Ken Cowan

Electrical Engineering Manager at Kestra Medical Technologies, Inc.
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Contact Information
us****@****om
(386) 825-5501
Location
Kirkland, Washington, United States, US

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Experience

    • United States
    • Medical Equipment Manufacturing
    • 100 - 200 Employee
    • Electrical Engineering Manager
      • Jan 2019 - Present

      Leading the Electrical Design and Hardware Verification groups at Kestra. Leading the Electrical Design and Hardware Verification groups at Kestra.

    • United States
    • Medical Equipment Manufacturing
    • 200 - 300 Employee
    • Electrical Engineering Manager
      • Aug 2014 - Dec 2018

      Responsible for electrical development planning, electrical architecture, circuit design and verification. Leading a team to design ECG sensing circuits, high voltage therapy delivery circuits, system control and power supplies. Overcoming significant challenges in reducing component and packaging sizes and power requirements.

    • Principal Electrical Engineer
      • Nov 2010 - Aug 2014

      Sustaining Engineering work on the LPCR+, LP1000 and LP15 Lifepak Defibrillators. Then lead electrical engineer on a new product platform for Physio. Responsible for electrical development planning, electrical architecture, circuit design and verification. Leading a team to design ECG sensing circuits, high voltage therapy delivery circuits, system control and power supplies.

    • Sr. Electrical Engineer
      • Oct 2010 - Dec 2013

      Sustaining engineering for defibrillator product line. Implementing design changes on analog PCBs to mitigate part obsolescence issues. Circuit changes include a new HV capacitor charger and other low voltage power supply improvements. Schematic capture, circuit analysis and simulation, derating analysis, verification testing, EMI testing, component qualification, root cause analysis of various design issues and design documentation.

    • United States
    • Medical Equipment Manufacturing
    • 700 & Above Employee
    • Fellow, Electrical Engineer
      • Apr 2006 - Oct 2010

      • Lead engineer responsible for electrical design analysis testing on a new pacemaker product. • Developed numerous test apparatus designed to automate analysis testing and EMI susceptibility testing. • Automated design verification tests using PXI test instruments and custom test fixtures. • Key designer of system developed to measure RF current induced in leads of pacemaker in MRI environment. Responsible for CPLDs to drive ADCs, DACs and optical serial link encoding, decoding and data storage. • Developed protocols and reports and performed electromagnetic compatibility testing on defibrillator products. • Led a change to the delivered energy trim process to improve the quality of implantable defibrillator devices. • Led a team to find root cause of a telemetry related field trend. • Member of a team that developed a 2nd generation RF telemetry system/protocol with frequency hopping for future products. Responsible for the digital IC design in Verilog. Synthesized design on an FPGA prototype platform and developed a fully working system. Show less

    • Advisor, Electrical Engineer
      • Jan 1999 - Apr 2006

      • Member of a team that added the first RF telemetry functionality to the company’s implantable defibrillators. Involved in the protocol development and did the digital IC design in Verilog and VHDL on a mixed language ASIC. Fully engaged through SCAN insertion, synthesis, timing analysis and verification. • Developed a protocol and automatic test system to measure sensitivity and specificity of Guidant’s implantable defibrillators. The test applied recorded electrograms containing various arrhythmias to the device inputs and recorded its responses. The results were submitted to the FDA in support of a new algorithm which classifies rhythms and determines when therapy is to be delivered. • Technical Lead of Test Group on Hardware Design Team. Responsible for design analysis and design verification testing of hardware for the company’s next generation automatic implantable defibrillator / pacemaker. Also, responsible for design and development of the system breadboard (PC board equivalent of the defibrillator hardware to be used in software development) production test development of the completed product and all laboratory equipment support for Redmond design team. Test generation includes: • Digital IC, ATPG SCAN and functional test vectors implemented on IMS Blazer test system. • Flex circuit, Boundary SCAN and functional testing using GPIB / VXI test system. • Completed product, functional tests using GPIB / VXI test system, software developed in LabVIEW. • Member of team that developed a new production test system for the company’s defibrillators. Contained programmable resistive loads, amplifiers, buffers, multiplexers, HV shock generator, and hundreds of relays. Show less

    • Test Engineering Manager
      • Aug 1992 - Jan 1999

      • Led a department of 4 engineers and 4 technicians that developed and maintained all manual and automated test systems for the company. • Group developed tests for the company’s main product, an implantable atrial defibrillator and components including custom analog and digital ICs. All test systems and software were documented and validated per QSR/GMP and ISO standards. • Developed a LabVIEW test executive to be used on custom test systems. • Developed an SQL database and user interface to store all test data from all test systems. • Provided all maintenance and support functions for production relating to test. • Worked closely with design engineering on development of a new defibrillator encouraging a design for test philosophy • Developed characterization and production tests for custom analog and digital CMOS ICs on the Eagle mixed signal test system. Test programs developed in C, vector generation accomplished using Verilog. • Developed a test system using GPIB and data acquisition equipment for testing the hybrid components. System was controlled by a PC running LabVIEW software. • Developed a general purpose VXI / GPIB test system (ELVIS) to functionally test the implantable device, the high voltage hybrid and other components. This system was also controlled by PC / LabVIEW. Designed a custom VXI card for the ELVIS system. Designed fixtures to interface the implantable device and components to the test system. • Served as lead for the department, performed all management, hiring and annual review functions. Show less

    • Project Engineer
      • Oct 1986 - Aug 1992

      • Developed test systems, test adapters and software for testing custom hybrid microelectronics. • Developed the test shell software (test executive) and hybrid tests on the HP82000 high speed digital test system. • Developed a complete test system for testing a power H bridge hybrid (500V, 25A), system included an STI5150 3 terminal device tester, DMM relay matrix, PC and cabinet. Implemented fixture designs using ORCAD. • Developed automatic tests for other hybrids using a PC, GPIB equipment and Summation Test Basic software. • Managed 25 custom hybrid projects through design, production and test. Project engineering responsibilities included selecting components, creating parts list and component source control drawings, working with customer to finalize schematic, perform circuit and thermal analysis, supervise layout, develop manual and automatic test fixtures and procedures, troubleshoot, test, and deliver prototypes Show less

    • Semiconductor Manufacturing
    • 400 - 500 Employee
    • Design Engineer
      • Jun 1984 - Jun 1986

      • Co-designed the first integrated Ethernet transceiver, DP8392. Bipolar design, SPICE simulation. • Designed the bipolar TURBOTRANSCEIVERTM, DP3893 a very high speed (Back then!) bus transceiver. • Co-designed the first integrated Ethernet transceiver, DP8392. Bipolar design, SPICE simulation. • Designed the bipolar TURBOTRANSCEIVERTM, DP3893 a very high speed (Back then!) bus transceiver.

Education

  • Washington State University
    BS, Electrical Engineering
    1980 - 1984

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