Mostrando entradas con la etiqueta Patentes. Mostrar todas las entradas
Mostrando entradas con la etiqueta Patentes. Mostrar todas las entradas

lunes, 4 de noviembre de 2013

Patent Power 2013

With high-quality portfolios, newcomers are making waves

Image: Baris Simsek/Getty Images

Consumer-facing companies continue to rise against the conglomerates of the past, as household names keep being added to the Patent Power Scorecards. Over the years, we have charted the rise in the patent prowess of Google (No. 1 this year in Communication/Internet Services) and Apple (regaining the top spot this year in Electronics).Facebook takes its bow this year, debuting at No. 2 in the Communication/Internet Services scorecard. This is particularly impressive given Facebook’s relatively small patent output—just 46 U.S. patents granted in 2012, versus over a thousand for both Google and Research in Motion (nowBlackBerry)—and it reflects the high impact and general applicability of its patents.

The Patent Power Scorecards are based on quantitative benchmarking of the patent portfolios of more than 5000 leading commercial enterprises, academic institutions, nonprofit organizations, and government agencies worldwide. This benchmarking—carried out by us at 1790 Analytics, based in Haddonfield, N.J.—takes into account not only the size of organizations’ patent portfolios but also the quality of those portfolios, as reflected in characteristics such as growth, impact, originality, and general applicability. This enables smaller but higher quality portfolios such as Facebook’s to fare well against much larger portfolios. (See “Constructing the Patent Power Scorecards” for an explanation of our methodology and an explanation of the table headings.)
Patent Power 2013: Our annual roundup of which companies have the best high-tech patent portfolios.

And Facebook is far from the only newcomer using quality to punch above its portfolio’s weight. Within the same Communication/Internet Services category, there’s SeeReal Technologies (developer of holographic and 3-D display technology) at No. 5 and Cleversafe(provider of dispersed storage solutions) at No. 7. Looking at other scorecards shows DigitalOptics Corp.debuting at No. 1 in Semiconductor Manufacturing. This subsidiary ofTessera Technologies developsimaging systems for smartphones. Other interesting newcomers this year include Validity Sensors (No. 10 in Computer Peripherals and Storage) with its fingerprint sensor technology, VoiceBox Technologies (No. 13 in Computer Software) with its conversational speech recognition software, andCrestron Electronics (No. 6 in Computer Systems) with its home automation systems.

Moving beyond the electrotechnology space, the Biotechnology and Pharmaceuticals scorecard has a number of interesting new names, includingVertex Pharmaceuticals (developer of cystic fibrosis and hepatitis C treatments) at No. 3; Enanta Pharmaceuticals (also a developer of hepatitis C treatments) at No. 4; and Isis Pharmaceuticals (developer of antisense RNA-based drugs) at No. 8.

Finally, there’s a noteworthy move in the Universities/Education/Training scorecard. Last year saw a Chinese university qualify for the scorecards for the first time, namely Tsinghua University at No. 15. This year, Tsinghua has continued to strengthen its patent portfolio, and it is ranked third in this year’s Universities/Education/Training scorecard, behind only theMassachusetts Institute of Technology and the University of California.

About the Author
Patrick Thomas and Anthony Breitzman are cofounders of 1790 Analytics. They specialize in technology assessment and intellectual property evaluation, publishing widely on the subjects and working with leading commercial, governmental, and financial organizations worldwide.



Each scorecard below is an interactive table containing the top 20 companies in each industry segment. By default, each scorecard displays the first 10 companies: to see more either adjust the number of companies display using the drop down menu, or click "next" at the bottom of the table. Tables can be ordered according to the contents of any column by clicking on the label of that column. For an explanation of the different label, read the sidebar, Constructing the Patent Power Scorecard."

martes, 10 de septiembre de 2013

Aumentan patentes obtenidas por las universidades en Antioquia

ORIGINAL: Diario ADN
Por: DAVID CALLE ATEHORTÚA
10 de septiembre de 2013

Foto: ETCE/ Archivo. Iplate, uno de los inventos patentados por universitarios en Antioquia, indica a sus usuarios qué plantillas para zapatos deben usar, de acuerdo con el nivel de presión.


