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SUNY Poly Colleges of Nanoscale Science and Engineering …

§ May 7th, 2016 § Filed under Nano Medicine Comments Off on SUNY Poly Colleges of Nanoscale Science and Engineering …

The Colleges of Nanoscale Science and Engineering are the colleges of nanotechnology at the SUNY Polytechnic Institute campus in Albany, New York. Founded in 2004 and formerly a component of the University at Albany, the colleges underwent rapid expansion in the late-2000s and early-2010s before merging with the SUNY Institute of Technology in 2014. As two of five colleges within SUNY Poly, they are the first colleges in the United States devoted to nanotechnology.[1]

The Colleges of Nanoscale Science and Engineering were originally established as the School of Nanosciences and Nanoengineering at the University at Albany in 2001. CNSE was accredited as the College of Nanoscale Science and Engineering of the University at Albany in 2004, and in December of that year, awarded its first Ph.D. degrees in nanoscience.[2] In July 2013, SUNY’s Board of Trustees approved a memorandum that led to the separation of CNSE from the University at Albany and included the creation of a new degree-granting structure for the NanoCollege.[3] This was followed by the merger of the SUNY Institute of Technology (SUNYIT) with CNSE in September 2014 to create SUNY Polytechnic Institute.[4][5] In January 2015, Dr. Alain Kaloyeros was appointed by the SUNY Board of Trustees as the President of SUNY Poly.[6]

CNSE offers degree programs leading to the Bachelor of Science (B.S.) degree in Nanoscale Engineering and Nanoscale Science,[7] the Master of Science (M.S.) degree in either Nanoscale Science or Nanoscale Engineering, and the Doctor of Philosophy (Ph.D.) degree in either Nanoscale Science or Nanoscale Engineering. CNSE also offers a combined Masters of Science and Masters of Business Administration (M.S.-MBA) degree, the “Nano+MBA,” with the ability to earn the M.S. degree in either Nanoscale Science or Nanoscale Engineering,[8] or enroll in the nanotechnology elective track while participating in UAlbany’s Evening MBA program.[9] Additionally, CNSE and SUNY Downstate Medical Center offer a joint M.D. and Ph.D. program.[10] The program allows students to earn an M.D. in Medicine and a Ph.D. in Nanoscale Science or Engineering.[11] In 2010, CNSE became the first college in the U.S. to launch a comprehensive baccalaureate program in Nanoscale Engineering and Nanoscale Science.[12] Through the Spring 2013 semester, CNSE has 191 alumni.[13]

SUNY Poly CNSE is located near Western Avenue and Fuller Road, west of the University at Albany. The college has a number of wafer fabrication cleanrooms with different classifications for cleanroom suitability.

NanoFab 200, an earlier part of the campus, was completed in 1997. This 70,000-square-foot (6,500m2), $16.5 million facility includes 4,000 square feet (370m2) of cleanroom space, plus CNSE metrology labs and office space for programs such as SUNYs Atmospheric Sciences Research Center.

NanoFab South, completed March 2004, is a 150,000-square-foot (14,000m2), $50 million facility including 32,000 square feet (3,000m2) of 300mm wafer, class 1-capable cleanroom space.

Completed December 2005, NanoFab North is a 230,000-square-foot (21,000m2), $175 million facility including 35,000 square feet (3,300m2) of cleanroom space with Class 1-capable 300mm wafer production.

In March 2009, another $150 million expansion project included NanoFab East, a 250,000-square-foot (23,000m2) office, laboratory, and classroom building, in addition to NanoFab Central, a separate 100,000-square-foot (9,300m2) building that houses 15,000 square feet (1,400m2) of 300mm wafer, class 1-capable cleampus consists of NanoFab Xtension (NFX) which hosts the Global 450mm Consortium as well as an additional 50,000 square feet (4,600m2) of Class 1 capable cleanroom space, and the Zero Energy Nanotechnology (ZEN) building, a living laboratory for green energy technologies. The expansion will enable the addition of more than 1,000 scientists, researchers, and engineers from CNSE and global corporations.[14][15][16]

Located in Halfmoon, New York, the Solar Energy Development Center is an 18,000-square-foot (1,700m2) facility features a state-of-the-art, 100 kilowatt prototyping and demonstration line for next-generation copper indium gallium selenide (CIGS) thin film solar cells, offering critical opportunities to demonstrate emerging concepts in CIGS manufacturing, such as evaluations of innovative materials and novel processes. CNSE’s SEDC also supports the U.S. Photovoltaic Manufacturing Consortium, a more than $300 million public-private collaboration headquartered at CNSE.[17]

Located in Kiernan Plaza the facility specializes in smart devices, sensors and computer chips, integrated systems, and operating software that collect and analyze data for monitoring highway conditions and improving traffic flow; protecting infrastructure such as bridges, data centers, and utility installations; safeguard facilities, including wastewater treatment plants; and provide e-safety and security in educational settings.[18]

The development of the Marcy Nanocenter site in Utica is led by CNSE in partnership with quasi-public Mohawk Valley EDGE to accelerate the attraction of 450mm computer chip manufacturing to the Mohawk Valley.[19] The development plan of the Marcy Nanocenter site includes up to 8.25 million square feet of teaching facilities, with up to three 450mm computer chip fabs, each with a cleanroom of approximately 450,000 square feet, a total public and private investment of $10B to $15B for each phase of development, and the creation of approximately 5,000 direct jobs and approximately 15,000 indirect jobs.[20]

The Computer Chip Commercialization Center, or Quad C, is located on the SUNY Poly Utica campus, and has an anchor tenant of General Electric.

Located in Syracuse, the Central New York Hub for Emerging Nano Industries specializes in providing visual production research and education to support New Yorks film and television industry, with a focus on the use of nanotechnology to drive innovations in computer-generated imagery and animation, as well as motion capture technology utilized by todays production facilities.[21] This initiative includes a minimum private investment of $150M over seven years. SUNY Poly will provide $15M to build the facility at the Collamer Crossings Business Park in Dewitt, and Onondaga County has invested $1.4M to ensure shovel-ready status for the two 52,000 square foot buildings, offering research and development, manufacturing, and office space for a diverse cross-section of businesses, including The Film House, a California-based film and television company, which will be the facilitys first tenant.[22] As announced by Andrew Cuomo in March 2014, the project will create at least 350 new jobs and 150 construction jobs.[23]

located in Rochester, NY, will invest over $500 million and create thousands of high-skilled, high-paying jobs in Upstate New York over the next five years including at least 500 in Rochester.[24] This public-private partnership will help develop the next generation of materials used on semiconductors at State-owned R&D facilities.[25] Managed by CNSE, the development of this next generation of semiconductors will enable power devices to get smaller, faster and more efficient.[23]

located outside of Rochester in Canandaigua, New York, was created in 2010 through a merger of two of New York State’s Centers of Excellence: Infotonics Technology Center (ITC) in Canandaigua and the Center of Excellence in Nanoelectronics and Nanotechnology at CNSE, and offers state-of-the-art capabilities for MEMS fabrication and packaging at its 120,000-square-foot (11,000m2) facility that includes 26,000 square feet (2,400m2) of certified cleanroom space with 150mm and 200mm MEMS foundry services, complemented by a dedicated 8,000-square-foot (740m2) MEMS and optoelectronic packaging facility.[26] The STC positions New York State as a global leader in smart system and smart device innovation and manufacturing[27][28] and also positions CNSE as a vertically integrated “one-stop-shop” for smart systems’ device development and process manufacturing, coupling CNSE’s preeminence in nanoelectronics R&D with ITC’s expertise in integrating computer chips with hundreds of mechanical devices.[27]

to be located inside a 57,000-square-foot (5,300m2) former Kodak building in the Canal Ponds Business Park in Rochester, New York, is part of a taxpayer-funded $100 million initiative creating the solar industrys first full-service collaborative space dedicated to advancing crystalline silicon, technologies.[29][30][31] Further leveraging the publicly led industry-university partnership model utilized at CNSE, the CNSE MDF will include a state-of-the-art, 20,000-square-foot (1,900m2) cleanroom instruction center and will provide a range of services and equipment, including complete manufacturing lines, access to individual tools, secure fab space for users proprietary tools, and pilot production services in an intellectual property (IP) secure environment.[32][33] Over $19 million in cutting-edge tools and equipment that are critical to the U.S. Department of Energys (DOE) SunShot initiative and which were formerly utilized by SVTC, a Silicon Valley-based solar energy company, will be relocated to the CNSE MDF to constitute the foundation of the manufacturing development line.[32][34] The CNSE MDF will also enable education and training to support the expansion of the highly skilled workforce required by the U.S. PV manufacturing industry and, in addition, will complement and expand the capabilities and expertise of the national U.S. Photovoltaic Manufacturing Consortium (PVMC), headquartered at CNSE as part of the DOEs SunShot Initiative.[34][35]

Located at the Buffalo Niagara Medical Campus in Buffalo, the Buffalo Medical Innovation and Commercialization Hub is a facility for research, development, and testing for drug screening, pharmaceutical development, technology optimization, business attraction, workforce training, and bioinformatics.[36] This $250 million initiative, with $200 million to be generated by private industry investment and $50 million being invested by New York State, $35 million of which will go toward new equipment and $15 million of which will go toward improving existing lab space, will support over 250 jobs on site.[37]

In 2014, SolarCity invested $5 billion to establish a one million-square-foot factory which will produce solar panels, at the Buffalo High-Tech Manufacturing Innovation Hub at RiverBend, the former site of a Republic Steel factory.[38] It will be the largest facility of its kind in the Western Hemisphere, with more than 1 gigawatt of annual solar capacity when it reaches full production.[citation needed] More than 3,000 jobs will be created in Western New York and a total of nearly 5,000 jobs throughout New York.[citation needed]

The Buffalo Information Technologies Innovation and Commercialization Hub was created through a $55 million investment by New York. IBM will be the first anchor tenant in the hub and will train information technology professionals and develop software needed in the areas of molecular research, genomics, energy efficiency and defense. Through the hub, IBM will bring 500 new information technology jobs to Buffalo.[39]

CNSE is the home of numerous pioneering nanotechnology programs funded by a variety of public and private sources. CNSE is able to accelerate the commercialization of technologies by providing technology deployment, market development, economic outreach and business assistance under a variety of centers and programs.

