Michael Judy, Ph.D. Email & Phone Number

Cambridge, Massachusetts, United States

Wilmington, Massachusetts, United States

• Member of Technology Council working to identify, promote and execute next-generation technology development and investments for the entire ADEF organization. Michael’s focus was on multi-physics applications such as.
• Submitted 3 proposals to the Chips Act. Two on phased array radar system and one on high-performance inertial measurement unit.
• Initiated, advocated, and oversaw the University-funded program on a Quantum Gyroscope (MIT).
• Technical Liaison of COGNISENSE Jump 2.0 SRC program – summarized technology progress and connected it with appropriate internal technology roadmap and team.

Wilmington, MA

• Assessed and developed new and disruptive technologies and applications for the Inertial Technology Group. As the senior technical consultant also tasked with assisting and mentoring the entire organization to.
• Resolved complex and intermittent gyroscope offset and sensitivity jumps multiple times which were due to modal and manufacturing interactions.
• Resolved serious particle problems multiple times which were due to process changes and subtle design rule errors which lead to particle generation.
• Resolved stiction challenges on multiple accelerometer products through modifications of designs and process.
• Championed and created prototypes of battery-less passive wireless SAW sensing platform initially designed as temperature sensor.

Wilmington, Massachusetts, United States

• Overall responsibility of ADI’s flagship internal technical conference (GTC) with a multiple million-dollar budget reporting to CTO. Director of large diverse organizing team of several hundred across the world.
• Steered conference and team through COVID pandemic.
• Successful transition to hybrid event.
• Doubled participation to over 5000 attendees.

Wilmington, Massachusetts, United States

• Member of VP staff responsible for MEMS Technology Roadmap as well as improving the success and speed of next generation technology adoption. This was in addition to the core responsibility of driving execution of MEMS.
• Championed and drove several next generation inertial sensor process platforms to improve offset and sensitivity performance. The goal was to improve performance per square centimeter and cost.
• Formalized and advocated Advanced Technology development process across organization including business impact analysis. This included technology to improve core inertial as well as non-inertial sensors.
• Cumulative revenue of MEMS design team’s products over the prior 10 years was $2B which included the ADXL700, ADXL355, ADXL362, ADXL150, ADXRS620, ADXRS800 and IMU product families.

Wilmington, Massachusetts, United States

• Promoted to Director of MEMS Design Team and grew team to 18 designers. Member of VP staff responsible for MEMS Technology Roadmaps as well as on-time MEMS Design development and quick problem solving for customer.
• Successfully transitioned MEMS Only process to 200mm platform and full foundry flow.
• Successfully transferred internal MEMS fab and products from Cambridge to Wilmington site in 18 months.
• Successfully released three Microphone generations each with significant improvements in sensitivity and robustness to the most demanding application requirements. Annual peak revenue exceeded $100M.
• Successfully developed CMUT prototype for integration into ultrasound applications which was based on the microphone core process.

Cambridge, Massachusetts, United States

• Accountable for building all aspects of the first MEMS Design function within ADI. This included building a diverse high-performance team to the design flow as well as improving modeling accuracy and efficiency. Acted.
• Successfully promoted the function of MEMS Design with management and served as initial manager.
• Lead MEMS Designer of ADXL76, ADXL78, ADXL202, ADXL330 and ADXL335 product families which brought in a total of over $1B in revenue. ADXL330 was the industry’s first three axis MEMS accelerometer and was the enabling.
• Successfully developed optical cross-point switch prototype based on MEMS mirrors integrated with 200V CMOS as well as several other optical MEMS components with external partners.
• Successfully developed and released initial MEMS microphone product.

Bachelor Of Science - Bs, Electrical And Electronics Engineering

Phd, Electrical Enginnering, Mems

Activities and Societies: BSAC