Summer Internship 2012 : IIIT-Delhi

Indraprastha Institute of Information Technology, Delhi is a global centre of excellence in Information Technology education, training and research.
Its twin aims are:
  • To carry out advanced research and development in information and software technologies, and in leveraging IT in specific domain areas.
  • To train and educate, at both undergraduate and postgraduate levels, engineers of outstanding ability who can become innovators and new product creators.
It aims to encourage innovation and entrepreneurship in specified domain areas of IT. Towards this end it plans to organize itself as a conglomerate of R&D Centers, some of which would be in partnership with different companies and global organizations. All centers will also be engaged in teaching and thesis guidance. These centers, with various labs, will be the hub of activity, with active contribution from faculty and students—BTech, MTech and PhD.
Now , Some of the research groups and faculty members of IIIT-Delhi are looking for summer interns for 2012. The list of current opportunities is given below.
To apply for internship
  • send an email to tnp@iiitd.ac.in (subject must be "application for Summer Internship") along with your resume.
  • Mention the name/details of the project you wish to apply for.
  • Each student can apply for a maximum 3 projects.
  • Last date to apply is 10th March, 2012
Complete details can be found on IIIT-D Summer Internship Page

Summer Internship 2012: NIT Rourkela


NIT, Rourkela has launched a Summer Internship Programme with an objective to encourage ambitious bright B.Tech. as well as B.Sc. and M.Sc. students of different Institutes in India other than NIT, Rourkela to pursue an innovative research and development project under the guidance of NIT faculties. The summer fellow will register at NIT, Rourkela for whom there will be no institute registration fees. The Institute is pleased to provide 50 nos. of Summer Fellowships as follows.
The fellowship will cover the following:
(a)
A gross fellowship of Rs.3500/-, for a period of two months to meet travel and other expenses. The fellowship will be provided to those, who stay in NITR hostels.
(b)Free Accommodation in the NIT Halls of Residences.
(c)Laboratory and Computing Facilities.
The fellowship is available in the following departments.
1BM:Biotechnology & Medical Engineering
2CE:Civil Engineering
3CH:Chemical Engineering
4CR:Ceramic Engineering
5CS:Computer Science & Engineering
6CY:Chemistry
7EC:Electronics & Communication Engineering
8EE:Electrical Engineering
9HS:Humanities & Social Sciences
10ID:Industrial Design
11LS:Life Science
12MA:Mathematics
13ME:Mechanical Engineering
14MM:Metallurgical & Materials Engineering
15MN:Mining Engineering
16PH:Physics
17SM:School of Management

Eligiblity :
Any B.Tech., B.Sc or M.Sc. student with a good academic record who has completed 2 or 3 years of study toward engineering or science degree may apply for this fellowship.


How to Apply : 
Interested students need to complete the online application form before 5th  March 2012. After filling online application, the student needs to get a hard copy of the application from and enclose the documents (Photocopies of all grade cards/mark sheets, studentship certificate) and submit by speed post before 23 March 2012


For complete information go to NIT Rourkela Summer Internship Program 2012 page

Summer Internship 2012 : IIT Bombay

Program Overview
They undertake a significant amount of software and hardware development work in their Affordable Solutions Lab, to support their efforts in the National Mission on Education through ICT. Last year, they selected 60 interns to work on these projects, simultaneously enabling them to fulfill the summer internship requirements of their respective academic programs. This year also, they are offering a fresh set of projects. These are described in some detail under the subsection projects. 

All the work under the mission project is released under Open Source. 
Consequently most of the tools and software environment used in their R&D,
are also from Open Source Software(OSS). You will thus be working on Ubuntu
(a variant of Linux), and using Java, MYSQL/Postgress, GCC, and such other 
packages. Even if you do not have adequate exposure to these, you will get 
ample opportunity to learn them during your internship. All they expect is that 
you are able to learn fast, and are able to meaningfully use what you learn.
You will be engaged for a period of 8 weeks. Your project leader will evaluate 
your work at the end of the internship. We expect everyone to work hard, and 
successfully complete the assignments well in advance of the last date.