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Nanomedicine Fact Sheet

§ May 7th, 2016 § Filed under Nano Medicine Comments Off on Nanomedicine Fact Sheet

Nanomedicine Overview

What if doctors had tiny tools that could search out and destroy the very first cancer cells of a tumor developing in the body? What if a cell’s broken part could be removed and replaced with a functioning miniature biological machine? Or what if molecule-sized pumps could be implanted in sick people to deliver life-saving medicines precisely where they are needed? These scenarios may sound unbelievable, but they are the ultimate goals of nanomedicine, a cutting-edge area of biomedical research that seeks to use nanotechnology tools to improve human health.

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A lot of things are small in today’s high-tech world of biomedical tools and therapies. But when it comes to nanomedicine, researchers are talking very, very small. A nanometer is one-billionth of a meter, too small even to be seen with a conventional lab microscope.

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Nanotechnology is the broad scientific field that encompasses nanomedicine. It involves the creation and use of materials and devices at the level of molecules and atoms, which are the parts of matter that combine to make molecules. Non-medical applications of nanotechnology now under development include tiny semiconductor chips made out of strings of single molecules and miniature computers made out of DNA, the material of our genes. Federally supported research in this area, conducted under the rubric of the National Nanotechnology Initiative, is ongoing with coordinated support from several agencies.

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For hundreds of years, microscopes have offered scientists a window inside cells. Researchers have used ever more powerful visualization tools to extensively categorize the parts and sub-parts of cells in vivid detail. Yet, what scientists have not been able to do is to exhaustively inventory cells, cell parts, and molecules within cell parts to answer questions such as, “How many?” “How big?” and “How fast?” Obtaining thorough, reliable measures of quantity is the vital first step of nanomedicine.

As part of the National Institutes of Health (NIH) Common Fund [], the NIH [] has established a handful of nanomedicine centers. These centers are staffed by a highly interdisciplinary scientific crew, including biologists, physicians, mathematicians, engineers and computer scientists. Research conducted over the first few years was spent gathering extensive information about how molecular machines are built.

Once researchers had catalogued the interactions between and within molecules, they turned toward using that information to manipulate those molecular machines to treat specific diseases. For example, one center is trying to return at least limited vision to people who have lost their sight. Others are trying to develop treatments for severe neurological disorders, cancer, and a serious blood disorder.

The availability of innovative, body-friendly nanotools that depend on precise knowledge of how the body’s molecular machines work, will help scientists figure out how to build synthetic biological and biochemical devices that can help the cells in our bodies work the way they were meant to, returning the body to a healthier state.

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Last Updated: January 22, 2014

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SMART Surgery Technique – Samadi Modified Advanced Robotic …

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SMART Surgery Technique (Samadi Modified Advanced Robotic Technique)

Having completed fellowship training in both urologic oncology and laparoscopy, Dr Samadis technique as described below builds on oncologic principles learned with open radical prostatectomy and transferred to a robotic approach. In the technique he uses at Lenox Hill Hospital, he recreates the classic open anatomic RRP technique as closely as possible on the robotic platform. He does not view the robot as a good unto itself, but, rather, as a tool that permits enhanced anatomic radical prostatectomy by improving vision and allowing angles of dissection not possible with open or straight laparoscopic instruments.

It should be emphasized that the SMART technique is an advanced technique that should not be performed early in a novice robotic surgeons learning curve. Since 2003, Dr Samadi has performed over 2,000 RALPs, approximately half by this technique. In the 12 months since the final modifications were made to this technique in early 2008, he has performed more than 2,224 RALPs. We are able to achieve continence rates of 97% and potency rates of 81% at 1 year (in 193 and 169 patients, respectively) while maintaining a 4% rate of positive surgical margins.

The medial umbilical ligaments are coagulated and tran transected bilaterally and the incision is carried down to the vasa deferentia. The space of Retzius is developed bluntly. Fat on the anterior surface of the prostate is excised and included with the permanent prostate specimen. This fat is sent for pathologic analysis after recent findings demonstrated that it occasionally harbors lymph nodes, which, when positive, portend poor prognosis (Urology 2007; 70:1000-3).

Once the prostate is exposed, the bladder neck is identified and the medial aspect of the bladder neck incised with electrocautery until the Foley catheter is exposed. The catheter is grasped with the fourth robotic arm and retracted anteriorly. Note that the endopelvic fascia remains intact at this point and the DVC is not ligated (figure 1).

The posterior aspect of the bladder is now exposed and a median lobe or TUR defect should be apparent, if present. (Management of median lobes can be quite complex, and is outside the scope of this discussion.) The posterior aspect of the bladder neck is transected with electrocautery, while keeping in the same plane as the anterior bladder neck dissection.

Given the proximity of the nervi erigentes of Walsh to the tips of the seminal vesicles, their dissection should be performed without cautery. The vas deferens is dissected several centimeters distally, which facilitates the delivery of the remainder of the SV. Once in the correct plane and the glistening white of the vas is exposed, the thin layer of connective tissue covering the SV is bluntly dissected posteriorly as the SV is pulled anteriorly. After the entirety of the SV has been exposed, the artery to the SV should be seen entering laterally, where it is clipped distally and transected. We prefer the articulation afforded by the robotic Hem-o-lok clip applier (Weck Closure Systems, Research Triangle Park, NC). Once one SV has been dissected, it is retracted anteriorly to facilitate the dissection of the contralateral SV.

Following dissection of bilateral SVs, the SVs are grasped with the fourth robotic arm, retracted superio-laterally, and rotated away from the side of nerve sparing (to the left and counter-clockwise for right-sided nerve sparing). Minimal traction is thus placed on the neurovascular bundles (figure 2). It should be emphasized that from this point onward, all dissection and nerve sparing are performed with blunt dissection, using the curved robotic scissors. No cautery is used at any point. (In the event of significant disease burden prohibitive of nerve sparing, the neurovascular bundle is excised widely with a standard lateral incision of the endopelvic fascia.)

The posterior aspect of the prostate is dissected bluntly in antegrade fashion for several centimeters and the prostatic pedicle is exposed. The large urethral branches are controlled using a robotically applied Hem-o-lok clip (figure 3). Starting at the lateral aspect of the SV, interfascial nerve sparing is performed in an antegrade fashion from the 5 oclock to the 2 oclock position on the prostate, similar to the veil or curtain technique. Small capsular branches of the pedicle are controlled with small metal clips applied robotically.

Care should be taken to visualize the ureteric orifices prior to reconstruction and to avoid their inclusion in the sutures. Once the endopelvic fascia has been released anteriorly for several centimeters at the 2 oclock position, a robotically applied Hem-o-lok clip is placed on the lateral fascia parallel with the plane of dissection to control tributaries of the DVC. The fascia is then incised with the cold scissors. This proceeds in an antegrade fashion until the apex is dissected and the DVC exposed (figure 4). The fourth robotic arm is then shifted to the right side and rotated in a clockwise fashion to set up the left-sided nerve sparing.

After both neurovascular bundles have been spared to the apex, the pneumoperitoneum is temporarily increased to 20 mm Hg. The anesthesiologist is instructed to carefully monitor end tidal CO2. The DVC and puboprostatic ligaments are cut with cold scissors as the prostate is retracted superiorly and rotated anteriorly as in open RRP. The apex of the prostate, urethra, and neurovascular bundles can easily be visualized and dissected free (figure 5). Minimal suction is used during this step to minimize blood loss from the open DVC. The urethra is dissected circumferentially and cut with cold scissors to leave as long a urethral stump as possible, maintaining the striated sphincter.

After the specimen is removed and bagged, the DVC is oversewn with a running 3-0 polyglactin suture on an SH needle, taking care to avoid the dissected neurovascular bundles.Arterial and venous bleeding is easily controlled with this suture, without distorting the anatomy of the urethra or sphincter. The pneumoperitoneum is returned to 15 mm Hg as soon as possible. Blood loss for this portion of the procedure is rarely more than 50 mL. Arteries are often present at the 11 and 1 oclock position, which can be coagulated with bipolar cautery if bleeding is excessive. In the rare instance when bleeding is excessive, the DVC can be oversewn in running fashion prior to removal of the specimen.

The bladder neck is reconstructed with a posterior tennis-racquet closure with a running 2- 0 polyglactin suture on a CT needle, as described for open RRP (figure 6). Care should be taken to visualize the ureteric orifices prior to reconstruction and to avoid their inclusion in the sutures. The bladder neck is narrowed to the caliber of an 18F catheter. Fat on the anterior surface of the prostate occasionally harbors lymph nodes, which when positive portend poor prognosis.

Using the technique of van Velthoven, two 3-0 Monocryl sutures on UR-6 needles of different colors are tied together and run cirumferentially around the urethro-vesical anastomosis. The exaggerated curve of the UR needle facilitates accurate placement of sutures in the reconstructed bladder neck. We do not advocate the use of posterior fascial reconstruction prior to the anastomosis because randomized evidence has demonstrated its inefficacy (J Urol 2008; 180:1018-23).

Shocked by the diagnosis, I started researching different types of prostate cancer treatments in the Internet. In the faraway Moscow I found your website, saw your photo and almost immediately, on the subconscious level made my choice only you, Dr. David Samadi, can save my life. My family and I never regret this decision.

Nel mese di ottobre 2008 mi stato dignosticato un tumore alla prostata. All’et di 43 anni non facile gestire una notizia di questo tipo, sia sul piano fisico che sul piano psicologico. Mi sono rivolto al dottor David Samadi e dal momento che sono entrato nel suo ufficio, subito ho capito, grazie alla sua positivita` sicurezza e professionalita`, che ero nelle mani giuste.

Recibir la noticia de cancer a la prostata fue un golpe duro y dificil de aceptar, porque de solo nombrar la palabra CANCER, se asocia con algo terminal, lo cierto es que si el cancer es detectado a tiempo y con un tratamiento adecuado las posibilidades de cura son muy alentadoras. Sin otra alternativa que la de aceptar mi realidad, decido buscar la mayor informacion posible al respecto.

