DS4830EVKIT# Maxim Integrated, DS4830EVKIT# Datasheet

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DS4830EVKIT#

Manufacturer Part Number
DS4830EVKIT#
Description
Development Boards & Kits - Other Processors DS4830 Eval Kit
Manufacturer
Maxim Integrated
Datasheet

Specifications of DS4830EVKIT#

Rohs
yes
Product
Evaluation Kits
Tool Is For Evaluation Of
DS4830
Interface Type
I2C
Operating Supply Voltage
3 V to 3.6 V
Part # Aliases
90-4830T#EVK
The DS4830 provides a complete optical control, cali-
bration, and monitor solution with a low-power, 16-bit,
MAXQ20 microcontroller core providing generous pro-
gram and RAM data memory. I/O resources include
a fast/accurate analog-to-digital converter (ADC), fast
comparators with an internal comparison digital-to-ana-
log converter (DAC), 12-bit DACs, 12-bit PWMs, internal
and external temperature sensors, fast sample/hold, I
slave host interface, and a multiprotocol serial master/
slave interface. Direct connection of diode-connected
transistors, used as remote temperature sensors, is
supported as well as expansion to a virtually unlimited
number of external digital temperature sensor ICs using
the on-chip master I
I
processor in addition to password-protected in-system
reprogramming of the on-chip flash.
Ease of development is supported with highly versatile
C-compilers and development software that programs
flash and performs in-circuit debug through the integrat-
ed JTAG interface and associated hardware.
Ordering Information
Typical Application Circuit
MAXQ is a registered trademark of Maxim Integrated Products, Inc.
SPI is a trademark of Motorola, Inc.
For related parts and recommended products to use with this part, refer to:
Note: Some revisions of this device may incorporate deviations from published specifications known as errata. Multiple revisions of any device may
be simultaneously available through various sales channels. For information about device errata, go to: www.maximintegrated.com/errata.
For pricing, delivery, and ordering information, please contact Maxim Direct at
1-888-629-4642, or visit Maxim Integrated’s website at www.maximintegrated.com.
2
C interface facilitates communication to a host micro-
PON Diplexers and Triplexers: GPON, 10GEPON,
XPON OLT, ONU
Optical Transceivers: XFP, SFP, SFP+, QSFP,
40G, 100G
appears at end of data sheet.
2
C interface. An independent slave
General Description
appears at end of data sheet.
Applications
2
C
www.maximintegrated.com/DS4830.related
S 16-Bit MAXQ20 Low-Power Microcontroller
S Efficient C-Language Programming
S 36KWords Total Program Memory
S 1KWord Data RAM
S 8 DAC Channels
S 10 PWM Channels
S 10-Bit Fast Comparator with 16-Input Mux
S 13-Bit A/D Converter with 18-Input Mux (27ksps)
S Temperature Measurement Analog Front-End
S 31 GPIO Pins
S Maskable Interrupt Sources
S Internal 20MHz Oscillator, CPU Core Frequency 10MHz
S Up to 133MHz External Clock for PWM and Timers
S Slave Communication Interface: SPI™ or 400kHz
S Master Communication Interface: SPI, 400kHz I
S I
S Two 16-Bit Timers
S 3.0V to 3.6V Operating Voltage Range
S Brownout Monitors
S JTAG Port with In-System Debug and Programming
S Low Power Consumption (16mA) with All Analog
 32KWords Flash Program Memory
 4KWords ROM Program Memory
 12-Bit Voltage DACs
 Internal or External Reference
 Boost/Buck DC-DC Control with Support for
 Supports 4-Channel TECC H-Bridge Control
 1.6µs per Comparison
 Internal Temperature Sensor, ±3NC
 0.125NC Resolution
 Supports Two External Temperature Sensors
 Differential Rail-Rail Inputs
 4% Accurate from 0NC to +50NC
I
Compatible, or Maxim 3-Wire Laser Driver
Active
Optical Microcontroller
2
2
C-Compatible 2-Wire
C and JTAG Bootloader
7-Bit to 12-Bit Resolution and 1MHz Switching
Frequency
DS4830
19-5934; Rev 1; 10/11
Features
2
C-

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DS4830EVKIT# Summary of contents

Page 1

... Typical Application Circuit appears at end of data sheet. MAXQ is a registered trademark of Maxim Integrated Products, Inc. SPI is a trademark of Motorola, Inc. For related parts and recommended products to use with this part, refer to: Note: Some revisions of this device may incorporate deviations from published specifications known as errata. Multiple revisions of any device may be simultaneously available through various sales channels ...

