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Feature sponsored by Test & measurement


encoders - can be used to predict how much wear different parts experience, and therefore when they will need replacing.


AS SMART AS POSSIBLE Robots that work precisely and safely on complex tasks rely on sensors that perform reliably and exactly as intended. A smart sensor combines a sensing element, signal conditioning, signal processing and a communications link, either wired or wireless. The variable monitored by these sensors is typically analogue, but must be converted to a digital signal in order for the data to be analysed and used. This can be done with several off-the-shelf integrated circuits (ICs), but in order to optimise and differentiate performance, system engineers should consider an application specific intergrated circuit (ASIC). ASICs are designed with a specific function in mind and


allow for investment in performance where it matters most, helping to meet the manufacturer’s exact requirements and separating them from the competition. When designing an ASIC for a robotic


  





requirements, as an


example. This results in the customer eradicating the need for


application, the ASIC design company will integrate as many components as possible into a single package. This may include the sensor where practical, or the project may demand that the sensor is situated outside of the ASIC, or co-packaged in a System in Package (SiP) configuration. This is also true for the microcontroller and the communications element, where an optimised approach can be adopted as to whether to integrate into the silicon or to co-package with other bare die. Both approaches significantly reduce the system component count, which as a result, increases systems robustness and reliability. ASICs also provide major benefits when considering obsolescence. Before the ASIC design stage is commenced, a silicon process is identified that not only provides the required performance attributes but also delivers the required longevity for the expected product lifetime. However, in rare occurrences, an ASIC supplier will work closely with the customer to produce a non-obsolescence plan, using techniques such as storing wafers in dry nitrogen cupboards for up to 30 years, which will provide a die bank for future


Instrumentation Monthly November 2022


costly system redesign and requalification. Swindon has a non- obsolescence policy, meaning its ASICs are manufactured with non- obsolescence in mind, so they can be supplied for the lifetime of the product. Intellectual Property (IP) protection is a


key ASIC strength and Swindon provides its customers full ownership of the completed system design, to ensure their system IP benefits them, and them alone. Choosing an ASIC partner that does not sell standard parts, such as Swindon, will also alleviate the risk of your IP potentially being used at a future date in an in-house product. Looking to the future, we can expect the popularity of industrial robots to continue its upward trend. It seems likely that the robots of the future will be able to perform more complex tasks with ever increasing accuracy and control. Smart sensors will be fundamental in this advancement, and manufacturers who choose the ASIC route can be sure that their sensor will be unique, reliable, robust, and perform to their exact requirements for the lifetime of their product.


Swindon Silicon Systems www.swindonsilicon.com


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