You have to strictly adhere to the time slots. Requests to adjust the time slot 
will not be entertained.
You have to stay within the IIT campus. A room (on a twin sharing basis) will be 

made available to you during the period of internship.
They will extend nominal financial support which is designed to cover a major 

portion of your expenses during your stay in IIT. Further details of the terms and
conditions are available under the subsection 'Financials'. The tentative schedule
for the program is available under the subsection 'Tentative Schedule'. Detailed 
schedule will be given to you on the first day of internship.
IIT will provide you library reading room facility, and limited access to Gymkhana
facilities.
A certificate will also be issued on successful completion of internship.

Kindly note that Prof Phatak does not give any recommendation letter for 
admission to Institutions outside India.
Eligibility
Students graduating in Computer Science/Engineering, IT,or Electronics.Who 
will be completing 3rd year in April/May 2012. Students completing 2nd year,
with exceptional academic performance and other achievements,may also be
considered.Students with experience in programming and/or hardware design
will be preferred.

Financials

Internship and stay at IIT Bombay involves some items expenditure to be 
incurred by interns. These are:


Rs. 6000/- to be paid to the IIT Bombay academic office (Internship Fee's)
Hostel room rent of Rs 1100/- per month or part thereof (totaling Rs 2200/- 
for the internship period)
Additional Rs 20/- per day if you wish to rent a mattress + bucket
Approximately Rs 100/- per day for food (breakfast, lunch, dinner) in the
vacation mess
Of these, we will pay Rs. 6000/- directly to the institute, on your behalf.
In addition,we will pay you an honorarium of Rs. 8000/- on successful 
completion of 8 weeks of internship. Please note that since this amount 
will be paid at the end, you will have to make your own arrangements to 
meet the lodging and food expenses initially .

For detailed information go to Summer Internship 2012 : IIT Bombay page

Hurry Last Date of application : Friday, 23rd March 2012

Biological Computer to Read DNA


US scientists have developed the world's first 'biological computer' composed entirely of DNA molecules constructed on a gold-coated chip, which can accept as many as one billion programs and can decipher images encrypted on DNA chips. 


The Technion (Israel Institute of Technology) and a team from Scripps Research Institute in California have developed the biological computer. In the research, when suitable software was applied to the biological computer, the scientists found that it could decrypt, separately, fluorescent images of Scripps Research Institute and Technion logos. This is the first experimental demonstration of a molecular cryptosystem of images based on DNA computing, say the scientists led by Prof Ehud Keinan. 



"In contrast to electronic computers, there are computing machines in which all four components are nothing but molecules," says Keinan. "For example, all biological systems, and even entire living organisms, are such computers. Every one of us is a bio-molecular computer, that is, a machine in which all four components are molecules "talking" to one another in a logical manner."

The world's first biological computer integrates complex biological molecules in form of hardware and software in these devices. These biological molecules activate one another to carry out some predetermined chemical work, says Keinan. The computer uses molecules for both input and output. For input, a molecule undergoes specific, predetermined changes, following a specific set of rules (software); the output of this chemical computation process is another well-defined molecule.

The biological computer is "built" by combining chemical components into a solution in a tube. Various small DNA molecules are mixed in solution with selected DNA enzymes and ATP. The latter is used as the energy source of the device, reports TOI.

The results are published this week in the Journal of the American Chemical Society by Prof. Ehud Keinan. "An equally significant breakthrough is the incorporation of chips as an integral part of the computer," he says.


CMOS that Captures Images In Dim Light


Clicking high resolution pictures in dim light will soon become a reality with an upgrade in present CMOS technology by Fraunhofer University.

Fraunhofer University has brought a technology that removes the the drawbacks of Pinned Photodiodes using pixel size 10 µm or above and helps the cameras capture images in dim light. Scientists have developed the lateral drift field photodetector (LDPD) that helps in boosting the speed of traditional CMOS sensors.



Keeping in mind the changing trends in electronics goods, manufacturers have to make CMOS circuits compatible with the smaller and thinner devices. With the reduced size, it is difficult to capture better quality images many-a-times. The problem is more seen if someone is clicking pictures in dim or no light situations like that in astronomy. Usually bigger size pixels are used opdevelop devices that can amount to faster conversion of light to electrical signal. 