Page 2

... PARAMETER Supply Current I Brownout Voltage Brownout Hysteresis 1.8V Regulator Initial Voltage 2.85V Regulator Initial Voltage Maxim Integrated Continuous Source Current ................20mA per pin, 50mA total Operating Temperature Range .......................... -40NC to +85NC Storage Temperature Range ............................ -55NC to +125NC + 0.3V)* Lead Temperature (soldering, 10s) ............................ …+300NC DD Soldering Temperature (reflow) .................................. …+260NC ...

Page 3

... Pullup Current: MDIO, MDI, MCL, MCS, All GPIO Pins GPIO Drive Strength, Extra Strong Outputs: GP0, GP1, MCS, PW8, PW9 GPIO Drive Strength, Strong Outputs: MDI, DACPW3, DACPW6 GPIO Drive Strength, Excluding Strong GPIO Outputs Maxim Integrated SYMBOL CONDITIONS f OSC +25NC (Note 5) A PERIPHERAL f ...

Page 4

... Fast Comparator Operating Current Fast Comparator Full Scale Fast Comparator Integral Nonlinearity Fast Comparator Differential Nonlinearity Fast Comparator Offset Fast Comparator Input Resistance Fast Comparator Input Capacitance Fast Comparator Sample Rate Maxim Integrated Optical Microcontroller SYMBOL CONDITIONS 2.5V internal reference 99% settled I Per channel DACS DACINL 12-bit at 2 ...

Page 5

... T = -40NC to +85NC, unless otherwise noted. Typical values are PARAMETER Sample/Hold Input Range Sample/Hold Capacitance Sample Input Leakage Sample Time Hold Time Sample Offset Sample Error Sample Discharge Strength Maxim Integrated SYMBOL CONDITIONS I ADC V FS-ADC1 V FS-ADC2 V FS-ADC3 V FS-ADC4 ADCINL ...

Page 6

... Rise Time of Both SDA/MSDA and SCL/MSCL Signals Fall Time of Both SDA/MSDA and SCL/MSCL Signals Setup Time for STOP Condition Spike Pulse Width That Can Be Suppressed by Input Filter SCL/MSCL and SDA/MSDA Input Capacitance SMBusTimeout Maxim Integrated Optical Microcontroller SYMBOL CONDITIONS t Mass erase ME t Page erase PE t ...

Page 7

... Inactive SSPICK Input Pulse-Width High/ Low SSPICS Active to First Shift Edge SSPIDI Input to SSPICK Sample Edge Rise/Fall Setup SSPIDI Input from SSPICK Sample Edge Transition Hold SSPIDO Output Valid After SSPICK Shift Edge Transition Maxim Integrated SYMBOL CONDITIONS f SCLOUT t 3WDC ...

Page 8

... Note 12: This device internally provides a hold time of at least 75ns for the SDA signal (referred to the V bridge the undefined region of the falling edge of SCL. Note 13: C —Total capacitance of one bus line in pF. B Note 14: Filters on SDA and SCL suppress noise spikes at the input buffers and delay the sampling instant. Maxim Integrated Optical Microcontroller SYMBOL CONDITIONS t SSH ...

Page 9

... Figure Timing Diagram WRITE MODE MCS t L MCL MDIO READ MODE MCS t L MCL MCS Figure 2. 3-Wire Timing Diagram Maxim Integrated HIGH t t HD:DAT SU:DAT REPEATED R ...