Innovan en ingeniería, biotecnología y medicina. Buscan llevar creaciones a empresas y sociedad
Un total de 59 patentes tienen hasta el momento las universidades de la ciudad. Una cifra que va en aumento y que demuestra el ingenio de los estudiantes y profesores.

La Universidad de Antioquia lidera con 24 patentes, 15 a nivel nacional, 9 internacionales, además, tiene 11 solicitadas. (Mira aquí: Universitarios crearon vivienda contra terremotos en Medellín)

Una de las más recientes es el Iplate, una plataforma -que se asemeja a una pesa médica-, sobre la cual las personas pueden pararse. Este dispositivo indica qué plantillas para zapatos se deben usar, de acuerdo con el nivel de presión que se genera en sus pies.

Los investigadores son cada vez más proclives a proteger los resultados de sus investigaciones para lo cual participan cada vez más en programas y eventos de capacitación en licenciamiento y protección intelectual”, destaca la Vicerrectoría de Extensión de la U. de A.

Según la abogada Lina Jaramillo, de la Universidad Pontificia Bolivariana (UPB), el proceso de obtención de una patente es sencillo. (Lee también: Sistema 'Deshidratación de Solventes' desarrollado por estudiantes de ingeniería, se comercializará)

Sin embargo, es necesario contar primero con una cultura de protección de las creaciones a nivel país, puesto que hoy en día lo que existe es una cultura de divulgación del conocimiento por parte de los investigadores”, aclara la funcionaria.

Esta universidad cuenta con cuatro patentes de invención concedidas nacionalmente y una más de modelo de utilidad nacional sobre una ‘Planta generadora de gases calientes de usos en procesos industriales’.

La Universidad Nacional sede Medellín es la segunda en patentar. Tiene 12, en las áreas de ingeniería física, óptica y biotecnología. También esta institución adelanta varias iniciativas para innovar. (LEE: Equipo portátil determina calidad en las gafas de sol)

CES y Eafit comparten
La universidad CES se ha especializado en patentar en áreas de medicina y salud, la mayoría en alianza con Eafit. Se destacan, entre otras, un aparato para la medición de la elasticidad del labio leporino y una prótesis modular de codo.

Cesar Del Valle, coordinador de transferencia tecnológica, destaca que “tenemos otras innovaciones que posiblemente solicitaremos protección para iniciar el trámite”. (Clic aquí para leer: Desarrollan cama para prevenir úlceras en la piel)

Una de las patentes compartidas con Eafit es un dispositivo cuya función es recobrar tejido óseo en el área de la mandíbula, después de accidentes o de enfermedades que dejen esta zona desprovista del mismo.

Aunque en menor proporción, la Escuela de Ingeniería de Antioquia, (EIA) tiene una patente en diseño de trazado de circuito, en el área electrónica.

Por su parte, la Universidad Eafit tiene 10 patentes: “en 2013 obtuvimos la décima patente y tenemos 11 más en proceso, eso quiere decir que estamos logrando la transición de universidad que transmite conocimiento a la universidad que genera conocimiento”, dice Juan Luis Mejía Arango, rector de Eafit.





DAVID CALLE ATEHORTÚA ESCRÍBENOS A: contenido@diarioadn.co

miércoles, 10 de julio de 2013

Why Nikola Tesla was the greatest geek who ever lived!