Scientists from Fraunhofer hence introduced an upgrade for the the present CMOS sensors. The speed of conversion in these CMOS sensors has been improved for about 100 times that the initial.

According to a report, the optoelectronic device developed by the team is a lateral drift field photodetector (LDPD) which does not let the generated current to diffuse and sends it at an unprecedented speed to the reading device. The scientists have got the technology patented and the team is now awaiting approval for a series production of the device. 

Laser Enabled Finer Chip Structures

A team of researchers at the Massachusetts Institute of Technology (MIT) has invented a new way of shrinking circuit structures in semiconductors, which is certainly an advancement of the Moore's law. Moore’s law is the standard that defines the growth in semiconductors. The law named after Intel co-founder, Gordon E Moore, states that the number of components in integrated circuits had doubled every year from the invention of the integrated circuit in 1958 until 1965. His prediction proved to be accurate and the law is still practised in the semiconductor industry for long-term planning and to set targets for research and development, said a report.

The chip manufacturing industry resorts to photolithography techniques, which means producing chip features that are larger than the wavelength of the light applied. MIT researchers have developed a new process that can create complex chip structures, which would be 1/8th the size of the wavelength of the light used. It is a process that is described in the paper as "Breaking the Far-Field Diffraction Limit in Optical Nanopatterning via Repeated Photochemical and Electrochemical Transitions in Photochromic Molecules", published in Physical Review Letters. 






The researchers term it as an effect called Stimulated Emission Depletion imaging (STED), which enabled them to go beyond the current limitations of photolithography. Scientists make use of the fluorescent characteristics of materials to emit light when targeted by a laser beam in STED. The power of light emitted can be controlled by the intensity of the laser beam. If the power falls enough, it causes a 'dark patch' that is smaller than the wavelength of the laser light itself. These dark patches can be used as masks, which can be applied to a surface, said a Toms Hardware report.

The MIT Researchers opine that this invention can help in constructing semiconductors with much finer structures than what is possible today. MIT said that there could also be an opportunity to apply this technology in photonic devices. 

Marine Solar Cell : taking energy from water

Can you imagine a solar cell taking energy from water? If you think its weird, you need to think again. Phil Pauley, a British industrial designer, has already done this. Pauley has designed Marine Solar Cells, which are capable of taking energy from both the sun and the sea water on which it floats. 



The designer was successful in doing this with the help of a web of energy generators. With the web of energy generators, he made it possible to capture energy off-shore, as he cleverly combined floating photovoltaics and natural buoyancy displacement.


According to an Ubergizmo report, the reflective nature of water enables the solar component’s efficiency to be increased by another 20 per cent or so compared to having it remain stationary on land. An even more interesting fact is that the Marine Solar Cells can be manufactured by recycled materials. Because of its connection with underwater mooring, the marine solar cells can be placed just about anywhere off-shore. This can result in subsea batteries or power plants. This technology is presently in its conceptual stage. 

Nano-Ear That Can Hear Sound Of Bacteria

Scientists at Ludwig-Maximilians University, Munich have created a nano-ear which can trap sound waves much below the human ear can hear. With this technology, scientists have added an entirely new dimension to the domains of acoustics and biology. This nano-ear studies sound waves emitted by micro-organisms.

A team of German engineers including Jochen Feldmann and Andrey Lutich have achieved the breakthrough. After working on the principle of sensing sound waves at nano level, the two scientists have come to the conclusion that if gold nano particles are used along with lasers, an instrument which has sensitivity 6 magnitudes less than human ears can be created. 





The duo used a beam of laser at specific point in this experiment. They created an electric field with the network of lasers. According to a report, this makes the electric dipole moment attract nearest nano particle in the Web so created. 

The frequency of the sound waves making vibrations in nano-particles is sensed and related to sound waves of a particular frequency. The engineers claim that with this nano-ear, one can hear sense sound as low as -60dB. 

