MEMS and Nano devices are extremely small -- for example, MEMS and Nanotechnology has made possible electrically-driven motors smaller than the diameter of a human hair (right) -- but MEMS and Nanotechnology is not primarily about size. MEMS and Nanotechnology is also not about making things out of silicon, even though silicon possesses excellent materials properties, which make it an attractive choice for many high-performance mechanical applications; for example, the strength-to-weight ratio for silicon is higher than many other engineering materials which allows very high-bandwidth mechanical devices to be realized. Instead, the deep insight of MEMS and Nano is as a new manufacturing technology, a way of making complex electromechanical systems using batch fabrication techniques similar to those used for integrated circuits, and uniting these electromechanical elements together with electronics. Advantages of MEMS and Nano Manufacturing First, MEMS and Nanotechnology are extremely diverse technologies that could significantly affect every category of commercial and military product. MEMS and Nanotechnology are already used for tasks ranging from in-dwelling blood pressure monitoring to active suspension systems for automobiles. The nature of MEMS and Nanotechnology and its diversity of useful applications make it potentially a far more pervasive technology than even integrated circuit microchips. Second, MEMS and Nanotechnology blurs the distinction between complex mechanical systems and integrated circuit electronics. Historically, sensors and actuators are the most costly and unreliable part of a macroscale sensor-actuator-electronics system. MEMS and Nanotechnology allows these complex electromechanical systems to be manufactured using batch fabrication techniques, decreasing the cost and increasing the reliability of the sensors and actuators to equal those of integrated circuits. Yet, even though the performance of MEMS and Nano devices is expected to be superior to macroscale components and systems, the price is predicted to be much lower.
September 13, 2008
Fabricating MEMS and Nanotechnology
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8 comments:
i would like to know the best technology thats being used to fabricate mems devices. as making such small gears and cantilevers is a really difficult task.
plz guide me
As far as I know the best suited technology for fabicating MEMS devices is using batch fabrication techniques similar to those used for integrated circuits, and uniting these electromechanical elements together with electronics.
You can get more information on this if you search on ieee.com or something related.....
Thankyou for providing the basic and good information about MEMS and its fabrication techniques.
It was really helpful.
another good news, texas instruments is going to setup mems research and fabrication plant in india, as soon as possible.
well, can you tell me some way by wwhich we can use AFM microscope to construct nano-particles, as i heard that and i am sure that they are indeed used to make nano-particles. please find-out some text to get a few ideas regarding that.
well, i know some of the techniques for which afm can be used to construct or make some nano-particles, actually afm is used only when we need to analyse the surface, but when we need to know about the nature of atoms, we have to switch over to the electron microscope (TEM). although AFM is a stste-of-art microscope, but it has its limitations, it can anly be used to analyze the surface, where as TEM as many many applications.
Fabrication in terms requires a hell lot of technology and technique along with a versatile concept of engineering and technology. This all would might be very complicated. Isn't IT ?
as per my information, Texas instruments have commercially launched this thing better known as DLPs. luckily i got a chance to see one of this stuff in Mumbai but the point is the things r quite costly as compared to the older technology. a lot more is to be done regarding this issue. anyways keeps posting some good stuff like this.
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