mini robot

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Microbotics (or microrobotics) is the field of miniature robotics, in particular mobile robots with characteristic dimensions less than 1 mm. The term can also be used for robots capable of handling micrometer size components.
Microbotics is that branch of robotics, which deals with the study and application of miniature ones like mobile robots of micrometre scale.
While the 'micro' prefix has been used subjectively to mean small, standardizing on length scales avoids confusion. Thus a nanorobot would have characteristic dimensions at or below 1 micrometer, or manipulate components on the 1 to 1000 nm size range. A microrobot would have characteristic dimensions less than 1 millimeter, a millirobot would have dimensions less than a cm, a minirobot would have dimensions less than 10 cm (4 in), and a small robot would have dimensions less than 100 cm (39 in).

The earliest research and conceptual design of such small robots was conducted in the early 1970s in (then) classified research for U.S. intelligence agencies. Applications envisioned at that time included prisoner of war rescue assistance and electronic intercept missions. The underlying miniaturization support technologies were not fully developed at that time, so that progress in prototype development was not immediately forthcoming from this early set of calculations and concept design. (ESL Inc., 1970)

The concept of building very small robots, and benefiting from recent advances in Micro Electro Mechanical Systems. Due to their small size, microbots are potentially very cheap, and could be used in large numbers (swarm robotics) to explore environments which are too small or too dangerous for people or larger robots. It is expected that microbots will be useful in applications such as looking for survivors in collapsed buildings after an earthquake, or crawling through the digestive tract. What microbots lack in brawn or computational power, they can make up for by using large numbers, as in swarms of microbots.

Microbots were born thanks to the appearance of the microcontroller in the last decade of the 20th century, and the appearance of miniature mechanical systems on silicon (MEMS), although many microbots do not use silicon for mechanical components other than sensors.
One of the major challenges in developing a microrobot is to achieve motion using a very limited power supply. The microrobots can use a small lightweight battery source like a coin cell or can scavenge power from the surrounding environment in the form of vibration or light energy. Microrobots are also now using biological motors as power sources, such as flagellated Serratia marcescens, to draw chemical power from the surrounding fluid to actuate the robotic device. These biorobots can be directly controlled by stimuli such as chemotaxis or galvanotaxis with several control schemes available.

Nowadays, owing chiefly to wireless connections, like Wi-Fi (i.e. in domotic networks) the microbot's communication capacity has risen, so it can coordinate with other microbots to carry out more complex tasks.
As of 2008, the smallest microrobots use a Scratch Drive Actuator.[1]

A recent partnership between Google's new Medical Research subsidiary, Chrome Pharm, and Microbot Medical, a tech company that specializes in medical microrobotics, has seen a profound jump forward in the design and capabilities in Microbotics. The efforts of their partnership was showcased at the annual Micromachine Mems Exhibition. [2]



Mini robot could swim in your bloodstream

Tiny robots could help you heal. Acting as mini technicians, they could one day assemble medical devices inside the body.

            

A veritable construction crew of micro-scale robots already exists, from worm-like bots that can move heavy loads to muscle-powered machines that can walk across a lab bench. But until now, finer control over miniature objects has proved elusive.

            

Eric Diller and Metin Sitti of Carnegie Mellon University in Pittsburgh have created a simple version of micro-robots using rods made of magnetic materials. Each robot is about 1 millimetre long and has two gripping arms. A magnetic field is used to move the robots and operate the grippers.

            Shrinking doctor               

Previous gripping bots had to be tethered to an outside controller, making them unsuitable for use inside the human body. Other versions could not move and grip things at the same time. "We can move them while they are closed or open, it doesn't matter," says Sitti.

            

So far, the robots have transported small objects and built bridges out of Y-shaped rods. Sitti hopes future versions could be injected into the body along with parts for micro-machines that would swim in the blood and help wounds clot. The builder bot could then create the more advanced device while inside the bloodstream.

            
                                                               

"We need to make things smaller to get inside the body easier, but if they are too small, they are not really useful," he says. "You want to assemble the robot inside the body."

Mini robot weapon
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A NEXT-GENERATION BIOLOGICAL WARFARE ROBOTIC KILLER DRONE MOSQUITO CAPABLE OF SPREADING PLAGUE, VIRUS AND DISEASE WHEN DROPPED ON A CIVILIAN POPULATION OR FIGHTERS TO NEUTRALIZE THEM, AS SWARMS FROM PLANES, HELICOPTERS OR DRONES PROGRAMMED TO SEEK OUT HUMAN FORMS AND INJECT THEM, OR USED TO INVISABLY TARGET ONE INDIVIDUAL, OF THE TYPE BEING WORKED ON BY FREESCALE FOR FUTURE MILITARY APPLICATIONS.It has also been mentioned in a statement by a company spokesperson that the employees who were aboard MH370, were extremely talented and valuable in the technological field.
Ultra-small Microcontoller
In February 2013, Freescale unveiled the Kinesis KL02, the world’s smallest microcontroller, measuring 1.9 mm by 2mm and containing RAM, ROM and a clock. The company brags that the device is so small that it can be swallowed for medical uses, such as releasing drugs according to prescription schedule or directing micro-surgery.
Tiny though it may be, the micro-controller is the key to next-generation warfare based on self-guidance, tactical versatility and hierarchy of commands, in short, an adaptive thinking weapon that can outsmart foes. Potential applications include:
Drones smaller than a fly, either as remotes or autonomously, on surveillance missions or to deliver biowarfare packets, for example, lab-cloned viruses or toxic drugs. Their light weight means longer flying periods or even indefinite hovering time if solar-powered.