Undergraduate Research at LIGO

Undergraduate students are encouraged to participate in the development of gravitational-wave astronomy through the LIGO Project. This intensive summer program takes place each year at Caltech, funded in part through the Research Experiences for Undergraduates (REU) Program of the National Science Foundation. Undergraduate students from all institutions (both U.S. and foreign) are invited to apply to the LIGO Summer Undergraduate Research Program. Research awards include a summer stipend and some funding for travel to Caltech as needed.

The LIGO Project is an NSF-supported endeavor to design, build, and operate an astrophysical observatory for the detection and study of gravitational radiation. The observatory includes two sites (Hanford, Washington and Livingston Parish, Louisiana) with laser interferometric detector systems. (More information on LIGO can be found on the LIGO home page, and from "LIGO: The Laser Interferometer Gravitational-Wave Observatory," A. Abramovici, et al., Science, 256, 325, 1992.)   The aim of the LIGO Summer Undergraduate Research Program is to organize the participation of undergraduate students in research associated with the LIGO Project.

LIGO research projects may cover many areas of science and engineering related to the detection of gravitational radiation, including:
  • Laboratory projects in mechanical, laser, optical, and electronic systems
  • Modeling and analysis of optomechanical systems
  • Software development projects
  • Modeling of astrophysical sources of gravitational radiation
The LIGO Summer Program runs from approximately June 18 through August 24, 2012 (exact dates are not yet known, but will be posted here shortly). These dates are somewhat flexible, depending on a student's particular circumstances. It is also possible to work longer than the standard 10 weeks of the program (for more pay), if this is arranged in advance.

Be quick last date to apply is 10 Feb 2012

For complete information refer to LIGO page

Tegra 3 mobile processors : Most energy efficient

Tegra 3 comes with DIDIM technology which optimises the energy use per pixel, per frame and hence the end result in battery saving is huge.

If you're waiting for Transformer Prime, HTC Quattro or other Tegra 3 devices, you'd already be thinking about how the quad core would impact battery life. Most users think quad core would use every possible bit of battery life available faster than dual core devices do, but Tegra 3 is going to be different.
Chief executive officer of Nvidia, Jen Hsun, said, "We save as much power in the backlight without changing the visual fidelity at all to save, essentially, the entire power used by our chip."



The touchscreen uses much of the phone's power. Tegra 3 comes with DIDIM technology which optimises the energy use per pixel, per frame and hence the end result in battery saving is huge.
The technology adjusts the backlight of images on the screen to save battery. When the processor is fully active, it consumes only 1-2 Watt. The display consumes 3-6 Watt as per brightness, so the DIDIM technology saves more power than the Tegra 3 CPU uses.


Charge Cell Phones With Water

Can you think of dipping your mobile phone in water? No. But now, you can use water to charge your cell phone. A Swedish company MyFC will be launching a device at the Consumer Electronics Show 2012 that converts hydrogen into electricity. The device PowerTrekk is a fuel-cell charger that uses plain tap water to charge mobile devices. 



The PowerTrekk is said to be the world's first portable fuel cell. It can be used as a portable battery pack as well as a fuel cell. As a portable battery pack, it can be used as a ready source of power or storage buffer for the fuel cell. While as a fuel cell it enables instant charging from a depleted battery state. A user just has to add water to the fuel tray after inserting a fuel pack. Users can connect devices like mobile phones, cameras and GPS devices to the PowerTrekk via a USB port. 

"PowerTrekk has a competitive edge over traditional portable chargers. Fuel-cell power is generated immediately and charging is not impacted by weather or the position of the sun, as for solar panels. Compared with battery-powered travel chargers, PowerTrekk offers reliable charging as the fuel packs do not deplete as batteries do," said Björn Westerholm, CEO, MyFC. 

The company has not yet announced the pricing of PowerTrekk which will be demonstrated at the CES this month. 

Read Someone's Mind Through Ears

Ears are really a great part of our body.When you are relaxed or bored, the ears lie flat, when you are concentrating or focused they perk up, and even wiggle if you are amused.

The "Necomimi", which means "cat's ears" in Japanese, were launched in May but are set to go on sale at the end of the year, and were picked by Time magazine as one of the year's 50 best inventions.


