Microchip Technology Incorporated · NASDAQ:MCHP

Microchip Technology — Investor Presentation (March 2012)

33 slides from Microchip Technology's investor presentation, March 2012

  1. Slide 1: Cost-Effective Advanced Analog and Digital Integration

    Cost-Effective Advanced Analog and Digital Integration

  2. Slide 2: PIC16(L)F178X

    PIC16(L)F178X 28-/40-pin Advanced Analog MCU Family  8-bit MCUs with cost-effective advanced analog and digital integration  12-bit ADC  8-bit DAC  Operational Amplifiers (Op Amps) with Rail-to-Rail input/output  High performance Rail-to-Rail Comparators  Programmable Switch Mode Controller 

  3. Slide 3: PIC16F178X Family: Features/Memory

    PIC16F178X Family PIC16F1786 PIC16F1787 14KB/256EE/1K 14KB/256EE/1K 2x PSMC 3x PSMC Production Features/Memory 11x12-bit A/D 14x12-bit A/D Available Now 8-bit DAC, 2x OpAmp 8-bit DAC, 3x OpAmp 3x Fast Comp 4x Fast Comp Design Available April PIC16F1783 PIC16F1784 7KB/256EE/512 7KB/256EE/512 2x PSMC

  4. Slide 4: Target Markets & Applications

    PIC16(L)F178X MCUs Target Markets & Applications  Lighting  LED/Fluorescent  Automotive  Flashlights  Emergency  Battery Charging  CC/CV, NiCD, NiMH  PB, NaZN, Li-Ion  Energy Harvesting (e.g.,Solar)  Switch-Mode Power Supplies  DC-to-DC  AC-to-DC  Motor Control  BLDC/BDC, Stepper, AC I

  5. Slide 5: Key Peripherals

    MICROCHIP \ MICROCHIP Program Memory Up to 14 KB (8K Instructions) Self Read & Write Capabilities a 16-Level Stack & Program Counter Reset Capabilities 8-bit DAC Featured Peripherals Op-Amp PSMC Fast Comparators Up to (3) Up to (3) Up to (4) ora Key Peripherals PIC16F178X Block Diagram EWDT, RTC, BO

  6. Slide 6: Application Example: LED Buck Convertor

    Application Example: LED Buck Convertor PIC16F178X 6

  7. Slide 7: Application Example: LED Buck Convertor (Cont'd)

    Application Example: LED Buck Convertor (Cont’d) PIC16F178X High-Voltage MOSFET Drive Stage MOSFET Driver 7

  8. Slide 8: Application Example: LED Buck Convertor (Cont'd)

    Application Example: LED Buck Convertor (Cont’d) 16-bit PWM with dedicated 64 MHz clock 6 steerable outputs or 3 steerable output pairs Blanking Control for transient filtering Independent rising/falling output control Dead band with independent rise & fall control Polarity Control / Auto Shutdown &

  9. Slide 9: Application Example: LED Buck Convertor (Cont'd)

    Application Example: LED Buck Convertor (Cont’d) 16-bit PWM with dedicated 64 MHz clock 6 steerable outputs or 3 steerable output pairs Blanking Control for transient filtering Independent rising/falling output control Dead band with independent rise & fall control Polarity Control / Auto Shutdown &

  10. Slide 10: Application Example: LED Buck Convertor (Cont'd)

    Application Example: LED Buck Convertor (Cont’d) 16-bit PWM with dedicated 64 MHz clock 6 steerable outputs or 3 steerable output pairs Blanking Control for transient filtering Independent rising/falling output control Dead band with independent rise & fall control Polarity Control / Auto Shutdown &

  11. Slide 11: Application Example: LED Buck Convertor (Cont'd)

    Application Example: LED Buck Convertor (Cont’d) 16-bit PWM with dedicated 64 MHz clock 6 steerable outputs or 3 steerable output pairs Blanking Control for transient filtering Independent rising/falling output control Dead band with independent rise & fall control Polarity Control / Auto Shutdown &