Just over a year ago on December 22, 2008 I was diagnosed with prostate cancer. In the midst of receiving this traumatic news, I was forced to decide on treatment from a bewildering array of options, from watch and wait, to radiation, to high frequency ultrasound, to conventional surgery, to laparoscopic surgery. More than all that, the choice foreshadowed long waiting lines, crowded hospitals and…

2010, : PSA -4.9, – 6 (3+3). , . PSA , .( 5.22, 4.96, 5.76, 6.16 )

2010 -PSA -6.3 2010 – 7 (4+3).

We could not believe we could get an appointment with you so quickly. We liked your answer very much. No one touches my patients but me. At that moment, we knew we had found our surgeon. We have never regretted that decision for a single moment. You and your staff have a level of knowledge, experience and professionalism that is unparalleled.

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Washington Robotic Surgery for Prostate and Kidney Cancer

§ November 3rd, 2015 § Filed under Nano Medicine Comments Off on Washington Robotic Surgery for Prostate and Kidney Cancer


Dr. Bart Radolinski,Dr. Juan Litvak, and Dr. Mark Rosenblum are board-certified urologists specializing in robotic surgery. Along with Dr. Murray Lieberman,Dr. Niz Maruf, and Dr. Kathleen Sterling, they are part of Urological Consultants, and they are dedicated to providing quality, compassionate urology care to patients in Montgomery County, Maryland, and Washington, DC.

Washington Robotic Surgery was created to help inform patients with kidney and prostate cancer of their robotic surgical treatment options. Pleasecontact us with any questions you might have or to schedule an appointment.

Referred to by many as robotic surgery for prostate cancer or kidney cancer,da Vinci prostatectomy and da Vinci partial nephrectomy are more accurately described as robot-assisted, minimally invasive (laparoscopic) surgeries that are quickly becoming the preferred treatment for removal of prostate and kidney cancer following early diagnosis (more)

Since helping to establish the robotic surgery program atSuburban Hospital in 2008, Dr. Litvak and Dr. Radolinski have focused on developing a personalized, team-oriented approach to the care of their patients. (more)

For any questions, or to schedule an appointment with one of our robotic surgeons, please contact us at 301-530-1700. You can meet with us at either our Bethesda or Germantown locations in Maryland. A member of our staff will help guide you through the process of making your visit as rewarding as possible.

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IBM100 – Nanotechnology

§ October 31st, 2015 § Filed under Nano Medicine Comments Off on IBM100 – Nanotechnology

Can a tiny structure, 10,000 times thinner than a human hair, provide us with the answers to the worlds greatest challenges? Scientists at IBM think the answer is yes.

Nano comes from the Greek word for dwarf and broadly speaking, the field of nanotechnology can be defined as research and technology developments at the atomic or molecular level. Researchers in nanotechnology seek to understand and control some of the smallest objects known to humankind.

In terms of length, one nanometer is the equivalent of about four gold atoms or one millionth of a millimeter. Or to use an analogy, the diameter of an atom compares to the diameter of an orange as the orange compares to the Earth.

As the world becomes more instrumented, with billions of transistors embedded in everything from cars to appliances to livestock, nanotechnology will play an increasingly important role in the design of future computer chips that are smaller, smarter and more energy efficient.

To achieve these performance goals, sophisticated nanotechnology processes are needed to fabricate these increasingly small transistors. Just as cells are the basic building blocks for the human body, IBM envisions a world in which nanotechnology processes are the basic building blocks for transistors and microprocessors. IBM scientists are exploring the use of new materials, such as semiconducting nanowires, to improve the fundamental design of transistors, which is more than 50 years old.

IBM Research opened the door to the world of nanoscience in 1981 when Gerd Binnig and Heinrich Rohrer invented the scanning tunneling microscope, revolutionizing our ability to manipulate solid surfaces the size of atoms. [Read more about the Icon of Progress, Scanning Tunneling Microscope]. And since that time, IBM has achieved breakthrough upon breakthrough in the field.

In 1993, NEC researcher Sumio Iijima and IBM researcher Donald S. Bethune had independently discovered a unique new form of carbon called single-walled carbon nanotubes, which can behave like metals or semiconductors, can conduct electricity better than copper, can transmit heat better than diamond, and rank among the strongest materials known.*

Then in 1998, an individual carbon nanotube was made into a transistor by a groupwhich included Phaedon Avouris, who later joined IBMin Delft, Netherlands, and by a team at IBM. IBM continued the work and demonstrated that nanotubes could potentially scale up as building blocks for the future of electronics.

In 2001, this IBM team, led by Dr. Avouris, who had become manager of nanoscale science at IBM Research in Yorktown Heights, NY, devised the first transistors using arrays of carbon nanotubes. Nanotubes conduct electricity at rates that are approximately 70 times higher than silicon. Avouris team, which included Vincent Derycke, Richard Martel and Joerg Appenzeller, also succeeded in integrating the carbon nanotubes with existing chip-making technologies. Later that year, the IBM researchers announced they had built the worlds first circuit using an individual carbon nanotube that could perform a basic logic operation.

In 2002, IBM Research scientists proved that transistors based on carbon nanotubes could switch on and off faster and use less energy than current transistors etched into silicon chips. And most recently, IBM Research scientists in Zurich, Switzerland, have been able to capture an image of the anatomyor chemical structureinside a molecule with unprecedented resolution.

Though not an exact comparison, if you think about how a doctor uses an X-ray to image bones and organs inside the human body, we are using the atomic force microscope to image the atomic structures that are the backbones of individual molecules, said IBM researcher Gerhard Meyer. Scanning probe techniques offer amazing potential for prototyping complex functional structures and for tailoring and studying their electronic and chemical properties on the atomic scale.

Today, interest in carbon electronics has expanded to include transistors and circuits made with graphene, a single atom-thick layer of carbon atoms bonded in a hexagonal honeycomb-like arrangement. In 2010, Avouris team at IBM demonstrated the worlds fastest graphene transistor, capable of switching at a rate of 100 billion times a second, or 100 gigahertz. Most recently, this team produced the first graphene-integrated circuit, a radio-frequency mixer. (A mixer is used in radios and other communications equipment to switch a signal up or down to another frequency.) The same team applied graphene in optoelectronics and demonstrated the use of a single atomic layer of graphene to reliably detect optical data streams at rates of 10 gigabits per second. Graphene has many advantages because it can be used as a universalmeaning it has very wide wavelength rangephotodetector. Graphene also has an ultrafast response and is inexpensive.

The benefits of nanotechnology, however, extend beyond electronics. Nanoscale systems are already being tested by different companies to improve solar energy, water purification and desalination in the emerging markets, and to enable faster and more accurate healthcare diagnostic toolssuch as the IBM DNA Transistor [read more about this Icon of Progress]which offers a potential high-tech, low-cost method for reading the human genome sequence.

The most recent development in applying nanoscience to medicine is the development of a potential weapon against Methicillin-resistant Staphylococcus aureus (MRSA), an easily contracted form of Staph infection, which causes tens of thousands of hospital-stay deaths in the United States every year. When the Staph bacteria develops resistance to antibiotics, it can be deadly. IBM researchers have discovered a potential breakthrough method of treatment in which nanostructures are able to detect and destroy the antibiotic-resistant bacteria while leaving the healthy cells intact. Scientists used principles from semiconductor manufacturing and found that certain polymers can locate bacteria and break through the bacterial cell wall and membrane. When the membrane is destroyed, the cells are unable to mutate into antibiotic-resistant bacteria. The nanostructures, when finished fighting the bacteria, biodegrade in the body and are eliminated. While still experimental, using nanotechnology in this way could be a potential breakthrough in how to treat this disease.

With all of this potential, its no surprise that nanotechnology is attracting increasing attention from all over the world, and governments from the United States to Switzerland to Jordan to China are all investing in the science. IBM extended its commitment to the future of nanotechnology research and innovations in May 2011 with the opening of the Binnig and Rohrer Nanotechnology Center on the IBM Research campus in Zurich. The Center is a unique collaboration with ETH Zurich, a premier European science and engineering university.

* Citation to Sumio Iijima and Donald S. Bethune, James C. McGroddy Prize for New Materials, American Physical Society, March 2002

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Dr. Jon Dounchis, M.D. – Robotic Knees

§ October 23rd, 2015 § Filed under Nano Medicine Comments Off on Dr. Jon Dounchis, M.D. – Robotic Knees

Robotic Knee Partial Replacement

Robotic and computer-assisted technology assists the surgeon to resurface only the damaged portion of the knee.

This: preserves the normal ligaments and unaffected cartilage surfaces (resulting in a more natural feeling knee),

is more conservative than total knee arthroplasty,

and is often outpatient surgery with a short recovery period.


A CT-scan is taken of the knee to create a detailed 3-D model.

The position of the resurfacing components is idealized on the computer.

The surgeon then uses the robotic arm to precisely prepare and place the components.

Robotic Hip Total Replacement

Robotic and computer-assisted technology assists the surgeon to precisely prepare and place the hip replacement components (ball, socket, stem).

This: maximizes the stability of the hip (reduced dislocation rates),

improves the wearing of the components (akin to having a well-aligned car tire),

and facilitates correct leg-length.


A CT-scan is taken of the hip to create a detailed 3-D model.

The position of the components (ball, socket, stem) is idealized on the computer.

The surgeon then uses the robotic arm to precisely prepare and place the components.

Jon Dounchis, M.D. 2010 All rights reserved.

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Nanomedicine – Wikiversity

§ October 21st, 2015 § Filed under Nano Medicine Comments Off on Nanomedicine – Wikiversity


Nanomedicine is the medical application of nanotechnology. It covers areas such as nanoparticle drug delivery and possible future applications of molecular nanotechnology (MNT) and nanovaccinology. The most important innovations are taking place in drug delivery which involves developing nanoscale particles or molecules to improve bioavailability. In vivo imaging is another area where tools and devices are being developed. Using nanoparticle contrast agents, images such as ultrasound and MRI have a favorable distribution and improved contrast. The new therapies and surgeries that are being developed might be effective in treating illnesses and diseases such as cancer.

Nanopharmocology is the use of nanotechnology for pharmacology applications such as: the formation of novel nanoscopic entities [1], exploring and matching specific compounds to particular patients for maximum effectiveness; and advanced pharmaceutical delivery systems and discovery of new pharmacological molecular entities; selection of pharmaceuticals for specific individuals to maximize effectiveness and minimize side effects (2), and delivery of pharmaceuticals to targeted locations or tissues within the body. Nanoparticles can render targeted and sustained delivery of biological compounds to specific tissues with a minimum of systemic side effects.

