges for the entire trial period. Sign up now:

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da Vinci Surgical System – Wikipedia, the free encyclopedia

§ September 8th, 2015 § Filed under Nano Medicine Comments Off on da Vinci Surgical System – Wikipedia, the free encyclopedia

da Vinci Surgical System

Patient-side components of a da Vinci system, including the effector arms and endoscope.

The Da Vinci Surgical System is a robotic surgical system made by the American company Intuitive Surgical. Approved by the Food and Drug Administration (FDA) in 2000, it is designed to facilitate complex surgery using a minimally invasive approach, and is controlled by a surgeon from a console. The system is commonly used for prostatectomies, and increasingly for cardiac valve repair and gynecologic surgical procedures.[1][2] According to the manufacturer, the da Vinci System is called “da Vinci” in part because Leonardo da Vinci’s “study of human anatomy eventually led to the design of the first known robot in history.”[3]

Da Vinci robots operate in hospitals worldwide, with an estimated 200,000 surgeries conducted in 2012, most commonly for hysterectomies and prostate removals.[4] As of June 30, 2014, there was an installed base of 3,102 units worldwide, up from 2,000 units at the same time the previous year. The location of these units are as follows: 2,153 in the United States, 499 in Europe, 183 in Japan, and 267 in the rest of the world.[5] The “Si” version of the system costs on average slightly under US$2 million, in addition to several hundred thousand dollars of annual maintenance fees.[6] The da Vinci system has been criticised for its cost and for a number of issues with its surgical performance.[2][7]

The da Vinci System consists of a surgeons console that is typically in the same room as the patient, and a patient-side cart with four interactive robotic arms controlled from the console. Three of the arms are for tools that hold objects, and can also act as scalpels, scissors, bovies, or unipolar or hi. The surgeon uses the consoles master controls to maneuver the patient-side carts three or four robotic arms (depending on the model). The instruments jointed-wrist design exceeds the natural range of motion of the human hand; motion scaling and tremor reduction further interpret and refine the surgeons hand movements. The da Vinci System always requires a human operator, and incorporates multiple redundant safety features designed to minimize opportunities for human error when compared with traditional approaches.

The da Vinci System has been designed to improve upon conventional laparoscopy, in which the surgeon operates while standing, using hand-held, long-shafted instruments, which have no wrists. With conventional laparoscopy, the surgeon must look up and away from the instruments, to a nearby 2D video monitor to see an image of the target anatomy. The surgeon must also rely on a patient-side assistant to position the camera correctly. In contrast, the da Vinci Systems design allows the surgeon to operate from a seated position at the console, with eyes and hands positioned in line with the instruments and using controls at the console to move the instruments and camera.

By providing surgeons with superior visualization, enhanced dexterity, greater precision and ergonomic comfort, the da Vinci Surgical System makes it possible for more surgeons to perform minimally invasive procedures involving complex dissection or reconstruction. For the patient, a da Vinci procedure can offer all the potential benefits of a minimally invasive procedure, including less pain, less blood loss and less need for blood transfusions. Moreover, the da Vinci System can enable a shorter hospital stay, a quicker recovery and faster return to normal daily activities.[8]

The Food and Drug Administration (FDA) cleared the da Vinci Surgical System in 2000 for adult and pediatric use in urologic surgical procedures, general laparoscopic surgical procedures, gynecologic laparoscopic surgical procedures, general non-cardiovascular thoracoscopic surgical procedures and thoracoscopically assisted cardiotomy procedures. The FDA also cleared the da Vinci System to be employed with adjunctive mediastinotomy to perform coronary anastomosis during cardiac revascularization.[9]

The da Vinci System has been successfully used in the following procedures:[9]

Although the general term “robotic surgery” is often used to refer to the technology, this term can give the impression that the da Vinci System is performing the surgery autonomously. In contrast, the current da Vinci Surgical System cannot in any manner function on its own, as it was not designed as an autonomous system and lacks decision making software. Instead, it relies on a human operator for all input; however, all operations including vision and motor functions are performed through remote human-computer interaction, and thus with the appropriate weak AI software, the system could in principle perform partially or completely autonomously. The difficulty with creating an autonomous system of this kind is not trivial; a major obstacle is that surgery per se is not an engineered process a requirement for weak AI. The current system is designed merely to replicate seamlessly the movement of the surgeon’s hands with the tips of micro-instruments, not to make decisions or move without the surgeons direct input.

The possibility of long-distance operations depends on the patient having access to a da Vinci System, but technically the system could allow a doctor to perform telesurgery on a patient in another country. In 2001, Dr. Marescaux and a team from IRCAD used a combination of high-speed fiber-optic connection with an average delay of 155ms with advanced asynchronous transfer mode (ATM) and a Zeus telemanipulator to successfully perform the first transatlantic surgical procedure, covering the distance between New York and Strasbourg. The event was considered a milestone of global telesurgery, and was dubbed Operation Lindbergh.[11]

Critics of robotic surgery assert that it is difficult for users to learn and that it has not been shown to be more effective than traditional laparoscopic surgery.[2] The da Vinci system uses proprietary software, which cannot be modified by physicians, thereby limiting the freedom to modify the operation system.[4] Furthermore, its $2 million cost places it beyond the reach of many institutions.[6]

The manufacturer of the system, Intuitive Surgical, has been criticized for short-cutting FDA approval by a process known as “premarket notification,” which claims the product is similar to already-approved products. Intuitive has also been accused of providing inadequate training, and encouraging health care providers to reduce the number of supervised procedures required before a doctor is allowed to use the system without supervision.[12] There have also been claims of patient injuries caused by stray electrical currents released from inappropriate parts of the surgical tips used by the system. Intuitive counters that the same type of stray currents can occur in non-robotic laparoscopic procedures.[13] A study published in the Journal of the American Medical Association found that side effects and blood loss in robotically-performed hysterectomies are no better than those performed by traditional surgery, despite the significantly greater cost of the system.[14][15] As of 2013, the FDA is investigating problems with the da Vinci robot, including deaths during surgeries that used the device; a number of related lawsuits are also underway.[7]

From a social analysis, a disadvantage is the potential for this technology to dissolve the creative freedoms of the surgeon, once hailed by scholar Timothy Lenoir as one of the most professional individual autonomous occupations to exist. Lenoir claims that in the “heroic age of medicine,” the surgeon was hailed as a hero for his intuitive knowledge of human anatomy and his well-crafted techniques in repairing vital body systems. Lenoir argues that the da Vinci’s 3D console and robotic arms create a mediating form of action called medialization, in which internal knowledge of images and routes within the body become external knowledge mapped into simplistic computer coding.[16]

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