ORIGINAL: The Oatmeal





















*Wardenclyffe photo via DamnInteresting.com









FAQ (read this before emailing us)
  • Why not Kickstarter?
    Two reasons: 1. Kickstarter doesn't allow charities 2. Indiegogo was wonderful to work with during my last fundraiser so I decided to stick with them.
  • What happens if we don't raise the entire $850,000?
    The Indiegogo campaign is set up as a flexible funding campaign, so no matter how much we raise it will still go to the non-profit and toward making an offer on the property. $1.6M is the asking price, but we're hoping to buy it for less and then use the remainder of the money renovating the property.
  • What happens if we raise more than we need, or if you make a lower bid on the property and there's money left over?
    Any money left over will be spent renovating the property and put toward turning it into a Tesla Museum.
  • If this is a success, can you build a museum right away? What happens next?
    The property the laboratory is on is a bit of mess. It needs to be cleaned up, restored, and there's a ton of work to be done to actually turn this into something worthy of Tesla's legacy. The money we're raising is simply to secure the property so no one can ever mess with it and guarantee that it's a historic site. It opens up years and years of time to figure out how to build a proper Nikola Tesla museum.
    However, I would love to have some kind of Nikola Tesla festival on the property on July 10th of 2013 (Nikola Tesla Day), and have some kind of zany Tesla-coil-BBQ-cookout.
  • Who is handling the money?
    The Indiegogo campaign is linked directly to the bank account of Tesla Science Center at Wardenclyffe, formerly known as Friends of Science East, Inc. It is a 501(c)3 not-for-profit organization registered with the State of New York. You can read more about them and their board of directors here: Tesla Science Center at Wardenclyffe.
  • I want to make a donation!
    You can donate on this Indiegogo page.
  • I want to become a corporate sponsor of this project!
    Contact the Tesla Science Center at Wardenclyffe
  • I want to do an interview or I have a media inquiry about this campaign
    Contact us
Additional notes from the author:
  • Also, this Badass of the week by Ben Thompson is what originally inspired me to write a comic about Tesla. Ben's also got a book out which is packed full of awesome.
  • There's an old movie from the 80s on Netflix Instant Queue right now about Tesla: The Secret of Nikola Tesla. It's corny and full of bad acting, but it paints a fairly accurate depiction of his life.
  • The drunk history of Tesla is quite awesome, too.
  • History.com has a great article about Edison and how his douchebaggery had a chokehold on American cinema.
  • X-rays: just to clarify, Tesla did not discover x-rays, but he was one of the early pioneers in its research.
  • Cryogenic engineering: I'm referring to the cryogenic engineering that has to do with using liquified air to cool a coil and reduce its electrical resistance (Patent No. 11,865), not freezing people and waking them up in the future so they can fight Wesley Snipes.
  • Transistor: Tesla's influence on the modern transistor can be found in patents 723,188 and 725,605. (a better explanation here)
  • Radio: Tesla was the nicest geek ever until he decided to sue Marconi a few years later. 8 months after Tesla died, the U.S. Supreme Court overturned Marconi's patents on the invention of radio. So Tesla eventually won that battle, although he was dead by then.
  • Tesla VS Edison: I could write a novel on the differences between Tesla and Edison, but seeing as how this comic is already huge I decided to leave many things out. For instance, Edison killed cats and dogs, but Tesla loved animals and had a cat as a child. Originally Tesla wanted to be a poet, but after getting zapped by static electricity from his kitty he was inspired to study the effects of electricity. One could vaguely construe that Tesla's cat was responsible for the second industrial revolution, which arguably makes it the most awesome cat who ever lived.
  • Edison believed that fossil fuels were the future and that there were enough resources in South America to provide for the next 50,000 years. Tesla believed that renewable energy sources like hydroelectric, solar, and wind power were the future. This is remarkable because in the 1890s there was no such thing as "going green," so Tesla's ideas on conservation were very forward-thinking at the time.
  • Lastly, a big thank you to Jane C. Daugherty for proofreading this article for me. If you want to learn things from the most awesome librarian this side of the North American tectonic plate, follow her on Twitter.

lunes, 22 de abril de 2013

The Company That Owns Your Genes

ORIGINAL: Daily Reckoning
04/17/13 


The Supreme Court — a politically appointed gang of black-robed lawyers — is soon going to decide on one of the most contentious issues in medical science: Can human genes be patented, and to what technologies can those patents be extended to cover? 

The particular issue concerns one company, Myriad Genetics, and its claim to own the source code of two genes called BRCA1 and BRCA2, which, when mutated, are related to breast and ovarian cancer. If anyone else tries to test for this mutation, the company’s lawyers swoop down and stop it. Their patent claim has netted the company a great deal of profit, and the CEO a huge salary (nearly $6 million). 

The Myriad patents have understandably annoyed many people who are interested in the spread of human knowledge about how to defeat this and many other horrible diseases. That’s why the American Civil Liberties Union has sued. One lower court sided with liberty, and another court sided with the monopolist. Now the high court is called upon to settle the dispute. 

In particular, the court will try to decide whether these two genes are more correctly thought of as part of nature, and therefore not subject to patent, or are different enough in isolation to constitute a real technological discovery. Obviously, the entire scientific community is rooting against this company. Researchers need up-to-date information. 

