DATASHEET SEARCH SITE | WWW.ALLDATASHEET.COM
Document overview
- Manufacturer or author: Provided By ALLDATASHEET.COM(FREE DATASHEET DOWNLOAD SITE)
- PDF pages: 97
Technical content
Datasheet Release Date 2015-09-25 for CFA533-***-KC Series CFA533-TFH-KC CFA533-TMI-KC CFA533-YYH-KC Hardware Version: v1.1, Firmware Version: c1.1 Crystalfontz America, Incorporated
12412 East Saltese Avenue
Spokane Valley, WA 99216-0357 Phone: 888-206-9720 Fax: 509-892-1203 Email: support@crystalfontz.com URL: www.crystalfontz.com I2C Serial LCD DATASHEET
www.crystalfontz.com CFA533-*-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 2 FORWARD REVISION INFORMATION Datasheet Revision History Datasheet Release: 2015-09-25 Multiple changes, wherever shown in the datasheet: Datasheet was updated to meet current template standards. Information from separate datasheets for two CFA533-*-KC variants (CFA533-TMI-KC and CFA533-YYH-KC) were merged together in this datasheet along with information of a third variant, CFA533-TFH-KC. Wherever listed, resistor R21 was renumbered to R3. Resistor R7 was renumbered to R2. Wherever optional WR-PWR-Y14 ATX power cable is suggested, added cable WR-PWR-Y44. The WR-PWR-Y44 uses the same connectors as our WR-PWR-Y14. It is intended for use with rack mount chassis where extra length is necessary for routing and connectivity. Deleted commands labeled as “Reserved”. Minor changes in text and illustrations to improve clarity. Changes in command descriptions. Changed functionality in command 5 (0x05): Reboot CFA533, Reset Host, or Power Off Host (Pg. 44). In command 6 (0x06): Clear LCD Screen (Pg. 45), improved description to explain that command empties the contents of the LCD’s DDRAM. Command 7 (0x07): Set LCD Contents, Line 1 (Deprecated) (Pg. 45) and 8 (0x08): Set LCD Contents, Line 2 (Deprecated) (Pg. 46) are deprecated. In command 9 (0x09): Set LCD Special Character Data (Pg. 46). corrected from: Any value is valid between 0 and 63, to Any value is valid between 0 and 31, In command 10 (0x0A): Read 8 Bytes of LCD Memory (Pg. 46), corrected from “0x80 (\\128) to 0x93 (\\147) for DDRAM, line 1 “0xC0 (\\192) to 0xD3 (\\211) for DDRAM, line 2” to “0x80 (\\128) to 0x8F (\\143) for DDRAM, line 1 0xC0 (\\192) to 0xCF (\\207) for DDRAM, line 2” In command 13 (0x0D): Set LCD Contrast (Pg. 47), corrected “The first byte data[0] is ignored, any value from 0 to 255 is accepted.” to “The first byte data[0] is ignored, any value from 0 to 254 is accepted.” In command 14 (0x0E): Set LCD & Keypad Backlight (Pg. 48), changed “1-100 = variable brightness” to “1-99 = variable brightness 100 = on”
www.crystalfontz.com CFA533-*-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 3 Datasheet Revision History (Continued) Additional changes: In this Forward, Notices (Pg. 6) notices on About Volatility and About Variations were added. Added INTRODUCTION (Pg. 10), which describes the four interfaces available in the CFA533 and the three variant choices within the CFA533-*-KC series. Added specifications in section OPTICAL CHARACTERISTICS (Pg. 18). Added Absolute Maximum Ratings (Pg. 24). Added LCD Duty And Bias (Pg. 23). CONNECTION INFORMATION (Pg. 28) was revised to reflect that you can now have the display modules customized when you place your order on our website. Removed Data Communications: Details for RS232 Connections (page 36 in previous datasheet). This information does not apply to CFA533 display modules with I2C interface. Added Arduino Example Connections and Sketch (Pg. 40) that gives a link to this information on the Crystalfontz forum. In About Handshaking (Pg. 41), changed functionality of 5 (0x05): Reboot CFA533, Reset Host, or Power Off Host (Pg. 44). The CARE AND HANDLING PRECAUTIONS (Pg. 62) section was updated. Changes include adding Handling Caution For Display Modules Shipped In Trays (Pg. 62), a caution on excessive external noise under Design and Mounting (Pg. 62), and expanded information on How to Clean (Pg. 63). APPENDIX A: QUALITY ASSURANCE STANDARDS (Pg. 64) has been revised. APPENDIX B: SAMPLE APPLICATIONS AND SOURCE CODE (Pg. 67) has been expanded to include more resources. Added APPENDIX E: VIBRATION TEST REPORT (Pg. 90). Data Sheet Release: v2.0, 2011-03-07 reminder: Changes since Data Sheet version (v1.0): Wherever listed, changed part numbers for I2C variants of CFA533 modules to end in “-KC” instead of “-KI”. - Part number “CFA533-TMI-KI” changed to “CFA533-TMI-KC”. - Part number “CFA533-YYH-KI” changed to “CFA533-YYH-KC”. Wherever listed, deleted dash (“-”) from module part numbers to match how they now appear on our website without the dash (“-”). Wherever listed or shown in illustration, changed keypad from “10.5” millimeters to “12.00” millimeters high. This transition started 2010/06/06. See PCN 10282. In Features, added - “RoHS compliant”. - “Factories are ISO certified”. - Materials are in compliance with EU Directive “REACH’. - Note on CE approved modules. In Physical Characteristics, - Changed module nominal depth specification to include keypad “12.00” millimeters high (formerly 10.5 millimeters high). - Added a maximum depth specification of “25.90”. - Module weight increased from “40” grams to “41” grams. Updated information in Jumper Locations and Functions due to hardware revision v1.0. Changed “JPFG” to “RFG”. RFG connects 1MΩ between logic ground and frame ground. Added OPTICAL SPECIFICATIONS section, with definition of viewing angles. Added Humidity Range specification in Temperature and Humidity Ratings.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 4 Datasheet Revision History (Continued) In CONNECTION INFORMATION. - Based on hardware revision v1.0, revised illustrations on all power and control connections. - Because in hardware version 1.0 resistors are loaded by default, all references to “resistors not loaded” were removed. - Added hyperlinks to recommended Crystalfontz cables. In command 4 (0x04): Store Current State as Boot State, added Errata Note. Please read boxed note. In command 8 (0x08): Set LCD Contents, Line 2, corrected screen display text from data[] = TOP line's display content (must supply 16 bytes) to data[] = BOTTOM line's display content (must supply 16 bytes) In command 11 (0x0B): Set LCD Cursor Position, corrected from data[0] = column (0-19 valid) data[1] = row (0-3 valid) to data[0] = column (0-15 valid) data[1] = row (0-1 valid) In command 12 (0x0C): Set LCD Cursor Style, corrected from "3 = blinking block plus underscore" to "3 = blinking underscore". This behavior is not the same as the CFA633 series which is “3 = blinking block plus underscore”. In command 22 (0x16): Send Command Directly to the LCD Controller, corrected “The Neotec NT7070B controller on the CFA533 is S6A0073 compatible.” to “The controller on the CFA533 is a Neotec NT7070B (HD44780 compatible).” In command 35 (0x23): Read GPIO Pin Levels and Configuration State, - Replaced upper case “X” with lower case “x”. - Corrected "data length" from "4" to "1". In APPENDIX B: SAMPLE CODE (INCLUDES ALGORITHMS TO CALCULATE THE CRC), - In sample code for Algorithm 1: “C” Table Implementation and Algorithm 2: “C” Bit Shift Implementation, added typedefs for "ubyte" and "word". - Added sample code Algorithm 7: For PIC18F8722 or PIC18F2685. In addition to the list above, made minor changes in text and illustrations to improve clarity wherever needed. In command 35 (0x23): Read GPIO Pin Levels and Configuration State, - Replaced upper case “X” with lower case “x”. - Corrected "data length" from "4" to "1". In APPENDIX B: SAMPLE CODE (INCLUDES ALGORITHMS TO CALCULATE THE CRC), - In sample code for Algorithm 1: “C” Table Implementation and Algorithm 2: “C” Bit Shift Implementation, added typedefs for "ubyte" and "word". - Added sample code Algorithm 7: For PIC18F8722 or PIC18F2685. In addition to the list above, made minor changes in text and illustrations to improve clarity wherever needed. Data Sheet Release: 1.0, 2009-07-10 New Data Sheet.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 5 Previous Hardware Revision History Note: The hardware revision history below is shown for historical purposes only. Hardware revision information is now within Product Change Notices. 2010-06-06 Current hardware version: v1.0 (revision number has not changed) Changes: We are transitioning to an improved keypad from “10.5” millimeters to “12.00” millimeters high. See PCN 10282. 2010-03-18 Hardware version: v1.0 Changes since hardware version (v0.1): As the inventory of hardware version v0.1 depletes, we are phasing in the improved v1.0. The v1.0 should be a drop-in replacement for any v0.1 application. 