industry news
Subscribe Now

Baolab announces evaluation kits for its award winning NanoEMS MEMS – available to customers

Barcelona, Spain – 16 January 2012. Baolab Microsystems has announced that it will have evaluation kits of its recently announced 3D NanoCompass™ available at the end of February 2012. This electronic 3-axis CMOS MEMS NanoCompass technology uses Baolab’s patented, award winning NanoEMS™ technology to create nanoscale MEMS (Micro Electro Mechanical Systems) within the standard metal structure of a high volume manufactured CMOS wafer.

“We are now producing NanoEMS sensors in volume in a standard CMOS production line.” said Dave Doyle, Baolab’s CEO. “The move from lab to fab is a significant milestone for the company, proving that our innovative technology is reliable, scalable and repeatable. This was the critical stage that our customers have been waiting for. NanoEMS makes it much easier and more cost effective to integrate MEMS sensors with microcontrollers and associated electronics all on the same chip in the same CMOS production line. This is the breakthrough that will enable high volume, consumer electronics products to have intelligent sensors, meeting the increasing demand for smarter, more aware devices.

NanoEMS technology not only offers significant cost reductions in motion MEMS sensors but Baolab envisages the possibility for NanoEMS structures to be easily incorporated into ASICs for applications such as RF Antennas, RF switches, Near Field Communications and Automotive. Possible areas that Baolab and its customers are investigating are:

Vibrating antennas

These overcome the limitations of classic (static) antennas such as compact superdirective/superesolution antennas/lenses that require phase shifters and gains with an accuracy not currently realistic. Vibrating antennas make these feasible along with spatial multiplexing communications for mobile telecoms and internet.

Thermo-magnetic RF switches & antennas

By exploiting the low value of the Curie temperature of Nickel, it is possible to build RF switches, filters and reconfigurable antennas. This creates a novel category of reconfigurable RF MEMS components which are highly reliable, since there are no moving parts, achieving compelling RF specs, low power consumption and low cost thanks to CMOS processing.

Modal switches

This novel topology enables compelling specifications for RF switches with low-capacitance ratio and high isolation, using low cost, low resistivity CMOS substrates. The principle is based on transferring power from the different transmission modes in a transmission line, using reconfigurable MEMS loads to balance and unbalance the line.

Integrated passives: inductors, transformers, capacitors

Integrated inductors with a helicoidal shape typical of off-chip inductors, offer reduced losses (higher Q) and smaller parasitic capacitance (higher resonant frequency). It is also possible to create transformers with any winding ratio.

Integrated capacitors for low frequency applications, especially power, where the tangent capacitance is used instead of the traditional approach using secant capacitance. When capacitors are used in voltage regulators, only a small fraction of the charge stored in the capacitor is typically used to regulate the voltage. This kind of capacitor allows a higher percentage of the stored charge to be used to regulate the voltage, which makes it possible to implement smaller, integrated filters and regulators, with superior performance.

RF filters

The small feature size of CMOS processing makes it is possible to implement RF MEMS filters up to the GHz band required for cell phone communications and significantly increase the electromechanical coupling. Current MEMS RF mechanical filters have a problem with very low electromechanical coupling, which means low sensitivity, that they try to offset by means of using a very high voltage but with limited success.

Power converters

NanoEMS™ MEMS enable integrated charge pumps and power supplies, which are lower in cost, more compact and more efficient.

Baolab Microsystems www.baolab.com info@baolab.com Tel.: +34-93-394-17-70

Baolab has developed an innovative technology called NanoEMS™ that enables MEMS to be created inside the CMOS wafer using standard manufacturing techniques. This enables them to be made an order of magnitude smaller than existing techniques of building MEMS on the surface of the wafer and also at a fraction of the cost. Privately owned, Baolab is based in Barcelona, Spain.

To learn more about Boalab’s NanoEMS technology and products, visitwww.baolab.com/compass.htm or email info@baolab.com 

Leave a Reply

featured blogs
May 8, 2024
Learn how artificial intelligence of things (AIoT) applications at the edge rely on TSMC's N12e manufacturing processes and specialized semiconductor IP.The post How Synopsys IP and TSMC’s N12e Process are Driving AIoT appeared first on Chip Design....
May 2, 2024
I'm envisioning what one of these pieces would look like on the wall of my office. It would look awesome!...

featured video

Why Wiwynn Energy-Optimized Data Center IT Solutions Use Cadence Optimality Explorer

Sponsored by Cadence Design Systems

In the AI era, as the signal-data rate increases, the signal integrity challenges in server designs also increase. Wiwynn provides hyperscale data centers with innovative cloud IT infrastructure, bringing the best total cost of ownership (TCO), energy, and energy-itemized IT solutions from the cloud to the edge.

Learn more about how Wiwynn is developing a new methodology for PCB designs with Cadence’s Optimality Intelligent System Explorer and Clarity 3D Solver.

featured paper

Altera® FPGAs and SoCs with FPGA AI Suite and OpenVINO™ Toolkit Drive Embedded/Edge AI/Machine Learning Applications

Sponsored by Intel

Describes the emerging use cases of FPGA-based AI inference in edge and custom AI applications, and software and hardware solutions for edge FPGA AI.

Click here to read more

featured chalk talk

GaN Solutions Featuring EcoGaN™ and Nano Pulse Control
In this episode of Chalk Talk, Amelia Dalton and Kengo Ohmori from ROHM Semiconductor examine the details and benefits of ROHM Semiconductor’s new lineup of EcoGaN™ Power Stage ICs that can reduce the component count by 99% and the power loss of your next design by 55%. They also investigate ROHM’s Ultra-High-Speed Control IC Technology called Nano Pulse Control that maximizes the performance of GaN devices.
Oct 9, 2023
27,054 views