Nanoparticles have unusual properties that can be used to improve drug delivery. Whereas larger particles would have been cleared from the body, cells take up these nanoparticles because of their size. The particulates from drug delivery systems lower the volume of distribution and reduce the effect on non-target tissue. Development of completely new drugs with more useful behavior and less side effects.

Nanocapsule, means sandy nanoparticle that consists of a shell and a space, in which desired substances may be placed. Drug-filled nanocapsules can be covered with antibodies or cell-surface receptors that bind to cancer or various cells and release their biological compound on contact with that tissue. Nanocapsules have been made using molecules called phospholipids, which are hydrophobic (water-repellant) on one end and hydrophilic (water-loving) on the other. When such molecules are placed in an aqueous environment, they can spontaneously form capsules in which the hydrophobic portions are inside (3), protecting them from contact with water.The walls of our cells are in fact made up of a double layer of such molecules. Inside the cells, similar capsules, called liposomes (literally, fat bodies), are used to transport material.

Nanotechnology chips with biosensors can find genes, guide drug discovery, monitor body functioning, and identify biologic and chemical pathogens. As nanotechnology and genetics advance, medibots and engineered beneficial microorganisms may be integrated into nanomedibots. Nanomedibots will be used to diagnosis and treat healing conditions that resist diagnosis and curing by current biomedical research. Medibots are robots or robotic systems that provide physicians with greater flexibility, precision of motion, and/or remote procedure capability in the diagnosis or treatment of medical conditions. Concerning macro-scale medibots (4), improvements in the conveyance of visual and directional information with sophisticated consoles and remote-controlled hardware are already enabling surgeons to conduct an increasing array of surgical procedures in a minimally invasive manner.

1. Nanoparticles of cadmium selenide (quantum dots) glow when exposed to ultraviolet light. When injected, they seep into cancer tumors. The surgeon can see the glowing tumor, and use it as a guide for more accurate tumor removal. 2. Sensor test chips containing thousands of nanowires, able to detect proteins and other biomarkers left behind by cancer cells, could enable the detection and diagnosis of cancer in the early stages from a few drops of a patient’s blood. [5] 3. Researchers at Rice University have demonstrated the use of 120nm diameter nanoshells coated with gold to kill cancer tumors in mice. The nanoshells can be targeted to bond to cancerous cells by conjugating antibodies or peptides to the nanoshell surface. By irradiating the area of the tumor with an infrared laser, which passes through flesh without heating it, the gold is heated sufficiently to cause death to the cancer cells [6]. 4. Dendrimer molecule has over a hundred hooks on it that allow it to attach to cells in the body for a variety of purposes. These molecules have also shown potential for targeted chemotherapy against tumor cells.

At Rice University, a flesh welder is used to fuse two pieces of chicken meat into a single piece. The two pieces of chicken are placed together touching. A greenish liquid containing gold-coated nanoshells is dribbled along the seam. An infrared laser is traced along the seam, causing the two sides to weld together. This could solve the difficulties and blood leaks caused when the surgeon tries to restitch the arteries he/she has cut during a kidney or heart transplant. The flesh welder could meld the artery into a perfect seal.

Arthrobotics is the application of robotic technology to help orthopedic surgeons in the healing, repair, and replacement of joint-related conditions. Current applications of arthrobotics involve arthroscopic automation and place enhancements, such as automated motion of the arthroscope, position sensors to guide it, and force sensors for tissue proximity control. Future arthrobotic usages might incorporate complete joint replacement with bionic bionics and neuro-computer interfaces for limb control from neural impulses in the brain.

Nanodevices could be observed at work inside the body using MRI, using mostly 13C atoms rather than the natural 12C isotope of carbon, since 13C has a nonzero nuclear magnetic moment. Medical nanodevices would first be injected into a human body, and would then go to work in a specific organ or tissue mass. The doctor will monitor the progress, and make certain that the nanodevices have gotten to the correct target treatment region. The doctor can actually see the nanodevices congregate around their target (a tumor mass, etc.). Tracking movement can help determine how well drugs are being distributed or how substances are metabolized.

There are somewhat speculative claims that using nanorobots [7] [8] in medicine, would totally change the world of medicine once it is realized. Nanomedicine [9] [10] would make use of these nanorobots, introduced into the body, to repair or detect damages and infections. According to Robert Freitas of the Institute for Molecular Manufacturing, a typical blood borne medical nanorobot would be between 0.5-3 micrometres in size, because that is the maximum size possible due to capillary passage requirement. Carbon would be the primary element used to build these nanorobots due to the inherent strength and other characteristics of some forms of carbon (diamond/fullerene composites), and nanorobots would be fabricated in desktop nanofactories [11] specialized for this purpose. Nanorobots could counter the problem of identifying and isolating cancer cells as they could be introduced into the bloodstream. These nanorobots would search out cancer affected cells using certain molecular markers. Medical nanorobots would then destroy these cells, and only these cells. Nanomedicines could be a very helpful and hopeful therapy for patients, since current treatments like radiation therapy and chemotherapy often end up destroying more healthy cells than cancerous ones. Nanorobots could also be useful in precision tissue- and cell-targeted drug delivery [12] [13], in performing nanosurgery [14], and in treatments for hypoxemia and respiratory illness[15] [16], dentistry [17] [18], bacteremic infections[19], physical trauma [20], gene therapy via chromosome replacement therapy [21] [22], and even biological aging [23].

Some possible applications using nanorobots are as follows: To cure skin diseases, a cream containing nanorobots may be used. A mouthwash full of smart nanomachines could identify and destroy pathogenic bacteria while allowing normal commensals to grow. Medical nanodevices could augment the immune system by finding and disabling unwanted bacteria and viruses just like leucocyte. Devices working in the bloodstream could nibble away at arteriosclerosis deposits, widening the affected blood vessels. Cell herding devices could restore artery walls and artery linings to prevent most heart attacks.

Neuro-electronic interfaces are a visionary goal dealing with the construction of nanodevices that will permit computers to be joined and linked to the nervous system. This idea requires the building of a molecular structure that will permit control and detection of nerve impulses by an external computer. The computers will be able to interpret, register, and respond to signals the body gives off when it feels sensations. The demand for such structures is huge because many diseases involve the decay of the nervous system (ALS and multiple sclerosis). Also, many injuries and accidents may impair the nervous system resulting in dysfunctional systems and paraplegia. If computers could control the nervous system through neuro-electronic interface, problems that impair the system could be controlled so that effects of diseases and injuries could be overcome. PROSPECTS: Treatment of paraplegia, hemiplegia and spondylosis following accidental injuries, vascular and due to other causes.

Using drugs and surgery, doctors can only encourage tissues to repair themselves. With molecular machines, there will be more direct repairs. The possibilities of these cell repair machines are impressive. Comparable to the size of viruses or bacteria, their compact parts will allow them to be more complex. As they open and close cell membranes or travel through tissue and enter cells and viruses, machines will only be able to correct a single molecular disorder like DNA damage or enzyme deficiency. Nanocomputers will be needed to guide these machines. These computers will direct machines to examine, take apart, and rebuild damaged molecular structures.

An example of the state of the nanobiotechnological art is Tejal Desai’s(Boston University) artificial pancreas. Dr. Desai has encased her mouse pancreatic cells in a membrane studded with “nanopores” a mere seven nanometres across. As glucose from the blood washes in through the nanopores (25), the enclosed islet cells respond by releasing insulin. At 7 nanometres, the pores are big enough to allow the passage of glucose and insulin,but antibodies, which are significantly larger, cannot squeeze through, and so cannot damage the islet cells.

Artificial muscles have been made from millions of carbon nanotubes. Like natural muscles, providing an electrical charge causes the individual fibres to expand and the whole structure to move (26). An artificial muscle with strength and speed equal to that of a human muscle may soon be possible. A new wave of technology and medicine is being created and its impact on the world is going to be monumental. From the possible applications such as drug delivery and in vivo imaging to the potential machines of the future, advancements in nanomedicine are being made every day.

Novel photon correlation spectroscopy and fluorescence-based techniques allow the visualization of single biomolecules such as specific proteins, enzymes, hormones, nucleic acids, and so on, in living cells and tissues.[2]

J Nanosci Nanotechnol. 2006 Sep-Oct;6(9-10):2769-75.

Nanoscience and NanotechnologyVol.6,2769-2775 2006 14.International Journal of Surgery (2005) – , – e 15Freitas RA.Exploratory design in medical nanotechnology: a mechanical artificial red cell. Artif Cells Blood Substit Immobil Biotechnol. 1998 Jul;26(4):411-30. PMID: 9663339 [PubMed – indexed for MEDLINE] 16. 17 Nanodentistry.Freitas RA.Zyvex Corp., Richardson, Texas 75081, USA J Am Dent Assoc. 2000 Nov;131(11):1559-65. 18 Robert A. Freitas Jr., Nanodentistry, J. Amer. Dent. Assoc. 131(November 2000):1559-1566. (Cover story) 19 Robert A. Freitas Jr., Journal of Evolution and Technology – Vol. 14 – April 2005 20 IMM Report Number 18: Nanomedicine In conjunction with Foresight Update 41 Clottocytes: Artificial Mechanical Platelets ByRobertA.Freitas Jr. Research Scientist, Zyvex LLC 21 The future of nanofabrication and molecular scale devices in nanomedicine.Freitas RA. Zyvex Corp, Richardson, Texas, USA Stud Health Technol Inform. 2002;80:45-59 22 The Future of Nanofabrication and Molecular Scale Devices in Nanomedicine Robert A. Freitas Jr.,Research Scientist, Zyvex Corp.published July 2002 23 Death Is An Outrage Robert A. Freitas Jr. Lecture delivered by the author at the Fifth Alcor Conference on Extreme Life Extension, 16 November 2002, Newport Beach, CA, 24. Robert F. Jr. Nanotechnology Magazine 2 (1996) 8. Robert F. Jr. Artificial Cells 26 (1998) 411. 25. 26.