1. Added a JPUSBSENSE jumper to help user configuration. Does not apply to I2C. See Jumper Locations and Functions. 2. Changed JPFG to RFG. RFG connects 1MΩ between logic ground and frame ground. See Jumper Locations and Functions. 3. PCB layout changes: - Added more breaks to the frameground (FG) trace that surrounds the board so there is not a loop. - Added masking on FG trace where connectors may be hand soldered to ease assembly. - Moved vias from under the zebra near the ends of the bezel to assure no shorts between the vias and the bezel. - Made mounting hole annular ring (pads) larger to avoid component damage by tools during assembly. - Resistors are loaded wherever needed. 4. Module weight increased from “40” grams to “41” grams. 2007-12-31 Hardware version: v0.1 New module. Previous Firmware Revision History Note: The firmware revision history below is shown for historical purposes only. Firmware revision information is now within Product Change Notices. 2010-05-15 Current firmware version: c1.0 Changes since last version (i0.2): Made firmware version match hardware version. 2009-05-15 Firmware version: i0.2 New firmware. Current Hardware And Firmware Revisions For information about current firmware and hardware revisions for the CFA533 series, see Part Change Notifications (PCNs) under the Notices tab on the website page for each CFA533 part number. To ensure that the appropriate people in your organization receive notices, please ask them to subscribe at www.crystalfontz.com/news/pcn.php.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 6 NOTICES The Fine Print Certain applications using Crystalfontz America, Inc. products may involve potential risks of death, personal injury, or severe property or environmental damage (“Critical Applications”). CRYSTALFONTZ AMERICA, INC. PRODUCTS ARE NOT DESIGNED, INTENDED, AUTHORIZED, OR WARRANTED TO BE SUITABLE FOR USE IN LIFE-SUPPORT APPLICATIONS, DEVICES OR SYSTEMS OR OTHER CRITICAL APPLICATIONS. Inclusion of Crystalfontz America, Inc. products in such applications is understood to be fully at the risk of the customer. In order to minimize risks associated with customer applications, adequate design and operating safeguards should be provided by the customer to minimize inherent or procedural hazard. Please contact us if you have any questions concerning potential risk applications. Crystalfontz America, Inc. assumes no liability for applications assistance, customer product design, software performance, or infringements of patents or services described herein. Nor does Crystalfontz America, Inc. warrant or represent that any license, either express or implied, is granted under any patent right, copyright, or other intellectual property right of Crystalfontz America, Inc. covering or relating to any combination, machine, or process in which our products or services might be or are used. All specifications in Data Sheets and on our website are, to the best of our knowledge, accurate but not guaranteed. Corrections to specifications are made as any inaccuracies are discovered. Company and product names mentioned in this publication are trademarks or registered trademarks of their respective owners. Copyright © 2015 by Crystalfontz America, Inc., 12412 East Saltese Avenue, Spokane Valley, WA 99216-0357 U.S.A About Variations We work continuously to improve our products. Because display technologies are quickly evolving, these products may have component or process changes. Slight variations (for example, contrast, color, or intensity) between lots are normal. If you need the highest consistency, whenever possible, order and arrange delivery for your production runs at one time so your displays will be from the same lot. About Volatility These display modules have nonvolatile memory.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 7
CONTENTS
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 8 CONTENTS, CONTINUED
www.crystalfontz.com CFA533-*-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 10 INTRODUCTION CFA533 INTERFACE CHOICES The CFA533 display modules are available with four interface choices. The host interface controls the LCD and reads the keypad. CFA533-*-KC I2C interface CFA533-*-KL Logic level serial interlace CFA533-*-KS Serial interface with “full swing” RS232 CFA533-*-KU USB Interface This datasheet has information for the CFA533-*-KC series only. When information in this datasheet applies to all variants (three color choices), the term “CFA533-*-KC” or the shorter term “CFA533” is used. Datasheet files for the other interfaces listed above are on the Datasheets & Files tab for the web pages of each part number. SIMILAR DISPLAY MODULES The CFA533 is mechanically similar to the CFA633 series (available with serial or USB interfaces). The CFA533 series command set is compatible with the CFA633 series. The CFA533 can be used as an economical “drop-in” replacement for most CFA633 series applications that do not need fan capabilities. The CFA533 does not have CE certification because it is not an end product. The display module requires power and communications from another system in order to operate. If you need a CE approved module, please consider our XES635 USB series. VARIANTS IN THE CFA533-*-KC SERIES The three variants in this series are: CFA533-TFH-KC Edge-lit white LED backlight with positive neutral FSTN LCD. Displays dark characters on light gray background. Integrated white LED backlit 6-button translucent silicone keypad. Positive mode display is sunlight readable and also readable in dark areas. CFA533-TMI-KC Edge-lit white LED backlight with negative blue STN LCD. Displays light characters on blue background. Integrated blue LED backlit 6-button translucent silicone keypad. Negative mode display is readable in normally lit and dark areas. May be difficult to read in direct sunlight
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 11 CFA533-YYH-KC Edge-lit yellow-green LED backlight with positive yellow-green STN LCD. Displays dark characters on yellow background). Integrated yellow LED backlit 6-button translucent silicone keypad. Positive mode display is sunlight readable and also readable in dark areas. MAIN FEATURES 16 characters x 2 lines LCD with keypad and high-level interface. With the optional drive bay bracket, the display will fit nicely in a 1U rack mount case (35 mm overall height). Only a single supply is needed. Wide power supply voltage range (VDD = +3.3v to +5.0v is perfect for embedded systems. Backlight and contrast are fully voltage compensated over the power supply range. Adjustments to the contrast set- ting or backlight brightness can be made, although this is not necessary is most situations. Industry standard Philips® I2C bus compatible interface. Only two pins (SDA and SCL) required to interface to I2C bus. Standard data rate of 100/400 kbps, also supports 50 kbps. 7-bit addressing mode. Integrated LED backlit 6-button translucent silicon keypad with screened legend with the popular arrows, enter and cancel layout. Fully decoded keypad: any key combination is valid and unique. Advanced digital GPIO control with PWM output. Robust packet-based communications protocol with16-bit CRC. Non-volatile memory (EEPROM): Set the "power-on" display screen, plus 16-bytes for storing IP, netmask, or sys- tem serial number. Optional capabilities: Crystalfontz can make these modifications for you. ATX power supply control functionality allows the buttons on the CFA533 to replace the Power and Reset switches on your system, simplifying front panel design. The ATX functionality can also implement a hardware watchdog that can reset host system on host software failure. Temperature monitoring: up to 32 channels at up to 0.5 degrees Celsius with absolute accuracy (using optional connector and Crystalfontz WR-DOW-Y17 cable with DOW sensor). “Live Display” shows up to four temperature readings without host intervention, allowing temperatures to be shown immediately at boot, even before the host operating system is loaded. I2C to Dallas Semiconductor 1-Wire bridge functionality allows control of other 1-Wire compatible devices (ADC, voltage monitoring, current monitoring, RTC, GPIO, counters, identification/encryption). (Additional hardware required.). Get up and running quickly with APPENDIX B: SAMPLE APPLICATIONS AND SOURCE CODE (Pg. 67). Includes how to easily connect to an Arduino. RoHS compliant. Crystalfontz America, Incorporated is ISO 9001:2008 certified. Product materials are in compliance with the regulations related to the EU Directive 2006/121/EC for Registration, Evaluation, Authorization and Restriction of Chemicals (REACH).