The invention's goals are simple - it has two brain-wave sensors that can detect and interpret what you are thinking, and show it through four movements.

"We were exploring new ways of communicating and we thought it would be interesting to use brainwaves," Kana Nakano of Neurowear told Agence France-Press this year."Because the sensors must be attached to the head, we tried to come up with something cute and catchy."

While having brainwave sensors attached to a pair of fluffy ears may seem frivolous, it is one example of the increasing accessibility of such technology, and how it can be used not just for high-end medical equipment, but also for children's toys and games.

The catch, though, is that accurately reading EEG (encephalogram) signals, which these technologies are attempting to do, can be difficult because of the amount of "noise" a brain generates.




Associate Professor Ross Cunnington of the Queensland Brain Institute, who is developing brain computer interfaces for communication, said the industry was moving in two streams.


"We're really going to have this split - the gimmicky toys and games that will get just more reliable and the medical-type applications, which is more challenging because they will never be used until they are entirely reliable."At the moment, that's entirely within a research field. But what's coming out of the research field is driving a lot of the commercial applications in gaming and toys."


Associate Professor Cunnington said the key to improving the technology was data.
The more data is fed into these systems, the more accurate they become in reading EEG signals, he said, adding that the main costs were associated with the development of signal processing.


"The technology really relies on the computer learning. What is the pattern that represents happy? What is a pattern that represents sad? And those patterns are going to differ a lot between individual people."One of the big applications currently is detecting drowsiness or fatigue in people driving, especially truck drivers. That's also proved incredibly difficult to work reliably enough that the driver will wear it and use it.


"In a toy or a game, not having 100 per cent reliability is not a problem ... In situations where there is safety involved, it's really important that it works."


This year, German scientists announced they were working on a system that harnesses a driver's brainwaves to control their car's emergency braking system.


In Japan, developers from car manufacturer Nissan and Swiss University Ecole Polytechnique Federale de Lausanne are using technology developed for disabled people to manipulate their wheelchairs to create a car that can be driven with just the mind.


And in Australia, Emotiv Systems has for some time been selling a wireless headset for people to play computer games using their thoughts alone.


T-Shirt With Built-In Electronic Drum

For all music lovers here is something you will definitely like to purchase : A T-Shirt With Built-In Electronic Drum



ThinkGeek has come up with a unique t-shirt featuring a built-in electronic drum machine. The t-shirt, known as the Electronic Drum Machine Shirt, works with the help of a drum machine, looper and nine different drum kits with seven professional grade sounds each. These sounds include labelled Rock Drums, Retro 808, Discotek, Techno Punk, Classic Jazz, Bass Invaders, Chiptune, Zapf Dingbeats and Scratchy. 



According to a report by The Inquisitr, anyone who wears the shirt can loop sounds together and then build and layer beats over an unlimited number of tracks up to three minutes in length. The users can enjoy the ability to produce sounds from all seven pads at once if they choose or while pressing any combination of multiple pads at one time with the polyphonic capabilities of the t-shirt.

It comes with a mini amp and an analogue audio output jack to play back music in real time. The shirt requires four AA batteries. Users can remove the drumpads to wash the t-shirt. It is priced at $30.

Space-Based Solar Power Plants

Solar power is gaining much power. A study conducted by International Academy of Astronautics (IAA) says that solar power may be deployed in space but it will take at least three decades to do so. It is believed to help overcome the drawbacks of the power sector that we face today, while accepting solar energy as sustainable and reliable source of energy.


The study conducted on ten nations in three years revealed that a space based solar power plant is such a solution, which is technically and economically feasible. The satellites would be established in particular orbits, which can harvest the solar energy in space. This energy will then be converted into electricity in the satellite itself and transmitted to earth via LASERS or large microwave transmitting antennas, said a report. 



The present solar energy harvesting systems are not reliable. The report cites the variation in intensity of sun depending upon place, time and season as a major reason for this. The power from satellites can be used 24X7 without interruption and will remove unreliability. 