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UNSW Handbook Program – Nanotechnology – 3617

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Faculty:Faculty of Science


Campus:Kensington Campus


Typical Duration:4 Years

Typical UOC Per Semester:24

Min UOC Per Semester:3

Max UOC Per Semester:27

Min UOC For Award:192

UAC Code:429011


International Entry Requirements:See International Entry Requirements


Bachelor of Science (Major)

Information valid for students commencing 2013. Students who commenced prior to 2013 should go to the Handbook’s Previous Editions

The Bachelor of Science (Nanotechnology) at UNSW is a multidisciplinary degree taught by the three Schools of Chemistry, Physics and Materials Science and Engineering. The degree is administered by the School of Chemistry, but all schools have a strong input and courses are also hosted by the School of Biotechnology and Biomolecular Sciences.

No other degree program at UNSW provides the breadth of study in science disciplines that students studying B. Sc. (Nanotechnology) receive. The award of B. Sc. (Nanotechnology) with Honours is made on successful completion of a specialist Nanotechnology research project in the final year of the program. Class sizes are typically 10-35, permitting considerable interaction between academics, researchers and students. This fosters close links between nanotechnology students and research schools. As of 2011, UNSW had graduated over 100 nanotechnologists, of whom four had received University medals.

Students entering B. Sc. (Nanotechnology) at UNSW should have a good high school education in physics, chemistry and mathematics. Organisations employ nanotechnology graduates because of their broad training, capacity to think critically and laterally, and their problem solving abilities. The National Nanotechnology Initiative ( predicts that 2 million nanotechnology workers will be needed by 2015, across a broad spectrum of industries.

Close links have been developed between the degree course and the following research centres:

– Australian Centre for Nanomedicine – Centre of Excellence for Quantum Computation and Communication Technology – Australian National Fabrication Facility (ANFF) – ARC Photovoltaics Centre of Excellence – Mark Wainwright Analytical Centre

On completion of this program, students will have attained a comprehensive knowledge base in the field of nanotechnology.

Stage 1 (common for all students in the program)

Semester 1

Semester 2

Students then choose either a Nanodevices or Nanomaterials major, and follow the sequence of study outlined for the chosen major below:

Stage 2 (Nanodevices)

Semester 1

Semester 2

Stage 3 (Nanodevices)

Semester 1

Semester 2

Semester 1

Semester 2

Stage 4 (Nanodevices)

Nanomaterials Major Stage 2 (Nanomaterials)

Semester 1

Semester 2

Stage 3 (Nanomaterials)

Semester 1

Semester 2

Semester 1

Semester 2

Stage 4 (Nanomaterials)

Students in this program must satisfy the University’s General Education requirements. For further information, please refer to General Education in the Table of Contents (see left-hand side of this page).

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Robotic Surgery | University of Michigan Health System

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At the University of Michigan, we strive to use exciting, new technology that improves our patients’ outcomes and maintains their quality of life. Robotic surgery is one option that our surgeons excel in and continue to be at the forefront.

In 2001, The University of Michigan was among the first centers in the U.S. to utilize robotic technology for gynecological surgery. Currently we are one of a few surgery programs in the country with a dedicated robotic simulation center to train residents and physicians, plus develop new techniques for robotic surgery.

Conditions we treat and procedures we perform that may be appropriate for robotic surgery include:

Robotic surgery uses slender telescope-like instruments. The surgeon controls the robot from a console near the patient, where the operating field can be viewed in three dimensions. The robot acts as an extension of the surgeon’s hands, but with enhanced precision and dexterity, allowing more precise and accurate movements. As a result, complex surgeries can be performed through small incisions, with less blood loss and a quicker recovery.

We utilize the da Vinci Si Surgical System, which offers enhanced 3-D, high-definition vision with up to 10x magnification, which allows our surgeons to operate in small spaces more accurately. Your safety is increased by precise dissection and preservation of crucial nerves and vessels.

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What is nanomedicine |

§ October 14th, 2015 § Filed under Nano Medicine Comments Off on What is nanomedicine |

Nanomedicine is a subfield of nanotechnology. It is often defined as the repair, construction and control of human biological systems using devices built upon nanotechnology standards. Basically, nanomedicine is the medical application of nanotechnology. Nanostructured materials, engineered enzymes and many other products of biotechnology will be very useful in the future. Of course, the full potential of nanomedicine is unlikely to arrive until after complex, high-sofisticated, medically programmable nanomachines and nanorobots are developed. When that happens, every medical doctors dream will become reality. Having robots fabricated to nanometer precision (1 nanometer = 1 bilionth of a meter) will allow medical doctors to approach the human body at the cellular and molecular levels. Interventions such as repairing damaged tissues (bone, muscle, nerve) will be possible.

We all know that the mankind is still fighting against many complex illnesses like cancer, multiple sclerosis, cardiovascular diseases, Alzheimers and Parkinsons diseases, diabetes as well as some inflammatory or infectious diseases (i.e. HIV). Nanotechnology raises hopes and expectations for millions of patients that suffer from those diseases. For example, it is expected that doctors will be able to destroy the very first cancer cells and so stop the disease from growing.

Nanomedicine is a huge industry. Sales reached 6.8 billion dollars in 2004. Significant amounts of money are being invested in research USA and European Union are investing billions of dollars and plan to invest more in the future.

NIH established eight nanomedicine development centers which are staffed by multidisciplinary research teams including biologists, physicians, mathematicians, engineers and computer scientists. The intial phase of their program is directed towards gathering extensive information about the properties of nanoscale biological elements. This is very important and will help scientists to correct defects in unhealthy cells. The second phase has been approved recently and is directed towards applying the knowledge from the first phase in treating diseases.

European Technology Platform is a platforum formed by 53 European stakeholders. Their first task the group had was to write a vision document on nanotechnology in which experts describe the extrapolation of needs until 2020.

There are three key priorities in the future: nanotechnology-based diagnostics and imaging, targeted drug delivery and release and regenerative medicine.

According to the journal Nature Materials, there are over 130 nanotech-based drugs and delivery systems developed worldwide. Nanomedicine industry is expected continue to grow and have a significant impact on the economy.

What is nanomedicine |

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Robotic Total Hip Replacement | MAKOplasty Hip Surgery …

§ October 12th, 2015 § Filed under Nano Medicine Comments Off on Robotic Total Hip Replacement | MAKOplasty Hip Surgery …

Robotic Total Hip Replacement

MAKOplasty Hip Total Hip Arthroplasty

MAKOplasty Hip is an innovative total hip replacement (arthroplasty) procedure that is performed using a highly advanced, surgeon-controlled robotic arm system. It can be a treatment option for people suffering with either non-inflammatory or inflammatory degenerative joint disease, and is designed to assist surgeons in attaining a new level of reproducible surgical precision in hip surgery.

The hip is a ball-and-socket joint consisting of the spherical head of the femur, or thighbone, which moves inside a cup-shaped hollow socket in the pelvis called the acetabulum. When cartilage in the hip wears down, bare bone is exposed. When bone-on-bone contact occurs within the joint it causes pain that can be felt in the groin, outside the hip, at the base of the spine, or radiating from the thigh to the knee. Hip implants reconstruct a bearing surface to replace lost cartilage and prevent painful bone-on-bone wear. Total hip replacement consists of removing diseased bone in the acetabulum, which is fit with a cup and liner, and replacing the femoral head with new head and stem components. Prior to the use of robotics this was done both free-hand (by eye) and by feel.

The goal of using robotic arm technology to perform hip replacement is to attain consistent precision in surgery. Accurate placement and alignment of implant components are a critical factor in hip replacement. The use of robotics helps me place the implants in the desired location with incredible accuracy, providing an excellent, stable biomechanical reconstruction and unprecedented leg length restoration. It is performed with the RIO Robotic Arm Interactive Orthopedic System. RIO enables me to use a 3-D anatomic reconstruction based on a CT scan of the patients own hip to pre-surgically plan implant positioning. During the procedure, it provides real-time data for intra-operative adjustments to further enable me to optimally align and position implants, and accurately reproduce the surgical plan.

I perform all robotic hip replacements via a muscle-sparing approach, i.e. no muscles are cut in exposure or preparation of the hip joint. The operation is performed by initially preparing the femur (thigh bone). Exact femoral bone resection never before possible is performed with the use of robotics. I then remove just the amount of bone required for the tight placement of the implant in the bone. The femoral components position is measured by RIO, and can be adjusted at this time. The actual femoral component is then implanted into the bone after robotic measurements obtained. Next, I use the robotic arm to accurately ream and shape the acetabulum to prepare it for cup placement. The RIO enables accuracy in controlling the depth of bone removal and determining the hips center of rotation which aides in implant positioning and alignment.

When the bone preparation is complete, I then use the robotic arm to aid in implantation of the cup(socket), and the plastic liner is locked into the metal cup. The femoral ball size is determined and attached to the stem to reconstruct leg length and soft tissue tension with the aid of robotic interaction. The robot ensures that I am able to both plan and place the components with enhanced accuracy and precision, while providing real time information in surgery. This allows adjustments, even minute, to be made prior to the culmination of the procedure, thus reducing the risk of subsequent complications/reoperations.

As a total hip arthroplasty procedure, MAKOplasty is typically covered by Medicare.

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RI Prostate Cancer Robotic Surgery at The Miriam Hospital

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Thanks to the latest evolution in surgical technology, physicians now have an effective alternative to traditional open surgery and laparoscopy that allows them to provide patients with the best of both approaches.;

This alternative is the da Vinci Surgical System and The Miriam Hospital is now using this technology to treat prostate cancer.

Nearly one out of every six American men will develop prostate cancer. With greater awareness, prostate cancer detection is on the rise and mortality is declining. Moreover, better treatments are allowing more men to return to active and productive lives after treatment.

To remove the cancerous tumor-a procedure known as a prostatectomy-surgeons at The Miriam Hospital now have the option of using a robotic assisted, minimally invasive surgery that may be more precise, less painful and reduces blood loss.

For more information, please call 401-793-2500.

The genitourinary multidisciplinary clinic, a program of the Comprehensive Cancer Centers at Rhode Island and The Miriam hospitals, is the only one of its kind in the state: entirely dedicated to the care of patients with urologic malignancies.