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 12 EXPLANATION OF PART NUMBER CODES IN THIS DATASHEET CFA 53 3 - * * * - K C * Brand Crystalfontz America, Incorporated Model Identifier 533 Backlight Type & Color T – LED, white Y – LED, yellow-green Fluid Type, Image (positive or negative), & LCD Glass Color F – FSTN, positive, neutral M – STN, negative blue Y – STN, positive yellow-green Polarizer Film Type, Temperature Range, & View Angle (O ‘Clock) I – Transmissive, Temperature, 6:00 H – Transflective, Temperature, 6:00 Operating temperature range is from -20°C minimum to +70°C maximum. For more information on Viewing Angle, see ELECTRICAL SPECIFICATIONS (Pg. 22). Special Code 1 K – Manufacturer’s codes Special Code 2 C – I2C interface Customize Configuration Codes = 1 or more characters When you order a CFA533 through our website, you can customize your order with different configurations and accessories. Part Number CFA533-TFH-KC CFA533-TMI-KC CFA533-YYH-KC Fluid FSTN STN STN LCD Glass Color neutral blue yellow-green Image positive negative positive Polarizer Film transflective transmissive transflective LEDs Backlight: white Keypad: white Backlight: white Keypad: blue Backlight: yellow-green Keypad: yellow-green Notes FSTN has better contrast than STN. Positive Image: The display can be read in normal office lighting, in dark areas, and in bright sunlight. Negative Image: Display can be read in normal office lighting and in dark areas. May be difficult to read in direct sunlight.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 13 MECHANICAL SPECIFICATIONS PHYSICAL CHARACTERISTICS ITEM SPECIFICATION Display Module Overall Width and Height 110.5 (W) x 35.0 (H) Depth with Keypad, with Connectors 25.60 mm nominal 25.90 mm maximum Viewing Area 61.0 (W) x 15.8 (H) mm Active Area 56.2 (W) x 11.5 (H) mm Character Size 2.95 (W) x 5.55 (H) mm Character Pitch 3.55 (W) x 5.95 (H) mm Pixel Size 0.55 (W) x 0.65 (H) mm Pixel Pitch 0.60 (W) x 0.70 (H) mm Keystroke Travel (approximate) 2.4 mm Weight 41 grams (typical) VIBRATION Test conditions: Octave/minute, 35 minutes per axis. MIL-STD 810F, Figure 514C-17, Random: 1 hour per axis. MIL-STD 810F, Figure 514C-18, Sine: 1 hour per axis. For details see APPENDIX E: VIBRATION TEST REPORT (Pg. 90).
75.00 PCB Mounting Holes
68.70 Bezel
61.00 Viewing Area
56.20 Active Area
25.90 Maximum
25.60 Nominal
12.00 Keypad
7ROHUDQFH LV “0.3 PP XQOHVV VSHFLILHG. Figure 1. Display Module Outline Drawings (two page below)
26.50 Bezel
3.41 I²C J_PWR Pin Detail A See Pin Detail A 28.00 8.00 60.08 24.92 J_DOW J_PWR I²C I²C J_PROG J8 18.50 57.50 Back View 7ROHUDQFH LV “0.3 PP XQOHVV VSHFLILHG. Crystalfontz www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 15 12.42 12.00 10.50 27.50 1.60 7.50 12.00
6.50 Bezel / PCB
10.70 copyright © 2015 by Crystalfontz America, Inc. www.crystalfontz.com/products/ Part No.(s): CFA533-***-KC Series Scale: Not to scale Drawing Number: CFA533_master Hardware Rev.: v1.1 Units: Millimeters Date: 2015-09-10 Sheet: 2 of 2
- Material: silicone rubber,
- Lifetime: 1 million keystrokes
- Resistance: Less than 100 Ÿ
- Actuation Force: 80~120grams
- Silicone rubber color: translucence white
- All corners have a fillet radius of 0.75 mm
Figure 2. Keypad Detail Drawing
fabrication drawings are available on request. Figure 3. Panel Mount Application Cutout Drawing for Optional Bracket
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 18 OPTICAL CHARACTERISTICS CFA533-TFH-KC SYMBOL CONDITION TYPICAL MAXIMUM Viewing Angle (12 o’clock) Deg θ = 90° CR>2 Deg θ = 270° 60 Deg θ = 0° 45 Deg θ = 180° 45 Contrast Ratio1 CR 3.8 5 LCD Response Time2,3 T rise Ta = 25°C 180 ms T fall 200 ms 1Contrast Ratio = (brightness with pixels light)/(brightness with pixels dark). 2Response Time: The amount of time it takes a liquid crystal cell to go from active to inactive or back again 3For reference only. Viewing Direction: 6 o’clock CFA533-TMI-KC CFA533-YYH-KC SYMBOL CONDITION TYPICAL MAXIMUM Viewing Angle (12 o’clock) Deg θ = 90° CR>2 Deg θ = 270° 40 Deg θ = 0° 30 Deg θ = 180° 30 Contrast Ratio1 CR 3.8 5 LCD Response Time2,3 T rise Ta = 25°C 180 ms T fall 200 ms 1Contrast Ratio = (brightness with pixels light)/(brightness with pixels dark). 2Response Time: The amount of time it takes a liquid crystal cell to go from active to inactive or back again 3For reference only. Viewing Direction: 6 o’clock
Figure 10. System Block Diagram
16 Com
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 23 LCD DUTY AND BIAS DRIVING METHOD SPECIFICATION Duty1 1/16 Bias2 1/5 1The duty cycle, also known as duty ratio or multiplex rate, is the fraction of total frame time that each row of the LCD is addressed. 2The drive bias, also known as voltage margin, is related to the number of voltage levels used when driving the LCD. Bias is defined as 1/(number of voltage levels-1). The more segments driven by each driver(1), the higher number of voltage levels are required. There is a direct relationship between the bias and the duty.
www.crystalfontz.com CFA533-*-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 24 ABSOLUTE MAXIMUM RATINGS ABSOLUTE MAXIMUM RATINGS SYMBOL MINIMUM MAXIMUM Operating Temperature TOP -20°C +70°C Storage Temperature TST -30°C +80°C Humidity Range (Non-condensing) RH 10% 90% Supply Voltage for Logic VDD 0v +5.5v Notes: These are stress ratings only. Extended exposure to the absolute maxi- mum ratings listed above may affect device reliability or cause permanent damage. Changes in temperature can result in changes in contrast. SUPPLY VOLTAGES AND CURRENT SUPPLY VOLTAGE MINIMUM MAXIMUM Power Supply voltage (VDD) +3.3v +5.5v Pull-in voltage +3.2v Drop-out voltage +3.0v PART NUMBER ITEMS ENABLED TYPICAL CURRENT CONSUMPTION CFA533-*-KC (all variants) +5v for logic (LCD + controller), backlight off < 20mA CFA533-TFH-KC CFA533-TMI-KC +5v for logic (LCD + controller) + white backlight < 100mA CFA533-YYH-KC +5v for logic (LCD + controller) + backlight < 120mA GPIO CURRENT LIMITS SPECIFICATION Sink 25 mA Source 10 mA
Figure 11. CFA533-TFH-KC Current Usage
Figure 12. CFA533-TMI-KC Current Usage
Figure 13. CFA533-YYH-KC Current Usage circuits. Ground your body, work surfaces, and equipment.
www.crystalfontz.com CFA533-*-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 28 CONNECTION INFORMATION OVERVIEW OF CONNECTION INFORMATION The host power supply can power the CFA533-*-KC: 1. Without ATX: This is the basic method to supply power to the LCD module (“non-ATX”). 2. ATX: This method supplies power to the LCD module and has Host Power Sense: power on, power off, and reset functionality. This section also describes connections for optional accessories. Jumpers That Can Be Modified (Pg. 29) Power Supply Connection (Non-ATX) (Pg. 30) Connection through J_PWR Connector (Non-ATX) (Pg. 30) Connection through J_RS232 Connector (Non-ATX) (Pg. 31) ATX Power Supply and Control Connection for Host Power Sense (Pg. 31) ATX Host Power Sense through +5v on J_PWR Connector (Pg. 32) ATX Host Power Sense through GPIO[1] on J8 Connector (Pg. 34) ATX Keypad Control (Pg. 35) Data Communications: I²C Connections (Pg. 36) GPIO Connections (Pg. 37) Dallas Semiconductor 1-Wire Device Connections for Optional Accessories (Pg. 38) Temperature Sensors (Pg. 38) Other 1-Wire Devices (Pg. 38)
Figure 14. Jumpers That Can Be Modified
Figure 15. +5v Connection through J_PWR power supply cable connector to the CFA533-***-KC’s J_PWR connector.