Researchers will have to struggle for this project of space based power plants. The initial funding could be an issue. The governments in India and U.S. have shown interest in this project, which may solve this issue along with funds from the private sector. The exact figures of funding is however, not disclosed. 

If the space based solar plants become a reality, it will be able to generate twice the amount of energy as generated using earth based power-plants. 


13-Feet Gundam Robot : Developing a Japanese Firm

Your favourite animation is about to become reality...at least for Gundam. A Japanese research firm is currently developing a 13-foot working, wearable Gundam tribute robot. Hajime Sakamoto, president, Hajime Research Institute is working to make a dream Gundam robot dedicated to the anime fans. 




Development on the 13-foot mobile robot suit began in 2010, though the company has been manufacturing humanoid robots since 2002. As far as the size goes, the robots are getting larger. In 2007, Hajime Robot 25 was three feet tall, in 2009 robot 33 was seven feet tall and so on. The giant humanoid robot from the firm is the largest in the world and will be able to do bipedal walking. 


The company is currently looking for sponsors who can provide an assisting hand in the project. The 13-foot Gundam tribute may seem amazing enough, but Hajime Sakamoto has bigger plans for the future. Hajime, being a devout fan of Gundam, aims to make a working version of the now-disassembled, 59-foot giant mecha in Shizuoka, which was created as part of the anime series’ 30th anniversary. He plans on creating a 26-foot robot to lead up to the final giant Gundam suit, which the company president hopes to complete in eight years, just in time for the Gundam series’ 40th anniversary.

'Bio-Battery' that runs on waste paper developed by Sony

A demonstration from the Sony company shows off a much more useful product - battery that can 'digest' waste paper and turn it into energy.

As we know In 2007, Sony demonstrated a Walkman that used a similar bio battery that generated electricity by "digesting" food, just like humans do.

But a new demonstration at Eco-Products 2011 in Tokyo shows off a much more useful product, the Daily Mail reported.
The prototype - on show at Eco-Products 2011 in Tokyo, shows how it could be possible to use enzymes to 'break down' waste paper into a fuel we can use. The prototype generates enough energy to power a (very) small fan. 



 The process is unlike conventional batteries - and initially at least, much more like the action of a digestive system.
A digestive enzyme, cellulase, 'breaks down' the cellulose in paper into glucose, a sugar that Sony's 'bio batteries' can use as fuel.
The company claims that the paper-powered battery can generate electricity up to 18wh which is enough to power a (very) small fan. The process is much more like the action of a digestive system, said Chisato Kitsukawa, a public relations manager at Sony. "This is the same mechanism with which termites eat wood to get energy," Kitsukawa was quoted as saying.





The company's bio batteries are now so advanced that the company showed off one thin enough to fit inside a greetings card alongside the paper-digesting battery.
It uses fruit juice for fuel, and can generate enough power to play a melody from inside the car. 
As it stands, though, the 'paper-eating' battery can only generate a very small amount of power.
Although Kitsukawa said. It is currently sufficient to run digital music players but not powerful enough to replace commonly used batteries, he added.

The Photon Catcher Camera that captures Trillion-Frame-Per-Second

Have you ever heard about a Camera that can even capture the photons at a very fast rate of Trillion-Frame-Per-Second ? Yes, you heard it right. Now we can capture the video of the fastest known particle in the universe, the photons. This virtual slow motion camera captures the video of photons traversing through space. This high-speed camera is more than enough to produce a slow motion video of light travelling through objects. 


Engineers at MIT have built a camera that captures one trillion exposures per second. The camera is capable of capturing the movement of light beam through a one litre bottle. Andreas Velten, one of the developers of this new camera system, terms the innovation as the 'ultimate' in slow motion capture. He says that there's nothing in our Universe that looks fast to this camera.

The camera consists of an array of 500 sensors, which are triggered at almost trillions of a second delay. Titanium sapphire laser is used as the light source in this camera. The works upon an innovative technology called the streak camera.