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Sports Medicine Research Laboratory – The Department of …

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Sports Medicine Research Laboratory William Earnhardt 2012-04-13T03:23:32+00:00

Musculoskeletal disease is the most common, costly and debilitating form of injury / illness. Over 135 million people (>46% of US population) annually report musculoskeletal disease as a primary health concern. Of these individuals, over 61 million seek medical treatment each year due to musculoskeletal injury. As a result, over $950 billion dollars (>7% of US gross national product) are spent each year on total costs associated with musculoskeletal disease.

The negative consequences of musculoskeletal injury go far beyond the initial trauma and may have life threatening consequences as 31% of men and 24% percent of women permanently stop exercise after suffering musculoskeletal injury. Many chronic diseases, such as cardiovascular disease, diabetes, cancer, neurocognitive decline, and arthritis are linked to a lack of exercise / physical activity. Thus, the negative consequences of musculoskeletal injury and disease are devastating.

To address this public health problem, the Neuromuscular (NMRL) and Sports Medicine (SMRL) Research Laboratories are focused on identifying mechanisms, risk factors and preventive solutions for musculoskeletal injury, with an emphasis on ankle, knee, and shoulder joint injuries. Located in Fetzer Hall, the NMRL and SMRL combine to form over 4,200 ft2 of research space that is fully equipped to quantify all aspects of human movement, including optical and electromagnetic motion capture systems interfaced with force plates and EMG amplifiers. These facilities also include multiple diagnostic ultrasound devices and isokinetic dynamometers for real-time assessment of muscle mechanics and stimulators for eliciting both peripheral and central neuromuscular responses. Other equipment items include accelerometers, load cells, electrogoniometers, and hand-held dynamometers. These facilities also include office space equipped with multiple computers for use by graduate students and faculty.

In addition to conducting research in the areas of musculoskeletal disease and injury the NMRL and SMRL faculty have the ability to provide a variety of services that are beneficial to the community, including non-surgical management of musculoskeletal disease and injury, orthopaedic rehabilitation, prevention of musculoskeletal injury and disease, and performance enhancement.

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CLINAM – The Foundation

§ October 5th, 2015 § Filed under Nano Medicine Comments Off on CLINAM – The Foundation

CLINAM 9 / 2016 Conference and Exhibition

European & Global Summit for Cutting-Edge Medicine

June 26 29, 2016

Clinical Nanomedicine and Targeted Medicine –

Enabling Technologies for Personalized Medicine

Scientific Committee: Chairman Prof. Dr. med. Patrick Hunziker, University Hospital Basel (CH). MEMBERS Prof. Dr. Yechezkel Barenholz, Hebrew University, Hadassah Medical School, Jerusalem (IL). Dr. med. h.c. Beat Ler, MA, European Foundation for Clinical Nanomedicine, Basel (CH) Prof. Dr. Gert Storm, Institute for Pharmaceutical Sciences, Utrecht University, (NL) Prof. Dr. Marisa Papaluca Amati, European Medicines Agency, London (UK). Prof. Dr. med. Christoph Alexiou, University Hospital Erlangen (D) Prof. Dr. Gerd Binnig, Nobel Laureate, Munich (DE) Prof. Dr. Viola Vogel, Laboratory for Biologically Oriented Materials, ETH, Zrich (CH). Prof. Dr. Jan Mollenhauer, Lundbeckfonden Center of Excellence NanoCAN, University of Southern Denmark, Odense (DK). Prof. Dr. med. Omid Farokhzad, Associate Professor and Director of Laboratory of Nanomedicine and Biomaterials, Harvard Medical School and Brigham and Women’s Hospital; Founder of BIND Therapeutics, Biosciences and Blend Therapeutics, Cambridge, Boston (USA) Prof. Dr. Dong Soo Lee, M.D. Ph. Chairman Department of Nuclear Medicine Seoul National University Seoul, Korea (invited) Prof. Dr.Lajos Balogh, Editorin in Chief, Nanomedicine, Nanotechnologyin, Biology and Medicine, Elsevier&nbsp and Member&nbsp of theExecutive Board, American Society for Nanomedicine in, Boston(USA) and other members.

Conference Venue: Congress Center, Messeplatz 21, 4058 Basel, Switzerland, Phone + 41 58 206 28 28, This email address is being protected from spambots. You need JavaScript enabled to view it. Organizers office: CLINAM-Foundation, Alemannengasse 12, P.B. 4016 Basel Phone +41 61 695 93 95, This email address is being protected from spambots. You need JavaScript enabled to view it.

In the previous eight years, the CLINAM Summit grew to the largest in its field with 12 presenting Noble Laureates and more than 500 participants from academia, industry, regulatory authorities and policy from over 40 different countries in Europe and worldwide. With this success and broad support by well beyond 20 renowned collaborating initiatives, the CLINAM-Summit is today one of the most important marketplaces for scientific exchange and discussions of regulatory, political and ethical aspects in this field of cutting edge medicine.

In particular, the CLINAM Summit emerged as exquisite forum for translation from bench to bedside, for European and international networking, and for industrial collaboration between companies, with academia, and point-of-contact with customers. The summit is presently the only place to meet the regulatory authorities from all continents to debate the needs of all stakeholders in the field with the legislators.

CLINAM 9/2016continues with its successful tradition to cover the manifold interdisciplinary fields of Clinical and Targeted Nanomedicine in major and neglected diseases. As special focus area, CLINAM 09/2016 adds translation and enabling technologies, including, for example, cutting-edge molecular profiling, nano-scale analytics, single cell analysis, stem cell technologies, tissue engineering, in and ex vivo systems as well as in vitro substitute systems for efficacy and toxicity testing.

CLINAM 09/2016covers the entire interdisciplinary spectrum of Nanomedicine and Targeted Medicine from new materials with potential medical applications and enabling technologies over diagnostic and therapeutic translation to clinical applications in infectious, inflammatory and neurodegenerative diseases, as well as diabetes, cancer and regenerative medicine to societal implications, strategical issues, and regulatory affairs. The conference is sub-divided into four different tracks running in parallel and provides ample possibilities for exhibitors as indicated by steadily increasing requests:

Track 1: Clinical and Targeted Nanomedicine Basic Research Disease Mechanisms and Personalized Medicine Regenerative Medicine Novel Therapeutic and Diagnostic Approaches Active and Passive Targeting Targeted Delivery (antibodies, affibodies, aptamers, nano drug delivery devices) Accurin Technology Nano-Toxicology Track 2: Clinical and Targeted Nanomedicine: Translation Unsolved Medical Problems Personalized Medicine and Theranostic Approaches Regenerative Medicine Advanced Breaking and Ongoing Clinical Trials Applied Nanomedical Diagnostics and Therapeutics Track 3: Enabling Technologies Nanomaterial Analytics and Testing Molecular Profiling for Research and Efficacy/Toxicology Testing (Genomics, Proteomics, Glycomics, Lipidomics, Metabolomics) Functional Testing Assays and Platforms Single Cell Analyses Cell Tracking Stem Cell Biology and Engineering Technologies Microfluidics Tissue Engineering Tissues-on-a-Chip Bioprinting In vivo Testing Novel Imaging Approaches Medical Devices Track 4: Regulatory, Societal Affairs and Networking Regulatory Issues in Nanomedicine Strategy and Policy The Patients` Perspective Ethical Issues in Nanomedicine University Village Cutting-Edge EU-Project Presentations Networking for International Consortium Formation

For CLINAM 9 / 16 Last Summit the number of exhibitors increased without investment of acquisition.As from the 9th Summit the CLINAM-Foundation has stepped in to a Partnership with The Congress Center Basel which will invest in a proactive acquisition and management for large foyer exhibition. Based on last years exhibition it is expected to have about 50 Exhibitors at thenext Summit. Exhibitors can profit of the possibility to meet their target visitors on one single spot in Basel at CLINAM 9 / 2016. With this new concept for the exhibition, the international CLINAM-summit becomes also the place for the pulse of the market and early sales in the field of cutting-edge medicine.

The exhibitors are invited to participate in the below in the nomenclature described fields. The list is topic to extensions so that by proposals from exhibitors it will constantly be updated. Strong focus of the exhibition relates to the topics of the conference in which Nanomedicine and Targeted Medicine – presently the most important building blocks in novel Medicine – are debated. The organizers look forward to the interest of the exhibitors to at a moderate investment take the opportunity to meet the community of Nanomedicine, Targeted Medicine and those investing into cutting edge Medicine tools and applications.

The CLINAM- Summit has every year 150 presentations. Many young mist skilled young researchers, young starting entrepreneurs, Engineers and scientists apply for posters and oral presentations. CLINAM offers a first Deadline for those, submitting their work before February 15, 2016 a discount of 20% on the registration fees for Submitters (610.00 ; for students 430.00 ) . The second Deadline after that is April 25, 2016

The Exhibitors at CLINAM 8/2015

The European Foundation for Clinical Nanomedicine is a non-profit institution aiming at advancing medicine to the benefit of individuals and society through the application of nanoscience. Aiming at prevention, diagnosis, and therapy through nanomedicine as well as at exploration of its implications, the Foundation reaches its goals through support of clinically focussed research and of interaction and information flow between clinicians, researchers, the public, and other stakeholders. The recognition of the large future impact of nanoscience on medicine and the observed rapid advance of medical applications of nanoscience have been the main reasons for the creation of the Foundation.

Nanotechnology is generally considered as the key technology of the 21st century. It is an interdisciplinary scientific field focusing on methods, materials, and tools on the nanometer scale, i.e. one millionth of a millimeter. The application of this science to medicine seeks to benefit patients by providing prevention, early diagnosis, and effective treatment for prevalent, for disabling, and for currently incurable medical conditions.

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Sports Medicine | Orthopaedic Surgery and Rehabilitation

§ October 3rd, 2015 § Filed under Nano Medicine Comments Off on Sports Medicine | Orthopaedic Surgery and Rehabilitation

Vanderbilt Sports Medicine leads the orthopaedic community in cutting edge research both locally and nationally. Our physicians have been published in medical journals and have presented at both state and national level conferences. It is our mission to improve the lives of others through science, education and clinical skill. To be the best, we continously are working on creating better surgical techniques, and rehabilitation through our research.

Vanderbilts Sports Medicine Department is fortunate to be the coordinating center for three very large research endeavors that are interested in measuring the short and long-term prognosis of both knee and shoulder injuries using patient-oriented outcome tools.