Figure 16. Power Connection through J-RS232 between the CFA533-***-KC and your embedded system. +5v ATX power supply output. you with a semi-custom part number and pricing. A minimum order quantity may apply. The two ATX connection choices are described below. to LCD module is being used, do not reconfigure the GPIO pins.
Figure 17. ATX Host Power Sense through +5v on J_PWR Connector connector will function as VSB power to the LCD module. The motherboard's power switch input is connected to Pin 5 of the CFA533-***-KC's connector J8 (labeled as GPIO[2]). The motherboard's reset switch input is connected to Pin 4 of the CFA533-***-KC connector J8 (labeled as GPIO[3]). reset the host. Then it will change momentarily to low impedance output, driving either low or high.
Figure 18. ATX Power Supply and Control Using Crystalfontz WR-PWR-Y14 Cable
Figure 19. ATX Host Power Sense through GPIO[1] on J8 Connector compatibility for legacy CFA633 applications. connection to the host’s +5v power to GPIO[1]. Connector, open jumper JP8 and JPGPI01.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 35 Here is an excerpt from command 28 (0x1C): Set ATX Switch Functionality (Pg. 53): ATX Keypad Control Once configured by the host software (see command 28 (0x1C): Set ATX Switch Functionality (Pg. 53)), the following functions may be individually enabled: System power on. If POWER-ON SENSE is low (0th), pressing the green check key (Enter key) for 0.25 seconds will turn the unit on by driving POWER CONTROL line for the pulse width set by command 28 (0x1C): Set ATX Switch Functionality (Pg. 53) (1.0 seconds default). NOTE ON COMMAND 28: SET ATX SWITCH FUNCTIONALITY The GPIO pins used for ATX control must not be configured as user GPIO. The pins must be configured to their default drive mode in order for the ATX functions to work correctly. These settings are factory default but may be changed by the user. Please see command 34 (0x22): Set/Configure GPIO (Pg. 57). These settings must be saved as the boot state. To ensure that GPIO[1] will operate correctly as ATX SENSE, user GPIO[1] must be configured as: DDD = "011: 1=Resistive Pull Up, 0=Fast, Strong Drive Down". F = "0: Port unused for user GPIO." This configuration can be assured by sending the following command: command = 34 length = 3 data[0] = 1 data[1] = 0 data[2] = 3 To ensure that GPIO[2] will operate correctly as ATX POWER, user GPIO[2] must be configured as: DDD = "010: Hi-Z, use for input". F = "0: Port unused for user GPIO." This configuration can be assured by sending the following command: command = 34 length = 3 data[0] = 2 data[1] = 0 data[2] = 2 To ensure that GPIO[3] will operate correctly as ATX RESET, user GPIO[3] must be configured as: DDD = "010: Hi-Z, use for input". F = "0: Port unused for user GPIO." This configuration can be assured by sending the following command: command = 34 length = 3 data[0] = 3 data[1] = 0 data[2] = 2 These settings must be saved as the boot state.
immediately after resetting the host. to monitor the POWER-ON SENSE line and blank its display any time the POWER-ON SENSE line is low. and user manual on the NXP Semiconductors website. Figure 20. I2C Connections transmit 010101012 which is 42 left bit-shifted with a 1 (8510).
that allows the LCD module to perform some special purpose activity with the pin. GPIO[0], GPIO[2] and GPIO[3] are connected directly from the controller port pin to the connector pin. GPIO[1] has a series 5kΩ resistor in R3. to pull GPIO[4] to VDD (+5v power). Configuration State (Pg. 58) for additional details concerning the GPIO operation. Figure 21. Location of GPIO Connections, Resistors, and J_DOW 5kŸ resistor is loaded at R3 by default. You can enable R3 by opening JPGPIO1. 5kŸ resistor is loaded at R2 by default.
www.crystalfontz.com CFA533-*-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 38 DALLAS SEMICONDUCTOR 1-WIRE DEVICE CONNECTIONS FOR OPTIONAL ACCESSORIES Temperature Sensors The CFA533-*-KC supports Dallas Semiconductor 1-Wire (DOW) temperature sensors. When you order these displays through our website, you can configure your display module to include a DOW mating connector and DOW temperature sensor cables WR-DOW-Y17. The Crystalfontz WR-DOW-Y17 has a DS18B20 attached to a “daisy chain” cable. If a WR-DOW-Y17 is ordered at the same time as a CFA533-*-KC, Crystalfontz can load the WR-DOW-Y17's mating connector into the CFA533-*-KC's DOW position. For reference, the mating connector for the WR-DOW-Y17 is Molex 0705430002 available from Digi-Key or other parts suppliers. The temperature sensor can be configured to be automatically read and displayed on the CFA533-*-KC's LCD in °C or °F (see command 21 (0x15): Set Up Live Temperature Display (Pg. 51)). Other 1-Wire Devices Other Dallas Semiconductor 1-Wire devices may be connected to the 1-Wire bus, with the CFA533-*-KC acting as a bridge between RS-232 and the 1-Wire bus (see command 21 (0x15): Set Up Live Temperature Display (Pg. 51)). The total number of 1-Wire devices supported is 32, including directly supported temperature sensors and any other user- provided 1-Wire devices. (See CFA533-*-KC’s DOW connection location in Figure 21. on Pg. 37.) The LCD module can send up to 15 bytes and receive up to 14 bytes. This will be sufficient for many devices but some devices require larger transactions and cannot be fully used with the module. The CFA533-*-KC has a 1k∧ hardware pull-up on the DOW connector's I/O line. Connect the 1-Wire sensors as detailed in the sensor's datasheet. HOST COMMUNICATIONS Tip: A good source for more information about I2C is NXP Semiconductors UM10204 I2C-bus specification and user manual. I²C BUFFERS The I2C specification allows the I2C master (host) to run at clock speeds from 100 kHz down to DC. Reading and writing data within the I2C slave (CFA533) is accomplished using buffers. The foreground process in the I2C slave (CFA533) can then operate on data deposited in its write buffer by the I2C master (host) and prepare responses to be read by the I2C master (host) from its read buffer. During Read: If the I2C master (host) attempts to read more data than is contained in a buffer, the last byte will be retransmitted until the I2C master (host) stops reading. The I2C protocol does not define a method for the I2C slave to stop a master from reading. During Write: When an I2C master (host) writes one or more data bytes to the I2C slave (CFA533), upon receiving the last byte for which storage is available, the I2C slave (CFA533) generates a NAK (Negative AcKnowledgement). If the
(data is stored in the last available location), further data is not stored. change permanent, use command 4 (0x04): Store Current State as Boot State (Pg. 43). Figure 22. I2C Transactions comes just before the STOP) so the CFA533 knows that the read is terminated.
533_I2C_WinTest that can be used with the Aardvark to test and debug the CFA533-***-KC I2C display modules. Figure 23. CFA533-*-KC Connection to Aardvark I2C/SPI Host Adapter** We have an example project that details the steps needed to connect a CFA533 I2C LCD module to an Arduino Uno. format, to “escape” certain “control characters”, or losing sync if a character is corrupted, missing, or inserted).