  12. Slide 12: Application Example: LED Buck Convertor (Cont'd)

    Application Example: LED Buck Convertor (Cont’d) 16-bit PWM with dedicated 64 MHz clock 6 steerable outputs or 3 steerable output pairs Blanking Control for transient filtering Independent rising/falling output control Dead band with independent rise & fall control Polarity Control / Auto Shutdown &

  13. Slide 13: Application Example: LED Buck Convertor (Cont'd)

    Application Example: LED Buck Convertor (Cont’d) 16-bit PWM with dedicated 64 MHz clock • High-efficiency, closed-loop control with fast switching speeds 6 steerable outputs or 3 steerable output pairs Blanking Control for transient filtering • Cost-effective integration with BOM reductions Independ

  14. Slide 14: Application Example: Sensorless 3-Phase BLDC Motor Control

    Application Example: Sensorless 3-Phase BLDC Motor Control PIC16F178X 14

  15. Slide 15: Sensorless 3-Phase BLDC Motor Control (Cont'd)

    Application Example: Sensorless 3-Phase BLDC Motor Control (Cont’d) PIC16F178X High-Voltage MOSFET Drive Stage 15

  16. Slide 16: Sensorless 3-Phase BLDC Motor Control (Cont'd)

    Application Example: Sensorless 3-Phase BLDC Motor Control (Cont’d) 16-bit PWM with dedicated 64 MHz clock 6 steerable outputs or 3 steerable output pairs Blanking Control for transient filtering Independent rising/falling output control Dead band with independent rise & fall control Polarity Contro

  17. Slide 17: Sensorless 3-Phase BLDC Motor Control (Cont'd)

    Application Example: Sensorless 3-Phase BLDC Motor Control (Cont’d) 16-bit PWM with dedicated 64 MHz clock 6 steerable outputs or 3 steerable output pairs Blanking Control for transient filtering Independent rising/falling output control Dead band with independent rise & fall control Polarity Contro

  18. Slide 18: Sensorless 3-Phase BLDC Motor Control (Cont'd)

    Application Example: Sensorless 3-Phase BLDC Motor Control (Cont’d) 16-bit PWM with dedicated 64 MHz clock 6 steerable outputs or 3 steerable output pairs Blanking Control for transient filtering Independent rising/falling output control Dead band with independent rise & fall control Polarity Contro

  19. Slide 19: Sensorless 3-Phase BLDC Motor Control (Cont'd)

    Application Example: Sensorless 3-Phase BLDC Motor Control (Cont’d) 16-bit PWM with dedicated 64 MHz clock 6 steerable outputs or 3 steerable output pairs Blanking Control for transient filtering Independent rising/falling output control Dead band with independent rise & fall control Polarity Contro

  20. Slide 20: Sensorless 3-Phase BLDC Motor Control (Cont'd)

    Application Example: Sensorless 3-Phase BLDC Motor Control (Cont’d) 16-bit PWM with dedicated 64 MHz clock • High-efficiency closed-loop control enabling higher RPMs 6 steerable outputs or 3 steerable output pairs Blanking Control for transient filtering • Cost effective integration with BOM reducti

  21. Slide 21: Pricing & Availability

    Pricing & Availability  Pricing  28-pin – PIC16(L)F1782, PIC16(L)F1783, and PIC16(L)F1786  SPDIP, SOIC, SSOP, 6 x 6 mm QFN, 4 x 4 mm UQFN  10 ku Pricing Starting at $1.18 each  40-pin – PIC16(L)F1784, and PIC16(L)F1787  PDIP, TQFP, 8 x 8 mm QFN, 5 x 5 mm UQFN  10 ku Pricing Starting at $1.47

  22. Slide 22: Tool Support

    Tool Support  Assembly & “C” code development and debug  Free MPLAB® X IDE Integrated Development Environment  MPLAB XC8 Compiler available as a Free download  Go to www.microchip.com/FREE  Third-party C compiler support  CCS, microEngineering Labs, and Byte Craft Limited  For more informatio