Kurt P. Spindler, MDAdjoint Professor of Orthopaedic Surgery and Rehabilitation

Charlie L. Cox, MD, MPH Assistant Professor of Orthopaedic Surgery and Rehabilitation Vanderbilt Sports Medicine

Alex B. Diamond, DO, MPHAssistant Professor of Orthopaedic Surgery and Rehabilitation Assistant Professor of Pediatrics Vanderbilt Sports Medicine

Andrew J.M. Gregory, MD, FAAP, FACSM Assistant Professor of Orthopaedic Surgery and Rehabilitation Assistant Professor of Pediatrics

John E. Kuhn, MD Associate Professor of Orthopaedic Surgery and Rehabilitation Chief of Shoulder Surgery Vanderbilt Sports Medicine

Laura Huston Withrow, MS Associate Director, Sports Medicine Research Department of Orthopaedic Surgery and Rehabilitation

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Journal of Sports Science and Medicine

§ October 3rd, 2015 § Filed under Nano Medicine Comments Off on Journal of Sports Science and Medicine

Current Issue September 2015 – Volume 14, Issue 3 Table of Contents

Research article

477 – 483

Students Perceptions of Motivational Climate and Enjoyment in Finnish Physical Education: A Latent Profile Analysis

Timo Jaakkola, C. K. John Wang, Markus Soini, Jarmo Liukkonen

Research article

484 – 493

Lower Extremity Muscle Activation and Kinematics of Catchers When Throwing Using Various Squatting and Throwing Postures

Yi-Chien Peng, Kuo-Cheng Lo, Lin-Hwa Wang

Research article

494 – 500

Game and Training Load Differences in Elite Junior Australian Football

Brendan Henderson, Jill Cook, Dawson J. Kidgell, Paul B. Gastin

Research article

501 – 506

Reactive Agility Performance in Handball; Development and Evaluation of a Sport-Specific Measurement Protocol

Miodrag Spasic, Ante Krolo, Natasa Zenic, Anne Delextrat, Damir Sekulic

Research article

507 – 514

Tri-Axial Accelerometer-Determined Daily Physical Activity and Sedentary Behavior of Suburban Community-Dwelling Older Japanese Adults

Tao Chen, Kenji Narazaki, Takanori Honda, Sanmei Chen, Yuki Haeuchi, Yu Y Nofuji, Eri Matsuo, Shuzo Kumagai

Research article

515 – 521

Examination of the Effectiveness of Predictors for Musculoskeletal Injuries in Female Soldiers

Einat Kodesh, Eyal Shargal, Rotem Kislev-Cohen, Shany Funk, Lev Dorfman, Gil Samuelly, Jay R. Hoffman, Nurit Sharvit

Research article

522 – 529

Multiple Off-Ice Performance Variables Predict On-Ice Skating Performance in Male and Female Division III Ice Hockey Players

Jeffrey M. Janot, Nicholas M. Beltz, Lance D. Dalleck

Research article

530 – 535

A New Qualitative Typology to Classify Treading Water Movement Patterns

Christophe Schnitzler, Chris Button, James L. Croft, Ludovic Seifert

Review article

536 – 547

Criterion-Related Validity of the 20-M Shuttle Run Test for Estimating Cardiorespiratory Fitness: A Meta-Analysis

Daniel Mayorga-Vega, Pablo Aguilar-Soto, Jess Viciana

Research article

548 – 555

Effects of Nitric Oxide Synthase Inhibition on Fiber-Type Composition, Mitochondrial Biogenesis, and SIRT1 Expression in Rat Skeletal Muscle

Masataka Suwa, Hiroshi Nakano, Zsolt Radak, Shuzo Kumagai

Research article

556 – 561

An Acute Lateral Ankle Sprain Significantly Decreases Physical Activity across the Lifespan

Tricia Hubbard-Turner, Erik A. Wikstrom, Sophie Guderian, Michael J. Turner

Research article

562 – 567

Characterisation of the Mechanical Loads and Metabolic Intensity of the CAPO Kids Exercise Intervention for Healthy Primary School Children

Rossana C. Nogueira, Benjamin K. Weeks, Belinda R. Beck

Research article

568 – 573

Adolescent Self-Reported Physical Activity and Autonomy: A Case for Constrained and Structured Environments?

Jerome N. Rachele, Timo Jaakkola, Tracy L. Washington, Thomas F. Cuddihy, Steven M. McPhail

Research article

574 – 583

Effects of Acute Aerobic Exercise on Executive Function in Older Women

Roseann Peiffer, Lynn A. Darby, Adam Fullenkamp, Amy L. Morgan

Research article

584 – 590

Changes in the Game Characteristics of a Badminton Match: A Longitudinal Study through the Olympic Game Finals Analysis in Mens Singles

Guillaume Laffaye, Michael Phomsoupha, Frdric Dor

Research article

591 – 601

Neuromuscular Activity of Upper and Lower Limbs during two Backstroke Swimming Start Variants

Karla De Jesus, Kelly De Jesus, Alexandre I. A. Medeiros, Pedro Gonalves, Pedro Figueiredo, Ricardo J. Fernandes, Joo Paulo Vilas-Boas

Research article

602 – 605

Ultra-Short-Term Heart Rate Variability is Sensitive to Training Effects in Team Sports Players

Fabio Y. Nakamura, Andrew A. Flatt, Lucas A. Pereira, Rodrigo Ramirez-Campillo, Irineu Loturco, Michael R. Esco

Research article

606 – 619

The Waist Width of Skis Influences the Kinematics of the Knee Joint in Alpine Skiing

Martin Zorko, Bojan Nemec, Jan Babi, Blaz Lenik, Matej Supej

Research article

620 – 626

Segmental Musculoskeletal Examinations using Dual-Energy X-Ray Absorptiometry (DXA): Positioning and Analysis Considerations

Nicolas H. Hart, Sophia Nimphius, Tania Spiteri, Jodie L. Cochrane, Robert U. Newton

Research article

627 – 633

Big Five Personality Traits and Eating Attitudes in Intensively Training Dancers: The Mediating Role of Internalized Thinness Norms

Stphanie Scoffier-Mriaux, Charlne Falzon, Peter Lewton-Brain, Edith Filaire, Fabienne dArripe-Longueville

Research article

634 – 642

The Relative Age Effect and Physical Fitness Characteristics in German Male Tennis Players

Alexander Ulbricht, Jaime Fernandez-Fernandez, Alberto Mendez-Villanueva, Alexander Ferrauti

Research article

643 – 647

The Effect of Training in Minimalist Running Shoes on Running Economy

Sarah T. Ridge, Tyler Standifird, Jessica Rivera, A. Wayne Johnson, Ulrike Mitchell, Iain Hunter

Research article

648 – 656

Cardiorespiratory and Metabolic Responses to Loaded Half Squat Exercise Executed at an Intensity Corresponding to the Lactate Threshold

Jos Luis Mat-Muoz, Ral Domnguez, Manuel Barba, Antonio J. Monroy, Brbara Rodrguez, Pedro Ruiz-Solano, Manuel V. Garnacho-Castao

Research article

657 – 668

The Value of Indirect Teaching Strategies in Enhancing Student-Coaches Learning Engagement

Isabel Mesquita, Patrcia Coutinho, Luciana De Martin-Silva, Bruno Parente, Mrio Faria, Jos Afonso

Research article

669 – 674

Relative Age Affects Marathon Performance in Male and Female Athletes

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Nanotechnology | Capabilities | Exponent

§ October 3rd, 2015 § Filed under Nano Medicine Comments Off on Nanotechnology | Capabilities | Exponent

Nano-engineered materials (NMs) are a diverse class of extremely small-scale (loosely defined as

The small size and design of NMs can confer unique chemical, electrical, magnetic, optical, and thermal properties, which can result in vast improvements for a wide variety of applications. These same properties may also result in unanticipated health and environmental effects. Much can be learned from other small-scale materials that have been well studied, such as ultra-fine particles, welding fumes, and mineral fibers, although some properties will be unique to specific NMs. The feasibility and success of NMs will depend on the ability to safely and reproducibly manufacture uniform (homogeneous) materials with reliable characteristics while avoiding adverse effects on health or the environment during the life cycle of these products. The more that is understood about the factors that control material properties, exposure, and toxicity, the better engineering principles can be applied to reduce potential health and environmental risks.

With more than40 years of experience in solving complex scientific and engineering problems, Exponent is uniquely qualified to assist in the area of NMs. In addition to our recent project experience in assessing various aspects of NMs in products, Exponents scientists have many years of industry experience in nano-scale product manufacturing settings, including manufacturing yield enhancement, process development, materials degradation, process tooling, clean-room science and micro-contamination, defect reduction, root cause, and corrective action analysis. Additionally, our expertise in exposure and risk assessment , materials science, food safety, toxicology of novel substances, and industrial hygiene allows us to comprehensively examine the health, regulatory, and environmental exposures and consequences of product design, manufacturing and production, foreseeable use/misuse, wear, and disposal.

The combination of high-level engineering, technological expertise, and regulatory experience, with strong health sciences, food safety, and environmental practices, provides a complete team to evaluate any issue related to NMs.

Our services include:

Exponent is continually involved in NM-related initiatives, including definition, use, and potential exposures and toxicity of NMs. Our scientists have organized and regularly participate in organized technical symposia and legal education seminars. We have been active participants at regulatory agency hearings (e.g., EPA, FDA) and in standards-setting committees such as the Nanotechnology Standards Panel of the American National Standards Institute.

Recent Exponent projects include:


Donthu S. Nanopatterning of functional oxide ceramics. VDM Verlag, Dr. Muller Aktiengesellschaft & Co. KG, 2009.

Mowat FS, Tsuji JS. Carbon nanotubes: The next asbestos? ABA Toxic Torts and Environmental Law Committee Newsletter Fall 2009, Fall 2009.

Tsuji JS, Mowat FS, Donthu S, Reitman M. Application of toxicology studies in assessing the health risks of nanomaterials in consumer products. pp. 543580. In: Nantoxicity: From In Vitro and In Vivo Models to Health Risks. S.C. Sahu and D.A. Casciano (eds), John Wiley & Sons, Chichester, West Sussex, UK, 2009.

