overview: engineering the iot for healthcare

15
1 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential Overview: Engineering the IoT for HealthCare Vic Kulkarni VP & GM ANSYS, San Jose, CA. May 24, 2016 PLM Road Map™ 2016 for High Tech & Medical Devices Communities

Upload: others

Post on 24-Feb-2022

6 views

Category:

Documents


0 download

TRANSCRIPT

Page 1: Overview: Engineering the IoT for HealthCare

1 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

Overview: Engineering the IoT for HealthCare

Vic KulkarniVP & GM

ANSYS, San Jose, CA.

May 24, 2016

PLM Road Map™ 2016 for High Tech & Medical Devices Communities

Page 2: Overview: Engineering the IoT for HealthCare

2 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

Contents

ANSYS @ a Glance

Medical device technology trends and challenges

Importance of simulation-driven product design

Customer successes Virtual prototyping for medical devices

Summary

Page 3: Overview: Engineering the IoT for HealthCare

3 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

Simulation Driven Development

END OF LIFEOPERATEMANUFACTUREDESIGN OPERATEMANUFACTUREDESIGNCONCEPT

Validation &Verification

ProductRequirements System

Design

RobustDesign

ChangeManagement

Validation &Verification

ProductRequirements System

Design

RobustDesign

ChangeManagement

VIRTUALPROTOTYPE

Page 4: Overview: Engineering the IoT for HealthCare

4 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

Examples of ANSYS Solutions for IoT Products

Chemring TechnologyDeveloping wireless connectivity

MedtronicPredicting specific

absorption rate

PiaggioAccelerate development process by 3x

SubaruReduce software development time

GrundfosReduce pump

design time by 30%

Page 5: Overview: Engineering the IoT for HealthCare

5 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

Medical and Wearable Device Trends

New requirements emerging

Power efficiency

Wireless connectivity/charging

Low distortion

Increasing complexity

Reliability, functionality key drivers

Unintentional discharge paths

Emission compliance (EMI/RFI)

Device trends

Faster, low power devices

Integration, miniaturization

Cost sensitive design decisions

Page 6: Overview: Engineering the IoT for HealthCare

6 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

At the heart of it all: The Human Body!

• Extremely detailed body models • Over 300 objects

• Variable BMI• Posed shell models• Compliance phantom models

In partnership with NEVA

Page 7: Overview: Engineering the IoT for HealthCare

7 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

Case Study: Synapse Increases Antenna Range by 5X

Objective

• Deliver reliable wireless connection without creating health hazard

• Optimize power consumption, size, aspect ratio, and weight

Results

• Increased antenna range by 5X

• Reduced design cycle by 25%

ANSYS Solution: Antenna Design and Placement

Synapse uses ANSYS HFSS and the ANSYS human body model to evaluate performance of various antenna designs by modeling the complete system, including the wireless device and antenna and their interactions with the human body

Page 8: Overview: Engineering the IoT for HealthCare

8 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

Customer Success: Chip-Level Achieving Power Efficient DesignsRTL Power Analysis with Apache PowerArtist

Carvalho, et. al. 2014 ESSS Conference & ANSYS Users Meeting

High-power sub-modules identified

75% reduction in dynamic power

after RTL re-design

Digital Hearing Aid IC

Low Power / Design cost

Power 4x over target

Identify & rank highest power

submodules

Page 9: Overview: Engineering the IoT for HealthCare

9 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

ANSYS Virtual Prototyping:End-to-End Chip-Package-System (CPS) Simulation

• Feature Implementation• Power Optimization

• Power System Design• Thermal Validation•Mechanical Verification

• Component Selection• Power delivery

planning• Compliance checking

• Chip/ Package Co-Simulation

Page 10: Overview: Engineering the IoT for HealthCare

10 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

ANSYS SmartWatch

ANSYS Wristband Model:

• Perform Health Tracking (Blood pressure, blood rate, etc…)

• Stream music via Bluetooth speakers,

• Display Smart Watch functions on LCD

– Key Electronics Systems

• Omni-directional Antennas

• 3 layers board within 4X4cm

• Wireless power charging

– Key Mechanical Challenges

• Impact resistant

• Manufacturability

• Comfortable to wear

– Control System

• Control two wireless systems simultaneously

• Generate a robust code to ensure accurate measurement and display of health data

Page 11: Overview: Engineering the IoT for HealthCare

11 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

Designing for the Real-World: Co-Existence

Noise Source 1

Noise Source 2

Transmitter

Receiver

Page 12: Overview: Engineering the IoT for HealthCare

12 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

From Power to Thermal: User Experience

• EM Performance On-Body• Thermal Performance for

comfortable user experience

ANSYS Workbench: Coupled Physics

Page 13: Overview: Engineering the IoT for HealthCare

13 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

From Chip to System: Simulation Success Stories

Antenna Design Wireless Charging MR Compliance

Page 14: Overview: Engineering the IoT for HealthCare

14 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

Summary

• Real-time / continuous monitoring of health vitals is enabled by medical IoT

• IoT devices have specific design challenges which include:• Wireless communication (antenna design / integration)

• Low power consumption

• Signal integrity in miniaturized and flex PCBs

• Co-existence with other devices

• Design for manufacturability and ruggedness

ANSYS Electronics Desktop enables optimal design of medical IoT devices from the chip-level to the full system

Page 15: Overview: Engineering the IoT for HealthCare

15 © 2015 ANSYS, Inc. May 18, 2016 ANSYS Confidential

Thank you