Page 10

... MSPIDO MSPIDI Figure 3. SPI Master Communications Timing Diagram SHIFT SSPICS t SSE (SAS = 1) 1/0 SSPICK 0/1 CKPOL/CKPHA 1/1 SSPICK 0/0 CKPOL/CKPHA SSPIDI SSPIDO Figure 4. SPI Slave Communications Timing Diagram Maxim Integrated Optical Microcontroller SAMPLE SHIFT SAMPLE t MSPICK t t MCH MCL t MOH t MOV MSB MSB MIS ...

Page 11

... TCK TMS/TDI TDO Figure 5. JTAG Timing Diagram Maxim Integrated Optical Microcontroller V REF DVTH THDX DS4830 Timing Diagrams (continued TLQ 11 ...

Page 12

... Digital RST 2 SCL Digital 3 SDA Digital 4 GP0 ADC/Digital Input 5 REG285 V REG 6 GP1 ADC/Digital Input Voltage Supply, ADC Input 8 GP2 SH Input, ADC Input Maxim Integrated TOP VIEW REFINA 31 DACPW0 32 DACPW1 33 34 DACPW2 DACPW3 35 DS4830 36 DACPW4 37 DACPW5 38 DACPW6 ...

Page 13

... GP14 ADC/Digital Input 22 GP15 ADC/Digital Input 23 SHEN Digital 24 MDIO Digital 25 MDI Digital 26 MCL Digital Maxim Integrated Optical Microcontroller OUTPUT POWER-ON STRUCTURE STATE (FIRST COLUMN IS DEFAULT FUNCTION) High None ADC-S3 Impedance Push-Pull 55µA Pullup JTAG TCK Push-Pull 55µA Pullup JTAG TDI Push-Pull 55µ ...

Page 14

... DACPW2 Digital 35 DACPW3 Digital 36 DACPW4 Digital 37 DACPW5 Digital 38 DACPW6 Digital Reference, ADC/ 39 REFINB Digital Input Maxim Integrated Optical Microcontroller OUTPUT POWER-ON STRUCTURE STATE (FIRST COLUMN IS DEFAULT FUNCTION) Push-Pull, 3-Wire Chip 55µA Pullup Extra Strong Select MCS None V ADC-VDD DD Push-Pull, 55µA Pullup ...

Page 15

... SSPICK, SSPICS, SSPIDI, SPI Slave Interface: SSPICK (Clock), SSPICS (Active-Low Chip Select), SSPIDI (Data In), SSPIDO SSPIDO (Data Out). In SPI slave mode, the I TCK, TDI, TDO, TMS JTAG Interface Pins. Also includes RST. Maxim Integrated Optical Microcontroller OUTPUT POWER-ON STRUCTURE STATE Push-Pull 55µ ...

Page 16

... GPIO PORT PINS SCL SLAVE: SDA SSPIDO SPI SSPICS DISCH SAMPLE/HOLD SHEN[1:0] ADC-SHP[1:0] ADC-SHN[1:0] Maxim Integrated CLOCK CONTROL, WATCHDOG TIMER, AND POWER MONITOR STACK MEMORY CKCN WDCN IC INTERRUPT ADDRESS LOGIC GENERATION IC IMR LOOP COUNTERS IIR BOOLEAN VARIABLE MANIPULATION ...

Page 17

... Module 3: Timer and Counter 2, MAC-Related Registers • Module 4: Digital-to-Analog Converter (DAC) • Module 5: Quick Trips, SPI Master, PWM MAXQ is a registered trademark of Maxim Integrated Products, Inc. SPI is a trademark of Motorola, Inc. Maxim Integrated The instruction set is composed of fixed-length, 16-bit instructions that operate on registers and memory loca- tions ...

Page 18

... More information on the utility ROM contents is contained in the DS4830 User’s Guide. Some applications require protection against unau- thorized viewing of program code memory. For these applications, access to in-system programming, in-appli- cation programming, or in-circuit debugging functions Maxim Integrated PROGRAM MEMORY SPACE FFFFh FFFFh 8FFFh ...