Crane SP, Bihler C, Gajek M, Goennenwein STB, Brandt MS, Ramesh R. Tuning magnetic properties of magnetoelectric BiFeO3-NiFe2O4 nanostructures. J Magn Magn Mater 2008; 321(4):L5-L9.

Donthu S, Alem N, Pan Z, Li S, Shekhawat G, Dravid V, Benkstein K, Semancik S. Directed fabrication of ceramic nanostructures on fragile substrates using soft-electron beam lithography. IEEE Transactions on Nanotechnology 2008; 7:338.

Martin L, Crane SP, et al. Multiferroics and magnetoelectrics: thin films and nanostructures. J Physics Cond Matt 2008; 20:434220.

Sun T, Donthu SK, Sprung M, DAquila K, Jiang Z, Srivastava A, Wang J, Dravid V. Effect of Pd doping on microstructure and gas sensing performance of nanoporous SnOx thin films. Acta Materialia 2008; 57:1095.

Mowat F, J. Tsuji. Primer on emerging health and environmental issues for nanomaterials. Michigan Defense Trial Counsel Law Quarterly 2006; 23(3):26-30.

Hartzell A, Rotondo J, Foster D. Nanotechnology. ABA Products Liability Newsletter 2006; 17(3).

Tsuji JS, Maynard AD, Howard PC, James JT, Lam C-W, Warheit DB, Santamaria AB. Forum seriesResearch strategies for safety evaluation of nanomaterials, Part IV: Risk assessment of nanoparticles. Tox Sci 2006; 89(1):4250.

Mackay CE, Johns M, Salatas JH, Bessinger B, Perri M. Stochastic probability monitoring to predict the environmental stability of nanoparticles in aqueous suspension. Integr Environ Assess Manag 2006; 2(3):293298.


Mowat F. Nano-size me: Responsible development of nanomaterials. Presented at the Defense Research Institute (DRI) Product Liability ConferenceIts Not Easy Being Green: Navigating the New Landscape of Product Liability Law, San Diego, CA, April 15-17, 2009.

Mowat F. Size does matter: The impact of nanotechnology on human health and the environment. Presented to the American Bar Association Tort Trial & Insurance Practice Section, Toxic Torts and Environmental Law Committee, Phoenix, AZ, April 24, 2009.

Tsuji JS, Mowat FS. Application of toxicity studies for risk assessment in the real world. Presentation within workshop on Agglomeration Versus Dispersion: How Nanoparticle Behavior Affects Exposure and Toxicity In Vitro, In Vivo, and in the Real World. Workshop organizer and chairperson. Annual Meeting of the Society of Toxicology. Baltimore, MD, March 1519, 2009.

Crane SP. Magnetoelectric coupling and magnetic anisotropy in nanostructured oxide thin films. Materials Research Society Fall Meeting, Boston, MA, 2008.

Mowat FS. Carbon nanotubes: What the heck are they? Presented at the California section of the American Chemical Society, Oakland, CA, September 17, 2008.

Reitman MTF. Nanotechnology and plastics for medical devices. Capitalizing on Nanoplastics, Intertek PIRA San Antonio TX, February 2008.

Tsuji JS, Mowat FS. Health risks of carbon nanotubes: What can we learn from mineral fibers or ultrafine particulates? Toxicologist 2007; 96(1):7.

Mowat FS, Tsuji JS. Assessment of health risks of carbon nanotubes: Where do we go from here? Toxicologist 2007; 96(1):8.

Tsuji JS, Mowat FS, Kaetzel RS. Approaches for risk assessment and risk management of nanomaterials: Inert metal oxides. Toxicologist 2006; 90(1), Abstract 2201.

Mowat, FS. Emerging issues in health risk assessment of nano-engineered materials. Northern California Society for Risk Analysis, Fall Symposium on Risk Assessment in Homeland Security and Emerging Risk Assessment Issues, Berkeley, CA, October 4, 2007.

Tsuji JS. Expert panel participant. Environmental health: Nanomaterials: nifty or naughty? Society for Environmental Journalists Meeting. Stanford, CA, September 7, 2007.

Tsuji JS, Mowat FS. Exposure and toxicity of nanotechnology in products. Presented at SAMPE. Baltimore, MD, June 37, 2007.

Mowat FS, Hartzell AL, da Silva MG, Tsuji J. Health risk assessment of products containing nano-engineered materials. Abstract 993. Presented at the 10th Annual National Standards and Technology Institute (NSTI) Nanotechnology Conference and Trade Show. Santa Clara, CA, May 2024, 2007.

Mowat FS, Tsuji JS. Assessment of health risks of carbon nanotubes: Where do we go from here? Presented at the 46th Annual Meeting of the Society of Toxicology (SOT). Workshop entitled, “Health risks of carbon nanotubes: What can we learn from mineral fibers or ultrafine particulates?” Charlotte, NC, March 2529, 2007.

Tsuji JS, Mowat FS. Introduction to carbon nanotubes and health concerns. Presented at the 46th Annual Meeting of SOT. Workshop entitled, “Health risks of carbon nanotubes: What can we learn from mineral fibers or ultrafine particulates?” Charlotte, NC, March 2529, 2007.

Mowat FS. Health, safety, and risk management of nanomaterials. Presented at the Society for the Advancement of Materials and Process Engineering (SAMPE), Dallas, TX, November 69, 2006.

Tsuji JS, Mowat FS. Assessment of products containing nanomaterials. Symposium entitled, “Regulating nanotechnology: Developing stakeholder consensus for future rulemaking by EPA, FDA and OSHA.” Presented at the Division of Chemistry and the Law of the 232nd American Chemical Society National Meeting. San Francisco, CA, September 1014, 2006.

Tsuji JS, Mowat FS. Risk assessment of nanoscale metal particles. Presented at the U.S. Environmental Protection Agency Region 5 Nanotechnology for Site Remediation Workshop. Chicago, IL, September 67, 2006.

Mowat FS, Tsuji JS. Nanotechnology and the water market: Applications and health effects. Abstract 747. Presented at 9th Annual National Standards and Technology Institute (NSTI) Nanotechnology Conference and Trade Show. Boston, MA, May 711, 2006.

Tsuji JS, Kaetzel RS, Mowat FS. Approaches for risk assessment and risk management of nanomaterials: Inert metal oxides. Presented at the 44th Annual Meeting of the Society of Toxicology, San Diego, CA, March 59, 2006.

Mowat FS. Nanotoxicity: Lessons learned from other small particles and fibers. Presented at the MIT/Stanford/U.C. Berkeley Nanotechnology Forum at Swissnex entitled, Nanotechnology Applications and Implications: A focus on the health and environmental effects of nanomaterials, San Francisco, CA, December 7, 2005.

Mowat FS. Nanomaterials: Emerging health and environmental issues. Presented at the 2005 Annual Meeting of the Defense Research Institute. Chicago, IL, October 1923, 2005.

Mowat, FS, Yarborough, CM. Nanotoxicity: What can we learn from other small particles and fibers? Presented at the 2nd International Symposium on Nanotechnology and Occupational Health. Proceedings and Final Program, p. 69. Minneapolis, MN, October 36, 2005.

Tsuji, JS. Potential health and environmental risks of nanomaterials. Presented to the American Bar Association. Nashville, TN, September 2005.

Tsuji JS, Mowat FS. Potential benefits and hazards of nanotechnology in water. Session on Natural Poisons and Unnatural Products. American Water Works Association Annual Conference, San Francisco, CA, June 1216, 2005.

Tsuji J, Mackay C. Nanotechnology: Emerging health and environmental issues. Presented as a continuing legal education (CLE) course in Seattle, WA. October 12, 2004.

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Nanotechnology News, Articles and Information

§ October 3rd, 2015 § Filed under Nano Medicine Comments Off on Nanotechnology News, Articles and Information is a free video website featuring thousands of videos on holistic health, nutrition, fitness, recipes, natural remedies and much more.

CounterThink Cartoons are free to view and download. They cover topics like health, environment and freedom.

The Consumer Wellness Center is a non-profit organization offering nutrition education grants to programs that help children and expectant mothers around the world.

Food Investigations is a series of mini-documentaries exposing the truth about dangerous ingredients in the food supply. offers alternative health programs, documentaries and more.

The Honest Food Guide is a free, downloadable public health and nutrition chart that dares to tell the truth about what foods we should really be eating. offers a free online reference database of healing foods, phytonutrients and plant-based medicines that prevent or treat diseases and health conditions. is a free, online reference library that lists medicinal herbs and their health benefits. is a free online reference database of phytonutrients (natural medicines found in foods) and their health benefits. Lists diseases, foods, herbs and more.

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Nanotechnology News, Articles and Information

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Sports Medicine & Fitness news, research and tips –

§ September 29th, 2015 § Filed under Nano Medicine Comments Off on Sports Medicine & Fitness news, research and tips –

Salt might be healthy after all.

When it comes to the idea that running is good for the heart, six miles a week may be the magic goal number.

Typically, we exercise to slim down, feel better, and ease our guilt about eating an extra cookie. As a cardiologist, I always remind my patients that including exercise in their lives can also lower blood pressure and decrease the risk of having a heart attack. But those arent the only potentially lifesaving effects from exercise.

Is your workout weighing you down? If the bulk of your gym visit is wasted wandering from machine-to-machine, cut calories and time off your fitness routine by picking and sticking with one piece of equipment to maximize results.

I got depressed after the Eagles lost Marcus Mariota in the NFL draft. I had a glimmer of hope when his contract was slow to be signed, but then I had to accept reality, and now I am ready to root for Sam Bradford. But perhaps Mariota can still help us from afar.

Study shows ancient exercise improves physical ability in those with arthritis, heart failure, emphysema and breast cancer

For years, students were told to sit still and stop fidgeting, but that has changed with the addition of elliptical machines to classrooms at an elementary school.

I know, why in the world am I writing a blog post about a Dallas player? We know Dez Bryant is out next week after surgery on his 5th metatarsal. But will he be back for the November 8th game against Philadelphia which is 7 weeks away?

Take it from a 70-year-old bodybuilder how to schedule your weights routine.

But even when we make the effort to exercise, says new research, the power of our pre-modern selves will not be denied.

We use our hips to run, jump, sit, stand, and make every movement in between. They may be the most important joints in the body, as anyone who needs them replaced can attest.

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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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