  23. Slide 23: Summary

    Summary  8-bit MCUs with cost effective advanced analog and digital integration  12-bit ADC  8-bit DAC  Op Amps with Rail-to-Rail input/output  High-performance Rail-to-Rail comparators  Programmable Switch Mode Controller  Advanced 16-bit PWM capabilities  Enables highest level of advanced

  24. Slide 24: Thank You

    Thank You Note: The Microchip name and logo, MPLAB and PIC are registered trademarks of Microchip Technology Inc. in the U.S.A., and other countries. mTouch is a trademark of Microchip Technology Inc. in the U.S.A. and other countries. All other trademarks mentioned herein are property of their resp

  25. Slide 25: Additional Information

    MICROCHIP Additional Information

  26. Slide 26: Integrated Peripheral Benefits

    Integrated Peripheral Benefits Feature Benefit Result 12-/10-bit Analog-to-Digital Increased ADC resolution and Accurate low-voltage Converter with software- ability to implement Low- analog signal reads selectable references Voltage Detect Measure remaining battery voltage 50 nS fast comparators In

  27. Slide 27: Integrated Peripheral Benefits (Cont'd)

    Integrated Peripheral Benefits (Cont’d) Feature Benefit Result Programmable Switch Advanced, high-speed Customizable, high- Mode Controller 16-bit PWM capabilities with: speed PWMs with (PSMC) 28-pin: 8 outputs increased resolution and control 40-pin: 14 outputs Integrated Operational Increased anal

  28. Slide 28: Programmable Switch Mode Controller (PSMC)

    Programmable Switch Mode Controller (PSMC) Industry’s best 16-bit PWM capabilities for power supplies, motor control, and lighting  Various Clock Sources: External, System Clock, Independent 64 MHz  Various input sources: Comparators, External Pins  Blanking Control for transient filtering 1  Si

  29. Slide 29: ADC, Comparators, & FVR

    ADC, Comparators, & FVR FVR  Integrated 10-/12-bit Differential ADC VDD DAC  10-bit and 12-bit modes  Up-to 14 single input channels: 7 differential channels up-to 14  Selectable References: FVR, DAC, or external pin channels ADC 12 bit result  100 ksps conversion rate VSS  High-Performance Co

  30. Slide 30: Operational Amplifier

    Operational Amplifier Integrated PIC16F178X Op-Amp  Modeled after Microchip’s MCP6001 op amp  Rail-to-Rail Input/Output  Gain Bandwidth Product (GBWP) Up to 3 Op Amps  3 MHz (Fast Mode)  100 kHz (Slow Mode) V+ FVR Vout  Multiple Input Sources DAC Op Amp  External Pin V-  Fixed Voltage Refere

  31. Slide 31: 8-bit Digital-to-Analog Converter (DAC)

    8-bit Digital-to-Analog Converter (DAC) • Simple resistor-ladder topology VDD VSRC+ = 1.8V 5V FVR • 256 voltage steps: VREF+ • R(0)  R(255) R(255) • Multiple voltage references R(254) • Vdd/Vss • Fixed Voltage Reference (FVR) • External Pin Full Range R(xx) 20mV 7.0 mV Comparator R(xx) Vout ADC • D

  32. Slide 32: eXtreme Low Power Operation

    eXtreme Low Power Operation XLP Technology – The Industry Standard for Low Power XLP Requirements PIC16LF178X * @ 1.8V, 4 MHz (EC mode) SLEEP Mode < 100 nA 50 nA Extended Watchdog Timer < 800 nA 500 nA Timer1 Oscillator (T1OSC) < 800 nA 500 nA Low Power Not Applicable 0.5 µA @ 3V Brown Out Reset (LP

  33. Slide 33: Smallest Form Factors

    Smallest Form Factors Packaging Evolution 28-pin Package Options & Footprints 40/44-pin Package Options & Footprints PIC16(L)F1782, PIC16(L)F1783, PIC16(L)F1786 PIC16(L)F1784, PIC16(L)F1787 34.3 x 7.4 x 5.1 mm (SPDIP) 50.3 x 15 x 6.35 mm (PDIP) 27% reduction 81% 17.9 x 10.3 x 2.1 mm reduction (SOIC)

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