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 41 TTcc cccc |||| ||||--Command, response, error or report code 0-63 00 = normal command from host to CFA533 01 = normal response from CFA533 to host 10 = normal report from CFA533 to host (not indirect response to a command from the host) 11 = error response from CFA533 to host (a packet with valid structure but illegal content was received by the CFA533) data_length specifies the number of bytes that will follow in the data field. The valid range of data_length is 0 to 18. data is the payload of the packet. Each type of packet will have a specified data_length and format for data as well as algorithms for decoding data detailed below. CRC is a standard 16-bit CRC of all the bytes in the packet except the CRC itself. The CRC is sent LSB first. At the port, the CRC immediately follows the last used element of data []. See APPENDIX B: SAMPLE APPLICATIONS AND SOURCE CODE (Pg. 67) for several examples of how to calculate the CRC in different programming languages. The following concept may be useful for understanding the packet structure. typedef struct unsigned char command; unsigned char data_length; unsigned char data[data_length]; unsigned short CRC; }COMMAND_PACKET; Crystalfontz supplies a demonstration and test program 533_I2C_WinTest along with its C source code. Included in the 533_I2C_WinTest source is a CRC algorithm and an algorithm that validates packets. Please follow the validation algorithm in the sample code closely in order to realize the benefits of using the packet communications. ABOUT HANDSHAKING The I2C bus master (host) must initiate all transactions. When the host writes a command to the input buffer of the slave (CFA533), the CFA533 will execute the appropriate functions, then write the resulting acknowledge or response packet into the CFA533's output buffer. The host can read the CFA533's output buffer to verify the command or to read the result of a query. The CFA533 takes a small amount of time to execute the command before the result can be read. For many commands 5mS is plenty of time for the CFA533 to complete its processing and have the result ready for the host to read. Commands that may take longer are: 2 (0x02): Write User Flash Area 25mS 4 (0x04): Store Current State as Boot State\\ 50mS 5 (0x05): Reboot CFA533, Reset Host, or Power Off Host 2ms ~ 9S, depending on function. See Command 5. 14 (0x0E): Set LCD & Keypad Backlight
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 42 50mS (all change) 20 (0x14): Arbitrary DOW Transaction 50mS (execution time depends on the transaction) COMMAND CODES Below is a list of valid commands for the CFA533. Each command packet is answered by either a response packet or an error packet.The low 6 bits of the type field of the response or error packet is the same as the low 6 bits of the type field of the command packet being acknowledged. 0 (0x00): Ping Command The CFA533 will return the Ping Command to the host. type: 0x00 = 010 valid data_length is 0 to 16 data[0-(data_length-1)] can be filled with any arbitrary data The return packet is identical to the packet sent, except the type will be 0x40 (normal response, Ping Command): type: 0x40 | 0x00 = 0x40 = 6410 data_length: (identical to received packet) data[0-(data_length-1)] = (identical to received packet) 1 (0x01): Get Hardware & Firmware Version The CFA533 will return the hardware and firmware version information to the host. type: 0x01 = 110 valid data_length is 0 The return packet will be: type: 0x40 | 0x01 = 0x41 = 6510 data_length: 16 data[] = "CFA533:hX.X,yY.Y" hX.X is the hardware revision, "1.1" for example yY.Y is the firmware version, "c1.1" for example 2 (0x02): Write User Flash Area The CFA533 reserves 16 bytes of nonvolatile memory for arbitrary use by the host. This memory can be used to store data such as a serial number, IP address, gateway address, netmask, or any other data required. All 16 bytes must be supplied. You must wait up to 25mS after the I2C write phase completes to guarantee the CFA533 will have the acknowledge or response I2C packet ready to be read by the I2C host. type: 0x02 = 210 valid data_length is 16 data[] = 16 bytes of arbitrary user data to be stored in the CFA533's non-volatile memory The return packet will be: type: 0x40 | 0x02 = 0x42 = 6610 data_length: 0
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 43 3 (0x03): Read User Flash Area This command will read the User Flash Area and return the data to the host. type: 0x03 = 310 valid data_length is 0 The return packet will be: type: 0x40 | 0x03 = 0x43 = 6710 data_length: 16 data[] = 16 bytes user data recalled from the CFA533's non-volatile memory 4 (0x04): Store Current State as Boot State The CFA533 loads its power-up configuration from nonvolatile memory when power is applied. The CFA533 is configured at the factory to display a “welcome” screen when power is applied. This command can be used to customize the “welcome” screen, as well as the following items: Characters shown on LCD, which are affected by: Command 6 (0x06): Clear LCD Screen (Pg. 45). Command 7 (0x07): Set LCD Contents, Line 1 (Deprecated) (Pg. 45). Command 8 (0x08): Set LCD Contents, Line 2 (Deprecated) (Pg. 46). Command 31 (0x1F): Send Data to LCD (Pg. 56). Special character font definitions (command 9 (0x09): Set LCD Special Character Data (Pg. 46)). Cursor position (command 11 (0x0B): Set LCD Cursor Position (Pg. 47)). Cursor style (command 12 (0x0C): Set LCD Cursor Style (Pg. 47)). Contrast setting (command 13 (0x0D): Set LCD Contrast (Pg. 47)). LCD backlight setting (command 14 (0x0E): Set LCD & Keypad Backlight (Pg. 48)). Keypad backlight setting (command 14 (0x0E): Set LCD & Keypad Backlight (Pg. 48)). Settings of any live displays (command 21 (0x15): Set Up Live Temperature Display (Pg. 51)). ATX function enable and pulse length settings (command 28 (0x1C): Set ATX Switch Functionality (Pg. 53)). Baud rate (command 33 (0x21): Set I2C Address (Pg. 56)). GPIO settings (command 34 (0x22): Set/Configure GPIO (Pg. 57)). You cannot store the temperature reporting (although the live display of temperatures can be saved). You cannot store the host watchdog.The host software should enable this item once the system is initialized and it is ready to receive the data. You must wait up to 50mS after the I2C write phase completes to guarantee the CFA533 will have the acknowledge or response I2C packet ready to be read by the I2C host. ERRATA NOTE At voltages lower than +5v, the operation of reading from the LCD to the controller may not work correctly. If this happens, you will see corrupted characters on the LCD after using Command 4 and rebooting the LCD module. One workaround is to supply +5v to the module during the Command 4 operation. Another workaround is to have Crystalfontz set the boot state for you at the factory, using a semi- custom part number. Please write support@crystalfontz.com if you have questions regarding this errata.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 44 type: 0x04 = 410 valid data_length is 0 The return packet will be: type: 0x40 | 0x04 = 0x44 = 6810 data_length: 0 5 (0x05): Reboot CFA533, Reset Host, or Power Off Host This command instructs the CFA533 to simulate a power-on restart of itself, reset the host, or turn the host's power off. The ability to reset the host may be useful to allow certain host operating system configuration changes to complete. The ability to turn the host's power off under software control may be useful in systems that do not have ACPI compatible BIOS. You must wait after the I2C write phase completes to guarantee the CFA533 will have the acknowledge or response I2C packet ready to be read by the I2C host. Execute times are up to: 500mS for parameters \\008\\018\\099, Reboot CFA533 The CFA533 resets itself, then prepares the acknowledge packet. The host may read the acknowledge packet from the module any time starting at 500mS after the command was sent. 2mS ~ 1500mS for parameters \\012\\028\\097, Reset host The CFA533 prepares the acknowledge packet immediately then waits 100mS for the host to read the acknowledge packet. After that, the CFA533 will be unavailable for ~1500mS (1000mS is the length of the host reset pulse, plus ~500mS for the CFA533 to reset itself). Typically this variable delay will not be a concern, since the host system will be rebooting. When the CFA533 resets, it will display its boot screen, you may want to set the CFA533's boot screen to show a "system booting" message. 2mS ~ 9S for parameters \\003\\011\\095, Power off host The CFA533 prepares the acknowledge packet immediately then waits 100mS for the host to read the acknowledge packet. After that, the CFA533 will be unavailable for a variable amount of time, depending on how long after the CFA533 asserts the power signal until the host power falls. The maximum time is ~9S (1000mS is the length of the host reset pulse, up to 7.5S for the host power to fall, plus allow ~500mS for the CFA533 to reset itself), showing its boot screen. Typically this variable delay will not be a concern, since the host system will be powering down. The CFA533 can be set to blank its screen when the host power falls which makes the system appear that it is properly powered off. Rebooting the CFA533 may be useful when testing the boot configuration. It may also be useful to re-enumerate the devices on the 1-Wire bus. To reboot the CFA533, send the following packet: type: 0x05 = 510 valid data_length is 3 data[0] = 8 data[1] = 18 data[2] = 99 NOTE The GPIO pins used for ATX control must not be configured as user GPIO, and must be configured to their default drive mode in order for the ATX functions to work correctly. These settings are factory default, but may be changed by the user. Please see command 34 (0x22): Set/Configure GPIO (Pg. 57).