It’s one thing for a company to keep its stuff private. That’s a normal business practice. Think of Google: Its search algorithm is a closely held secret, but most everything else it gives away. Every business would like to keep its secret sauce secret. But the nature of the commercial marketplace is always working in the other direction. Profits attract competitors, who try to outdo the innovator in service and price. 

That’s how free enterprise works. The patents take a secret to a different level. The technology behind the patent is public information — in fact, it has to be. What the patents do is actively prevent other companies who have reverse-engineered the code from using their newly acquired information. In other words, patents essentially violate other companies’ rights to innovate. This is the bone of contention. 

In other words, the patent holder is making a killing using a government grant of privilege over something that has been with us since the dawn of humankind. Meanwhile, anyone else who wants into this business suffers, as do the people seeking testing for cancer. 

The opinion will be rather tricky to write. It will attempt to avoid the largest question that everyone is asking these days, which is whether any patents are economically and morally valid. Instead, it will try to narrow the ruling to cover only the point in dispute. 

The larger issue is what can and cannot be patented with the government. It’s a controversy that has been around as long as the patent power itself. During the Industrial Revolution, it was only the high-profile inventions that were subject to the patent. Think of the steamship or, much later, the telephone and the airplane. Now the limit of the patent is entirely up to the clerks at the Patent Office. They can issue one on anything, and are tested only later in court. 

That’s why for those who are convinced that patents in general are a gigantic error — a form of government grant of monopoly privilege — this decision will be disappointing either way. There are so many more patents that deserve a look closer, such as those on software, seeds, and industrial machinery. They all end up slowing development. They are dragging us down. 

In a paper for the St. Louis Fed, Michele Boldrin and David Levine makes the point as plainly as possible: 

The case against patents can be summarized briefly: There is no empirical evidence that they serve to increase innovation and productivity, unless the latter is identified with the number of patents awarded — which, as evidence shows, has no correlation with measured productivity. This is at the root of the ‘patent puzzle’: In spite of the enormous increase in the number of patents and in the strength of their legal protection, we have neither seen a dramatic acceleration in the rate of technological progress nor a major increase in the levels of R&D expenditure — in addition to the discussion in this paper, see Lerner [2009] and literature therein.

This should not be a surprise at all. People say that patents incentivize innovation. That’s just wrong. The prospect of profits incentivizes innovation. The patent only extends the period of profitability — if it comes about — beyond which the market would otherwise allow it. The patent does this by using legal restrictions to prevent anyone else from emulating the invention or improving on it. 

The case of the human genome is a great case in point. Research is proceeding at a breakneck pace in every area. Most of the code is not subject to patents. Some of the old patents have run out and become irrelevant. It is only in this area of genes “owned” by one company that we have a bottleneck. 

Back in 1851, The Economist magazine had it exactly right. The patent “‘inflames cupidity,’ excites fraud, stimulates men to run after schemes that may enable them to levy a tax on the public, begets disputes and quarrels betwixt inventors, provokes endless lawsuits… The principle of the law from which such consequences flow cannot be just.” 

There are many absurd aspects to the current patent case in the hands of the Supreme Court. First, the idea that these lawyers should be arguing a case involving difficult details of scientific discovery is preposterous. Second, the notion that the DNA sequence itself should be subject to patent offends the whole idea of self-ownership. Third, the reality that there is no effective limit on what innovations can or cannot be patented is deeply dangerous to the free commercial marketplace. 

The whole debate gets to the core of the whole problem of intellectual property itself. Do we only own the stuff we own or do we own the ideas that go into shaping the stuff we own into other things? Example: If you use ingredients to make a cake, do you own the cake or do you own the way to make the cake — and, therefore, do you have the right to forcibly prevent anyone else from using your method? 

The broadest sweep of human history is absolutely clear: We own what we own and nothing more. We can do what we want with our stuff, but we can’t prevent others from doing what they want with their stuff. Not to put too fine a point on it, but Myriad Genetics does not own me or you. 

On the other hand, a century or more of decisions shows that the Supreme Court evidently thinks it owns you, me, and everyone. If the court decides against Myriad in this case, how to respond? Thank you, guys, for recognizing the existence of an essential postulate of freedom in this one case at least? 