Page 19

... ADDRESS IS 36h (1Bh). IS I2C_SPE BIT SET? NO JUMP TO USER CODE (FLASH) AT 0000h. Figure 7. In-System Programming Maxim Integrated Optical Microcontroller Stack Memory system design as well as reduce the life-cycle cost of the embedded system. Programming can be password pro- tected to prevent unauthorized access to code memory. An internal bootstrap loader allows the device to be pro- ...

Page 20

... CORE CLOCK Figure 8. System Timing Maxim Integrated The device features several sources that can be used to reset the DS4830. An internal power-on-reset (POR) circuit is used to enhance system reliability. This circuit forces the device Register Set to perform a POR whenever a rising voltage on V ...

Page 21

... Each general-purpose timer/counter uses three SFRs. GTCN is the general control register, GTV is the timer value register, and GTC is the timer compare register. Maxim Integrated Optical Microcontroller The timer can be used in two modes: free-running mode and compare mode with interrupts. Both are described in detail in the DS4830 User’ ...

Page 22

... There are also two selectable external references. REFINA can be selected as the full-scale reference for DAC0 to DAC3. REFINB can be selected as the full-scale Maxim Integrated Optical Microcontroller reference for DAC4 to DAC7. The DAC outputs are volt- age buffered. Each DAC can be individually disabled and put into a low-power power-down mode using DACCFG ...

Page 23

... PGA ADGAIN ADCONV (START CONVERSATION) Figure 9. ADC Block Diagram Maxim Integrated Optical Microcontroller The ADCCLK is derived from the system clock with divi- sion ratio defined by the ADC control register. An A/D conversion takes 15 ADCCLK cycles to complete with additional four core clocks used for data processing. ...

Page 24

... Because the quick trips and the ADC use the same input pins, the controller ensures that no colli- sion takes place. SMBus is a trademark of Intel Corp. Maxim Integrated Optical Microcontroller The quick-trip-related SFRs are accessed in module 5. Refer to the quick trip section of the DS4830 User’s Guide for more information ...

Page 25

... I/O. However, the SSEL can optionally be used as a mode fault detection in master mode. Maxim Integrated Optical Microcontroller SPI Master Interface The master mode is used when the device’s SPI controls the data transmission rates and data format. The SPI is placed in master mode by setting the master mode bit (MSTM) ...

Page 26

... Debug mode can be invoked from background mode. • Debug mode allows the debug engine to take control of the CPU, providing read/write access to internal reg- isters and memory, and single-step trace operation. Maxim Integrated To achieve the best results when using the DS4830, DEBUG decouple the V tor. Use a high-quality, ceramic, surface-mount capaci- tor if possible ...

Page 27

... TEMP RANGE DS4830T+ -40NC to +85NC +Denotes a lead(Pb)-free/RoHS-compliant package Tape and reel. *EP = Exposed pad. Maxim Integrated Optical Microcontroller For the latest package outline information and land patterns (foot- PIN-PACKAGE prints www.maximintegrated.com/packages. Note that a 40 TQFN-EP* “+”, “#”, or “-” in the package code indicates RoHS status only. ...

Page 28

... MD DFB 25I 25I MD DFB 25I 25I MD DFB 25I 25I MD DFB 25I Maxim Integrated Optical Microcontroller Typical Application Circuit V (+3.3V) CC VCCT VSEL TOUTA R1 MAX3948 SCL TOUTC SDA VOUT CSEL VCCT VSEL TOUTA R2 MAX3948 SCL TOUTC SDA VOUT CSEL VCCT VSEL TOUTA ...

Page 29

... Maxim Integrated cannot assume responsibility for use of any circuitry other than circuitry entirely embodied in a Maxim Integrated product. No circuit patent licenses are implied. Maxim Integrated reserves the right to change the circuitry and specifications without notice at any time. The parametric values (min and max limits) shown in the Electrical Characteristics table are guaranteed ...

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