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 45 To reset the host, assuming the host's reset line is connected to GPIO[3] as described in command 28 (0x1C): Set ATX Switch Functionality (Pg. 53), send the following packet: type: 0x05 = 510 valid data_length is 3 data[0] = 12 data[1] = 28 data[2] = 97 To turn the host's power off, assuming the host's power control line is connected to GPIO[2] as described in command 28 (0x1C): Set ATX Switch Functionality (Pg. 53), send the following packet: type: 0x05 = 510 valid data_length is 3 data[0] = 3 data[1] = 11 data[2] = 95 In any of the above cases, the return packet will be: type: 0x40 | 0x05 = 0x45 = 6910 data_length: 0 6 (0x06): Clear LCD Screen Empties the contents of the LCD’s DDRAM and moves the cursor to the left-most column of the top line. type: 0x06 = 610 valid data_length is 0 The return packet will be: type: 0x40 | 0x06 = 0x46 = 7010 data_length: 0 The contents of DDRAM is one of the items stored by the command 4 (0x04): Store Current State as Boot State (Pg. 43). 7 (0x07): Set LCD Contents, Line 1 (Deprecated) Sets the 16 characters displayed for the top line of LCD screen. type: 0x7 = 710 valid data_length is 16 data[] = top line’s display content (must supply 16 bytes) The return packet will be: type: 0x40 | 0x07 = 0x47 = 7110 data_length: 0 Set LCD Contents, Line 1 is one of the items stored by the command 4 (0x04): Store Current State as Boot State (Pg. 43). Note Please use this command only if you need backwards compatibility with older CFA633 units. For new applications, please use the more flexible command 31 (0x1F): Send Data to LCD (Pg. 56) which is also supported by the CFA631 and CFA635.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 46 8 (0x08): Set LCD Contents, Line 2 (Deprecated) Sets the 16 characters displayed for the bottom line of LCD screen. type: 0x08 = 810 valid data_length is 16 data[] = bottom line's display content (must supply 16 bytes) The return packet will be: type: 0x40 | 0x08 = 0x48 = 7210 data_length: 0 Set LCD Contents, Line 2 is one of the items stored by the command 4 (0x04): Store Current State as Boot State (Pg. 43). 9 (0x09): Set LCD Special Character Data Sets the bitmap for each of the eight special characters (CGROM). type: 0x09 = 910 valid data_length is 9 data[0] = index of special character that you would like to modify, 0-7 are valid data[1-8] = bitmap of the new font for this character data[1-8] are the bitmap information for this character. Any value is valid between 0 and 31, the msb is at the left of the character cell of the row, and the lsb is at the right of the character cell. data[1] is at the top of the cell, data[8] is at the bottom of the cell. The return packet will be: type: 0x40 | 0x09 = 0x49 = 7310 data_length: 0 Set LCD Special Character Data is one of the items stored by the command 4 (0x04): Store Current State as Boot State (Pg. 43). 10 (0x0A): Read 8 Bytes of LCD Memory This command will return the contents of the LCD’s DDRAM or CGROM. This command is intended for debugging. type: 0x0A = 1010 valid data_length is 1 data[0] = address code of desired data data[0] is the address code native to the LCD controller: 0x40 (\\064) to 0x7F (\\127) for CGROM 0x80 (\\128) to 0x8F (\\143) for DDRAM, line 1 0xC0 (\\192) to 0xCF (\\207) for DDRAM, line 2 The return packet will be: type: 0x40 | 0x0A = 0x4A = 7410 data_length: 9 data[0] of the return packet will be the address code. Note Please use this command only if you need backwards compatibility with older CFA633 units. For new applications, please use the more flexible command 31 (0x1F): Send Data to LCD (Pg. 56) which is also supported by the CFA631 and CFA635.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 47 data[1-8] of the return packet will be the data read from the LCD controller's memory. 11 (0x0B): Set LCD Cursor Position This command allows the cursor to be placed at the desired location on the CFA533’s LCD screen. If you want the cursor to be visible, you may also need to send a command 12 (0x0C): Set LCD Cursor Style (Pg. 47). type: 0x0B = 1110 valid data_length is 2 data[0] = column (0-15 valid) data[1] = row (0-1 valid) The return packet will be: type: 0x40 | 0x0B = 0x4B = 7510 data_length: 0 Set LCD Cursor Position is one of the items stored by the command 4 (0x04): Store Current State as Boot State (Pg. 43). 12 (0x0C): Set LCD Cursor Style This command allows you to select among four hardware generated cursor options. type: 0x0C = 1210 valid data_length is 1 data[0]: cursor style (0-3 valid) 0 = no cursor 1 = blinking block cursor 2 = underscore cursor 3 = blinking underscore (Note: This behavior is not the same as the CFA633 series which is: blinking block plus underscore. The return packet will be: type: 0x40 | 0x0C = 0x4C = 7610 data_length: 0 Set LCD Cursor Style is one of the items stored by the command 4 (0x04): Store Current State as Boot State (Pg. 43). 13 (0x0D): Set LCD Contrast This command sets the contrast or vertical viewing angle of the display. (Initiated by the host, responded to by the CFA533.) CFA633 Compatible If only one byte of data is supplied, then it is the “CFA633 Compatible” version of the command. Requires 1 byte (0-200) are valid, but only (0-50) are useful for this LCD. type: 0x0D = 1310 valid data_length is 1 data[0]: contrast setting (0-50 valid) 0 = light 16 = about right 29 = dark 30-50 = very dark The return packet for CFA633 Compatible will be: type: 0x40 | 0x0D = 0x4D = 7710 data_length: 0 CFA533 Enhanced If two bytes of data are supplied, then the command takes advantage of the CFA533s native enhanced contrast resolution. Requires 2 bytes.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 48 The first byte data[0] is ignored, any value from 0 to 254 is accepted. The second byte data[1] controls the CFA533 contrast with better resolution. type: 0x0D = 1310 valid data_length is 1 data[0]: required but ignored data[1]: contrast setting (0-200 valid) 0-99 = lighter 100 = no correction 101-200 = darker The return packet for CFA533 Enhanced will be: type: 0x40 | 0x0D = 0x4D = 7710 data_length: 0 Set LCD Contrast is one of the items stored by the command 4 (0x04): Store Current State as Boot State (Pg. 43). 14 (0x0E): Set LCD & Keypad Backlight This command sets the brightness of the LCD and keypad backlights. (Initiated by the host, responded to by the CFA533.) You must wait up to 50mS (all change) after the I2C write phase completes to guarantee the CFA533 will have the acknowledge or response I2C packet ready to be read by the I2C host. If one byte is supplied, both the keypad and LCD backlights are set to that brightness (CFA633 compatible). type: 0x0E = 1410 valid data_length is 1 data[0]: keypad and LCD backlight power setting (0-100 valid) 0 = off 1-99 = variable brightness 100 = on The return packet if one byte is supplied will be: type: 0x40 | 0x0E = 0x4E 7810 data_length: 0 If two bytes are supplied, the LCD is set to the brightness of the first byte. The keypad is set to the brightness of the second byte. type: 0x0E = 1410 valid data_length is 2 data[0]: LCD backlight power setting (0-100 valid) 0 = off 1-99 = variable brightness 100 = on data[1]: keypad backlight power setting (0-100 valid) 0 = off 1-99 = variable brightness 100 = on The return packet if two bytes are supplied will be: type: 0x40 | 0x0E = 0x4E = 7810 data_length: 0 Set LCD & Keypad Backlight is one of the items stored by the command 4 (0x04): Store Current State as Boot State (Pg. 43).