Sincerely,
Jeffrey Tucker 

Original article posted on Laissez Faire Today


ORIGINAL: Myriad

Common Myths and Facts About Gene Patents

Myth #1: I heard that someone could patent my genes.
Fact: No one can patent anyone’s genes. Genes consist of DNA that is naturally occurring in a person’s body and as products of nature are not patentable. In order to unravel the mysteries of what genes do, researchers have had to separate them from the rest of the DNA by producing man-made copies of only that portion of the gene that provides instructions for making proteins (only about 2% of the total DNA in your body). These man-made copies, called “isolated DNA,” are unique chemical compositions not found in nature or the human body. The U.S. Patent and Trademark Office has been granting patents on “isolated DNA” to universities, hospitals, patient advocacy groups and companies for over 30 years. In fact, most isolated DNA patents were granted to research institutions rather than companies. These patents provide incentive for pharmaceutical, biotechnology and diagnostic companies to invest the hundreds of millions of dollars and decades of time to develop ground-breaking medicines and diagnostics that have saved and enhanceUCLA Diagnostic Molecular Pathology Laboratory, University of Pittsburgh Medical Center, University of Chicago Genetic Services Laboratory, University of California San Francisco Molecular Diagnostic Laboratory, Fox Chase Cancer Center, and University of North Carolina Hospitalsd countless lives.

Myth #2: I can’t get a second opinion because of gene patents.
Fact: Since 1999, many laboratories have performed genetic testing to confirm breast cancer hereditary risk results. Today, you can get second opinion testing from the UCLA Diagnostic Molecular Pathology Laboratory, University of Pittsburgh Medical Center, University of Chicago Genetic Services Laboratory, University of California San Francisco Molecular Diagnostic Laboratory, Fox Chase Cancer Center, and University of North Carolina Hospitals.\

Myth #3: Gene patents restrict access to genetic testing.
Fact: Because of the incentives provided by patents, companies invest millions of dollars in clinical studies that are essential for obtaining insurance coverage. For Myriad tests, approximately 95% of all appropriate patients have access to breast cancer susceptibility testing through private insurance, Medicare, Medicaid or Myriad’s Financial Assistance Program. Under our Financial Assistance Program, we test low-income, uninsured patients at no charge and have provided free testing to over 5,000 patients just in the past 3 years.

Myth #4: Patented products are more expensive.
Fact: No, not according to scientific studies conducted by independent researchers. A study published in Genetics in Medicine found that, “Prices for BRCA1 and BRCA2 testing do not reflect an obvious price premium attributable to exclusive patent rights.” The Health and Human Services SACGHS’ Committee released its report on gene patents clearly stating: “The per-unit price of the full-sequenced BRAC test, which often is cited as being priced very high, was actually quite comparable to the price of full-sequence tests done on colon cancer for which associated patents are non-exclusively licensed.” Additionally, the total average out-of-pocket cost for patients taking a Myriad test is less than $100.

Myth #5: Gene patents hinder research.
Fact: Actually patents do just the opposite; they facilitate research and ensure that there is full disclosure of new discoveries. Since the discovery of the BRCA genes more than 18,000 scientists have studied them, publishing more than 9,000 research papers. This makes the BRCA genes some of the most widely studied genes in the world. Myriad actually fostered and encouraged research around the BRCA genes by providing testing at cost to any researcher funded by the National Cancer Institute.

martes, 30 de octubre de 2012

IBM creates carbon nanotubes that stand up straight

ORIGINAL: New Scientist
Paul Marks, chief technology correspondent
30 October 2012

A few weeks ago I was at the IBM lab in Zurich, Switzerland, getting an update on Watson, solar desalination and how magnetic tape will store the big bang's big data. But I was surprised to find the lab's director, Matthias Kaiserswerth, was not nearly as excited as I had expected he would be over the prospects for graphene, the two-dimensional wonder material whose pioneers won the Nobel prize for physics in 2010. Now I know why: IBM has other ideas for the future of electronics.