Light-passed-to-a-fruit-and-captured-with-a-trillion-FPS-camera
According to the details available on the MIT website, "The system relies on streak camera, deployed in a totally unexpected way. The aperture of the streak camera is a narrow slit. Particles of light--photons--enter the camera through the slit and pass through an electric field that deflects them in a direction perpendicular to the slit. Because the electric field is changing very rapidly, it deflects late-arriving photons more than it does early-arriving ones. The image produced by the camera is thus two-dimensional, but only one of the dimensions--the one corresponding to the direction of the slit--is spatial. The other dimension, corresponding to the degree of deflection, is time. The image thus represents the time of arrival of photons passing through a one-dimensional slice of space."

Since the basics of consumer photography depends on lighting effects, photographers have faced a lot of difficulties setting expensive and sophisticated light sources at the correct angles. This device can ease these problems as it can capture photons that are moving through space, and analyze its movement. This helps the photographer to develop better photos, rather than the ones that were caught with lighting effects, by installing expensive light sources. By using this camera, we can analyze how light will scatter inside the human body.

The camera can be used in laboratories where the motion of light needs to be captured. But there is a serious drawback in the camera. The statement says, "To produce their super-slow-mo videos, Velten, Media Lab Associate Professor Ramesh Raskar and Moungi Bawendi, the Lester Wolfe Professor of Chemistry, must perform the same experiment--such as passing a light pulse through a bottle--over and over, continually repositioning the streak camera to gradually build up a two-dimensional image. Synchronising the camera and the laser that generates the pulse, so that the timing of every exposure is the same, requires a battery of sophisticated optical equipment and exquisite mechanical control. It takes only a nanosecond--a billionth of a second--for light to scatter through a bottle, but it takes about an hour to collect all the data necessary for the final video. For that reason, Raskar calls the new system the world's slowest fastest camera.

'Computer Virus' to infect the human mind developed by Hackers

Once Californian biologist Andrew Hessel said, 'Cells are living computers and DNA is a programming language,' but warns that this could lead to viruses and bacteria used to 'hack' human minds.

The field of 'synthetic biology' is in its infancy. We can 'tweak' the genetics of life forms - but billionaire entrepreneur Craig Venter only created 'artificial life' for the first time last year, christening his life form 'Synthia'.
But experts working within the field believe that our expertise is out-accelerating natural evolution by a factor of millions of years - and some warn that synthetic biology could spin out of control.
It could lead, says Andrew Hessel of Singularity University, on Nasa's research campus, to a world where hackers could engineer viruses or bacteria to control human minds.


Hessel believes that genetic engineering is the next frontier of computing. 
'This is one of the most powerful technologies in the world,' says Hessel 'Synthetic biology - the writing of life.'
'I advocate that cells are living computers and DNA is a programming language.'
'I want to see life programmed and used to solve global challenges so that humanity can achieve a sustainable relationship within the biosphere,' he says.It's growing fast. It will grow faster than computer technologies.'
He predicts a world where we can 'print' DNA, and even 'decode' it. But he warned, in a speech at technology conference TXM, that viruses and bacteria send chemicals into human brains - and could be used to influence, or even 'control' their host.



A literal virus - injected into a 'host' in the guise of a vaccine, say - could be used to control behaviour.
Hessel warns that we 'may have to learn how to counterattack' against such weapons.
Security expert Marc Goodman said, 'Synthetic biology will lead to new forms of bioterrorism,' and said, 'Bio-crime today is akin to computer crime in the early Eighties, Few initially recognised the problem - but it grew exponentially.'
When billionaire entrepreneur Craig Venter 'created life' last year by adding synthetic DNA to a bacteria cell, Professor Julian Savulescu, an Oxford University ethicist, said: 'Venter is creaking open the most profound door in humanity's history, potentially peeking into its destiny.This could be used in the future to make the most powerful bioweapons imaginable. The challenge is to eat the fruit without the worm.'
Hessel, however, is generally optimistic about the future of synthetic biology.
The scientist - who had a vasectomy because he 'never trusted the process' of natural reproduction, says, 'We are going to make synthetic genomes - human genomes. It will make cloning  look organic. It will make human reproduction look quaint.'
Computer World blogger Darlene Storm says, 'I know people who can't even keep their computers protected, updated and patched - I wonder if they would be more security minded when the hacking could be lethal?'