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 49 15 (0x0F): Read Temperature Each temperature sensor is read once every second. The most recent reading can be retrieved by the host by using this command. type: 0x0F = 1510 valid data_length: 1 data[0]: 0 to 31 DOW device index The family code for the device at "device index" must be 0x22 (DS1822) or 0x28 (DS12B20). This can be verified with Command 18 (0x12): Read DOW Device Information (Pg. 49). The return packet will be: type: 0x40 | 0x0F = 0x4F = 7910 data_length: 4 data[0] is the index of the temperature sensor being reported: 0 = temperature sensor 1 1 = temperature sensor 2 . . . 31 = temperature sensor 32 data[1] is the LSB of Temperature_Sensor_Counts data[2] is the MSB of Temperature_Sensor_Counts data[3] is DOW_crc_status The following C function will decode the Temperature Sensor Report packet into °C and °F: void OnReceivedTempReport(COMMAND_PACKET *packet, char *output) //First check the DOW CRC return code from the CFA533 if(packet->data[3]==0) strcpy(output,"BAD CRC"); else double degc; degc=(*(short *)&(packet->data[1]))/16.0; double degf; degf=(degc*9.0)/5.0+32.0; sprintf(output,"%9.4f°C =%9.4f°F", degc, degf); 18 (0x12): Read DOW Device Information When power is applied to the CFA533, it detects any devices connected to the Dallas Semiconductor 1-Wire (DOW) bus and stores the device’s information. This command will allow the host to read the device’s information.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 50 The first byte returned is the “family code” of the Dallas 1-Wire / iButton device. There is a list of the possible Dallas 1- Wire / iButton device family codes available in App Note 155: 1-Wire Software Resource Guide on the Maxim/Dallas website. type: 0x12 = 1810 valid data_length is 1 data[0] = device index (0-31 valid) The return packet will be: type: 0x40 | 0x12 = 0x52 = 8210 data_length: 9 data[0] = device index (0-31 valid) data[1-8] = ROM ID of the device 20 (0x14): Arbitrary DOW Transaction The CFA533 can function as an I2C to Dallas 1-Wire bridge. The CFA533 can send up to 15 bytes and receive up to 14 bytes. This will be sufficient for many devices, but some devices require larger transactions and cannot be fully used with the CFA533. This command allows you to specify arbitrary transactions on the 1-Wire bus. 1-Wire commands follow this basic layout: <bus reset //Required <address_phase>//Must be "Match ROM" or "Skip ROM" <write_phase> //optional, but at least one of write_phase or read_phase must be sent <read_phase> //optional, but at least one of write_phase or read_phase must be sent Please see APPENDIX C: CONNECTING A DS2450 1-WIRE QUAD A/D CONVERTER (Pg. 79) for an example of using this command. NOTE ON COMMAND 18: READ DOW DEVICE INFORMATION The GPIO pin used for DOW must not be configured as user GPIO. It must be configured to its default drive mode in order for the DOW functions to work correctly. These settings are factory default but may be changed by the user. Please see command 34 (0x22): Set/ Configure GPIO (Pg. 57). In order for the DOW subsystem to be enabled and operate correctly, user GPIO[4] must be configured as: DDD = "111: 1=Hi-Z, 0=Slow, Strong Drive Down". F = "0: Port unused for user GPIO." This state is the factory default, but it can be changed and saved by the user. To ensure that GPIO[4] is set correctly and the DOW operation is enabled, send the following command: command = 34 length = 3 data[0] = 4 data[1] = 100 data[2] = 7 This setting must be saved as the boot state, so when the CFA533 reboots it will detect the DOW devices.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 51 You must wait up to 50mS after the I2C write phase completes to guarantee the CFA533 will have the acknowledge or response I2C packet ready to be read by the I2C host. type: 0x14 = 2010 valid data_length is 2 to 16 data[0] = device_index (0-32 valid) data[1] = number_of_bytes_to_read (0-14 valid) data[2-15] = data_to_be_written[data_length-2] If device_index is 32, then no address phase will be executed. If device_index is in the range of 0 to 31, and a 1-Wire device was detected for that device_index at power on, then the write cycle will be prefixed with a "Match ROM” command and the address information for that device. If data_length is two, then no specific write phase will be executed (although address information may be written independently of data_length depending on the value of device_index). If data_length is greater than two, then data_length-2 bytes of data_to_be_written will be written to the 1- Wire bus immediately after the address phase. If number_of_bytes_to_read is zero, then no read phase will be executed. If number_of_bytes_to_read is not zero then number_of_bytes_to_read will be read from the bus and loaded into the response packet. The return packet will be: type: 0x40 | 0x14 = 0x54 = 8410 data_length: 2 to 16 data[0] = device index (0-31 valid) data[data_length-2] = Data read from the 1-Wire bus. This is the same as number_of_bytes_to_read from the command. data[data_length-1] = 1-Wire CRC 21 (0x15): Set Up Live Temperature Display You can configure the CFA533 to automatically update a portion of the LCD with a live temperature reading. Once the display is configured using this command, the CFA533 will continue to display the live reading on the LCD without host intervention. The Set Up Live Temperature Display is one of the items stored by command 4 (0x04): Store Current State as Boot State (Pg. 43), so you can configure the CFA533 to immediately display system temperatures as soon as power is applied. The live display is based on a concept of display slots. There are 4 slots, and each of the 4 slots may be enabled or disabled independently. Any slot may be requested to display any data that is available. For instance, slot 0 could display temperature sensor 3 in °C, while slot 1 could simultaneously display temperature sensor 3 in °F. Any slot may be positioned at any location on the LCD, as long as all the digits of that slot fall fully within the display area. It is legal to have the display area of one slot overlap the display area of another slot, but senseless. This situation should be avoided in order to have meaningful information displayed.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 52 type: 0x15 = 2110 valid data_length is 7 or 2 (for turning a slot off) data[0]: display slot (0-3) data[1]: type of item to display in this slot 0 = nothing (data_length then must be 2) 1 = (invalid) 2 = temperature (data_length then must be 7) data[2]: index of the sensor to display in this slot: 0-31 are valid for temperatures (and the temperature device must be attached) data[3]: number of digits for a temperature: 3 digits (-XX or XXX) for a temperature: 5 digits (-XX.X or XXX.X) data[4]: display column 0-13 valid for a 3-digit temperature 0-11 valid for a 5-digit temperature data[5]: display row (0-1 valid) data[6]: temperature units(0 = deg C, 1 = deg F) If a 1-Wire CRC error is detected, the temperature will be displayed as "ERR" or "ERROR". The return packet will be: type: 0x40 | 15 = 0x55 = 8510 data_length: 0 22 (0x16): Send Command Directly to the LCD Controller The controller on the CFA533 is HD44780 compatible. Generally you won’t need low-level access to the LCD controller but some arcane functions of the HD44780 are not exposed by the CFA533’s command set. This command allows you to access the CFA533’s LCD controller directly. Note: It is possible to corrupt the CFA533 display using this command. type: 0x16 = 2210 data_length: 2 data[0]: location code 0 = "Data" register 1 = "Control" register data[1]: data to write to the selected register The return packet will be: type: 0x40 | 0x16 = 0x56 = 8610 data_length: 0 23 (0x16): Enable Key Ready Flag Due to the nature of the I2C protocol, we have included an out -of-band method of checking for key presses and releases. This command allows GPIO[0] (J8’s Pin 7) to act as a key ready flag. If enabled, it sets GPIO[0] high unt il read by the host using 24 (0x18): Read Keypad, Polled Mode (Pg. 53). type: 0x17 = 2310 data_length: 1 data[0] = 0 => GPIO 0 is normal 1 => GPIO 0 driven high if a key is ready driven low if no keys are ready The return packet will be: type: = 23 data_length: = 0
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 53 24 (0x18): Read Keypad, Polled Mode In some situations, it may be convenient for the host to poll the CFA533 for key activity. This command allows the host to detect which keys are currently pressed, which keys have been pressed since the last poll, and which keys have been released since the last poll. #define KP_UP 0x01 #define KP_ENTER 0x02 #define KP_CANCEL 0x04 #define KP_LEFT 0x08 #define KP_RIGHT 0x10 #define KP_DOWN 0x20 type: 0x18 = 2410 data_length: 0 The return packet will be: type: 0x40 | 0x18 = 0x58 = 8810 data_length: 3 data[0] = bitmask showing the keys currently pressed data[1] = bitmask showing the keys that have been pressed since the last poll data[2] = bitmask showing the keys that have been released since the last poll NOTE ON COMMAND 23: ENABLE KEY READY FLAG In order for the GPIO pin to function as a key ready flag, GPIO[0] pin must be configured correctly. To ensure that GPIO[0] will operate correctly as a key ready flag, user GPIO[1] must be configured as: DDD = "101: 1=Slow, Strong Drive Up,0=Slow, Strong Drive Down". F = "0: Port unused for user GPIO." This configuration can be assured by sending the following command: command = 34 length = 3 data[0] = 0 data[1] = 0 data[2] = 5