It turns out IBM has been quietly continuing research on carbon nanotubes, the rolled-up-chicken-wire form of carbon that was the wonder material du jour in the decade before graphene's electronic properties were realised.
A coloured scanning tunnelling micrograph of carbon nanotubes - rolled sheets of carbon atoms, magnified 6 million times. Individual atoms are seen as the bumps on the surface of the tube (Image: Eye Of Science/SPL)

Now the company has revealed what it believes could be the answer to the problem that has dogged nanotube electronics all along: how to pick up the dastardly items - which are only 1 nanometre in diameter - and put them where you want them. They may be great transistors, but if they cannot be placed on a chip they are useless.

Instead of a slavish and hellishly slow pick-and-place operation, IBM's trick is to encourage the nanotubes to organise themselves, with help from some clever chemical engineering.

First the engineers created a solution of nanotubes, coating them with a surfactant that encourages them to dissolve in water. Into this nanotube solution they dipped a silicon dioxide chip carved with hafnium oxide trenches. The process coaxed one nanotube tube into each trench - where the nanotube bonds to the hafnium oxide - creating regular arrays of nanotube-based transistors at a density of 1 billion per square centimetre.

There's a good decade or more to go before they'll know whether this is the technology that'll let nanotubes break silicon's microchip monopoly, but fixing the tubes in place at least gives researchers something to work with. There's more over at the BBC.



BBC.
Carbon nanotubes fit by the thousands onto a chip
By Jason PalmerScience and technology reporter, BBC News
Carbon nanotubes' electronic properties have long been lauded but still have not made it into chips
Scientists have demonstrated methods that could see higher-performance computer chips made from tiny straws of carbon called nanotubes.

Carbon nanotubes have long been known to have electronic properties superior to current silicon-based devices.

But difficulties in manipulating them have hampered nanotube-based chips.

The experiments, reported in Nature Nanotechnology, show a kind of two-part epoxy approach to individually place the nanotubes at high density.

The race is on in the semiconductor chip industry to replace current silicon technology - methods to make smaller and therefore faster devices will soon come up against physical limits on just how small a silicon device can be.

Study co-author James Hannon, a materials scientist at IBM, said that there are few realistic successors to silicon's throne.

"The problem is you have to put it in to production on a 10- or 15-year time scale, so the kinks have to be worked out in the next few years," he said.

"If you look at all the possibilities out there, there are very few that have actually produced an electronic device that would outperform silicon - there are exotic things out there but they're all still at the 'PowerPoint stage'."

Though single nanotubes have shown vastly superior speed and energy characteristics in lab demonstrations, the challenge has been in so-called integration - getting billions of them placed onto a chip with the precision the industry now demands.Superior speed

Current chips are made using lithography, in which large wafers of silicon are layered with other materials of different electronic properties and then devices are simply "etched" out using a focused beam of electrons or charged atoms.
The two molecules on the chip and nanotube work like a two-part epoxy

To address the integration challenge, Dr Hannon and his colleagues came up with a solution - two of them in fact.

The first was a chemical that coats nanotubes and makes them soluble in water.

The second was a solution that binds to the first chemical and to the element hafnium, but not to silicon.

The team used standard techniques to etch a pattern of channels in hafnium deposited on silicon.

Then they simply "double-dipped" the chip into the two solutions - one chemical stuck to the hafnium, and the other chemical acted as the second part of a two-part epoxy, tightly binding nanotubes to the hafnium regions on the chip but not to silicon.

The result was a series of neatly aligned nanotube devices, already wired up within the pattern, at a density of a billion per square centimetre.Challenges remain

"That's one nanotube every 150 or 200 (billionths of a metre) or so," explained Dr Hannon. "That's not good enough to make a microprocessor yet - it's a factor of 10 away.

"But it's a factor of 100 better than has been done previously."

The demonstration is a "huge improvement", but Dr Hannon said several issues are still to be solved.

They incude finding more efficient ways to sort through nanotubes - which are made in a wide variety of sizes and types - to select in large quantity and high accuracy the kind suitable for devices.

The etching process that sets the ultimate size of a transistor on the chip must also be improved.

For now, the team has modelled what it can do with the technique in its current form - a vast array of transistors, each comprising six nanotubes spaced 10 nanometres apart.

Their models suggest a 10-fold jump in performance - a chip run at more than three times the frequency and consuming just a third the energy.

However, in the longer term, nanotube chips would run up against the same limits that silicon faces; as Dr Hannon puts it, "we're limited by the size of an atom eventually".

"But this at least gives us a way to gain performance while shrinking the device."