In February 2013, Freescale unveiled the Kinesis KL02, the world’s smallest microcontroller, measuring 1.9 mm by 2mm and containing RAM, ROM and a clock. The company brags that the device is so small that it can be swallowed for medical uses, such as releasing drugs according to prescription schedule or directing micro-surgery.
Tiny though it may be, the micro-controller is the key to next-generation warfare based on self-guidance, tactical versatility and hierarchy of commands, in short, an adaptive thinking weapon that can outsmart foes. Potential applications include:
Drones smaller than a fly, either as remotes or autonomously, on surveillance missions or to deliver biowarfare packets, for example, lab-cloned viruses or toxic drugs. Their light weight means longer flying periods or even indefinite hovering time if solar-powered.


Injectable implants to insert a human-machine interface, for example, a targeting system attached to the optic nerve, rendering Google glasses obsolete. Bionic implants could be implanted in nerves of the limbs to control battery-powered prosthetics, realizing the Pentagon’s dream of a human-centered robotic warrior, known to anime fans as “meka”.
Maneuverable micro-satellites and mini-submarines that can be operated as drones or act independently to track and hunt larger weapons systems, spy satellites too small to be detected by ground telescopes, and orbiting warheads containing chemical, biological or nuclear materials.
Freescale Semiconductor Ltd. is primarily owned by the Blackstone Group, i.e. Lord Jacob Rothschild, the same group responsible for spraying the highly-toxic Corexit 500A into the waters of the Gulf of Mexico in the months following the BP oil spill as reported early on by Intelihub News. Shockingly, we also see the Carlyle Group listed as a secondary investor adding another layer of suspicion for investigators.

One very good reason for getting rid of notoriously untrustworthy Chinese developers who, as with Asians or Jews, invariably remain faithful to their country of origin or allegiance more than their country of birth or residence. The convenient end to the lives of these technicians denies China groundbreaking military-applications technology that would have very likely been privatly leaked or sold to them and widely pirated by China for military and commercial purposes.


The official entry listed under Freescale Semiconductor’s “financials” section on Wikipedia states:
On September 15, 2006, Freescale agreed to a $17.6 billion buyout by a consortium led by Blackstone Group and its co-investors, Carlyle Group, TPG Capital, and Permira. The buyout offer was accepted on November 13, 2006 following a vote by company shareholders. The purchase, which closed on December 1, 2006, was the largest private buyout of a technology company until the Dell buyout of 2013 and is one of the ten largest buyouts of all time.
As a journalist, I have to point out the vast amount of monies invested into this technology firm. It’s not like $17.9B is a drop in the bucket by any means, likely signifying the true importance of this corporation. I also have to question why so many Freescale employees were on the same flight at the same time, as four of them were reported by several sources to have been U.S. patent holders of a new technology with wider military applications. This would likely have been a breach of protocol, but at the least a costly oversight.
In fact it’s been reported that Peid Ong Wang, Suzhou, Zhijun Chen, Suzhou, Zhihong Cheng, Suzhou and Li Ying, Suzhou, Freescale employees from China who were said to have been onboard flight 370, were each 20% holders of U.S. Patent #US008671381B1. Shockingly, the remaining 20% has been reported to be held by Freescale Semiconductor Ltd., which now after the disappearance of flight 370 becomes the sole patent holder. In laymen’s terms, Lord Jacob Rothschild is now the patent holder by virtue of invested interest into Freescale Semiconductor Ltd.

People should bear in mind the possibility that the black boxes may be planted into the sea after the time when the recording expires and mysteriously discoverd by searchers who can then claim that the other wreckage was too dispersed to locate and that the boxes if recovered will show no data. Or else we will be told that they are too deeply sunk in the ocean to recover. It is also likely that the plane itself may be reused, repainted and re-located, in a future false flag terror operation.

The Malaysian government has acquired rights to chips that can embed identity tags into cash, passports or even human bodies. The chip can replace barcode tags in retail goods, and can be inserted into the human body, animals, bullets, credit cards and other items for verification purposes, said the report.
The made-in-Malaysia microchip measuring 0.5 mm X 0.5 mm – the size of a decimal point – uses the radio frequency identification (RFID) chip technology.

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