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 54 28 (0x1C): Set ATX Switch Functionality The combination of the CFA533 with the Crystalfontz WR-PWR-Y14 or WR-PWR-Y44 cable can be used to replace the function of the power and reset switches in a standard ATX-compatible system. The ATX Power Switch Functionality is one of the items stored by the command 4 (0x04): Store Current State as Boot State (Pg. 43). NOTE ON COMMAND 28: SET ATX SWITCH FUNCTIONALITY The GPIO pins used for ATX control must not be configured as user GPIO. The pins must be configured to their default drive mode in order for the ATX functions to work correctly. These settings are factory default but may be changed by the user. Please see command 34 (0x22): Set/Configure GPIO (Pg. 57). These settings must be saved as the boot state. To ensure that GPIO[1] will operate correctly as ATX SENSE, user GPIO[1] must be configured as: DDD = "011: 1=Resistive Pull Up, 0=Fast, Strong Drive Down". F = "0: Port unused for user GPIO." This configuration can be assured by sending the following command: command = 34 length = 3 data[0] = 1 data[1] = 0 data[2] = 3 To ensure that GPIO[2] will operate correctly as ATX POWER, user GPIO[2] must be configured as: DDD = "010: Hi-Z, use for input". F = "0: Port unused for user GPIO." This configuration can be assured by sending the following command: command = 34 length = 3 data[0] = 2 data[1] = 0 data[2] = 2 To ensure that GPIO[3] will operate correctly as ATX RESET, user GPIO[3] must be configured as: DDD = "010: Hi-Z, use for input". F = "0: Port unused for user GPIO." This configuration can be assured by sending the following command: command = 34 length = 3 data[0] = 3 data[1] = 0 data[2] = 2 These settings must be saved as the boot state.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 55 The RESET (GPIO[3]) and POWER CONTROL (GPIO[2]) lines on the CFA533 are normally high-impedance. lines, they are momentarily driven high or low (as determined by the AUTO_POLARITY, RESET_INVERT or POWER_INVERT bits, detailed below). To end the power or reset pulse, the CFA533 changes the lines back to high- impedance. FOUR FUNCTIONS MAY BE ENABLED BY COMMAND 28 Function 1: KEYPAD_RESET If POWER-ON SENSE (GPIO[1]) is high, holding the green check key for 4 seconds will pulse RESET (GPIO[3]) pin for 1 second. During the 1-second pulse, the CFA533 will show "RESET", and then the CFA533 will reset itself, showing its boot state as if it had just powered on. Once the pulse has finished, the CFA533 will not respond to any commands until after it has reset the host and itself. Function 2: KEYPAD_POWER_ON If POWER-ON SENSE (GPIO[1]) is low, pressing the green check key for 0.25 seconds will pulse POWER CONTROL (GPIO[2]) for the duration specified by in data[1] or the default of 1 second. During this time the CFA533 will show "POWER ON", then the CFA533 will reset itself. Function 3: KEYPAD_POWER_OFF If POWER-ON SENSE (GPIO[1]) is high, holding the red X key for 4 seconds will pulse POWER CONTROL (GPIO[2]) for the duration specified by in data[1] or the default of 1 second. If the user continues to hold the power key down, then the CFA533 will continue to drive the line for a maximum of 5 additional seconds. During this time the CFA533 will show "POWER OFF". Function 4: LCD_OFF_IF_HOST_IS_OFF If LCD_OFF_IF_HOST_IS_OFF is set, the CFA533 will blank its screen and turn off its backlight to simulate its power being off any time POWER-ON SENSE is low. NOTE By default there is an internal POWER-ON-SENSE connected to the +5v pin of J_PWR, selected by setting data[2] to 1. Alternatively, GPIO[1] may be configured to act as POWER-ON-SENSE through R3 of 5k, and specifying data[2] as 0. The CFA533 will still be active (since it is powered by VSB), monitoring the keypad for a power-on keystroke. Once POWER-ON SENSE goes high, the CFA533 will reboot as if power had just been applied to it.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 56 #define AUTO_POLARITY 0x01 //Automatically detects polarity for reset and //power (recommended) #define RESET_INVERT 0x02 //Reset pin drives high instead of low (ignored if AUTO_POLARITY is set) #define POWER_INVERT 0x04 //Power pin drives high instead of low (ignored if AUTO_POLARITY is set) #define LCD_OFF_IF_HOST_IS_OFF 0x10 #define KEYPAD_RESET 0x20 #define KEYPAD_POWER_ON 0x40 #define KEYPAD_POWER_OFF 0x80 type: 0x1C = 2810 data_length: 1, 2 or 3 data[0]: bitmask of enabled functions data[1]: (optional) length of power on & off pulses in 1/32 second 1 = 1/32 sec 2 = 1/16 sec 16 = 1/2 sec 255 = 8 sec data[2]: (optional) atx_sense_on_floppy 0: sense ATX host state on P2.1 (J8, pin 6 / GPIO [1] -- R3 must be loaded) 1: sense ATX host state on P0.7 (JPWR,+5v -- recommended configuration)) The return packet will be: type: 0x40 | 0x1C = 0x5C = 9210 data_length: 0 29 (0x1D): Enable/Feed Host Watchdog Reset Some high-availability systems use hardware watchdog timers to ensure that a software or hardware failure does not result in an extended system outage. Once the host system has booted, a system monitor program is started. The system monitor program would enable the watchdog timer on the CFA533. If the system monitor program fails to feed the CFA533’s watchdog timer, the CFA533 will reset the host system. type: 0x1D = 2910 data_length: 1 data[0] = enable/timeout If timeout is 0, the watchdog is disabled. If timeout is 1-255, then this command must be issued again within timeout seconds to feed the watchdog and avoid a watchdog reset. To turn the watchdog off once it has been enabled, simply set timeout to 0. If the command is not re-issued within timeout seconds, then the CFA533 will reset the host (see command 28 for details). Since the watchdog is off by default when the CFA533 powers up, the CFA533 will not issue another host reset until the host has once again enabled the watchdog. The return packet will be: type: 0x40 | 0x1D = 0x5D = 9310 data_length: 0 NOTE The GPIO pins used for ATX control must not be configured as user GPIO. They must be configured to their default drive mode in order for the ATX functions to work correctly. These settings are factory default, but may be changed by the user. Please see the note under command 28 (0x1C): Set ATX Switch Functionality (Pg. 53) or command 34 (0x22): Set/Configure GPIO (Pg. 57).
www.crystalfontz.com CFA533-*-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 57 30 (0x1E): Read Reporting/ATX/Watchdog (debug) This command can be used to verify the current items configured to report to the host, as well as some other miscellaneous status information. Please note that the information returned by the CFA533 is not identical to the information returned by similar Crystalfontz displays. type: 30 data_length: 0 The return packet will be: type: 0x1E = 3010 data_length: 15 data[0] = 0 data[1] = 0 data[2] = 0 data[3] = 0 data[4] = 0 data[5] = 0 data[6] = 0 data[7] = ATX Power Switch Functionality (as set by command 28) data[8] = current watchdog counter (as set by command 29) data[9] = User Contrast Adjust (as set by command 13, data[1]) data[10] = Key backlight setting (as set by command 14, data[1]) data[11] = atx_sense_on_floppy (as set by command 28) data[12] = 0 data[13] = CFA633-style contrast setting (as set by command 13, data[0]) data[14] = LCD backlight setting (as set by command 14, data[0]) Please Note: Previous and future firmware versions may return fewer or additional bytes. 31 (0x1F): Send Data to LCD This command allows data to be placed at any position on the LCD. type: 0x1F = 3110 data_length: 3 to 18 data[0]: col = x = 0 to 15 data[1]: row = y = 0 to 1 data[2-21]: text to place on the LCD, variable from 1 to 16 characters The return packet will be: type: 0x40 | 0x1F = 0x5F = 9510 data_length: 0 Send Data to LCD is one of the items stored by the command 4 (0x04): Store Current State as Boot State (Pg. 43). 33 (0x21): Set I2C Address This command sets the I2C address. This number is bit shifted left by one and combined with the R/W bit to make the actual I2C address byte. For example, if 10 is set as the address, the I2C address byte for writes is 20 and for reads is 21. The default address of the CFA533-*-KC is 4210 (8410 writes, 8510 reads), in hexadecimal 0x2A (0x54 writes, 0x55 reads). Debugging Tip: To display the I2C address of the display module on the LCD, hold both the up and the down arrows for 4 seconds. type: 0x21 = 3310 data_length: 1 data[0]: 0 to 127
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 58 The return packet will be: type: 0x40 | 0x21 = 0x61 = 9710 data_length: 0 34 (0x22): Set/Configure GPIO The CFA533 has five pins for user-definable general-purpose input / output (GPIO). These pins are shared with the DOW and ATX functions. Be careful when you configure the GPIO if you want to use the ATX or DOW at the same time. The architecture of the CFA533 allows great flexibility in the configuration of the GPIO pins. They can be set as input or output. They can output constant high or low signals or a variable duty cycle 100 Hz PWM signal. (PWM Pulse Width Modulation is a way to simulate intermediate levels by switching a level between full on and full off. PWM is typically used to control the brightness of LED backlights, relying on the natural averaging done by the human eye.) In output mode using the PWM (and a suitable supporting circuit), an LED may be turned on or off and even dimmed under host software control. With suitable external circuitry, the GPIOs can also be used to drive external logic or power transistors. The CFA533 continuously polls the GPIOs as inputs at 32 Hz. The present level can be queried by the host software at a lower rate. The CFA533 also keeps track of whether there were rising or falling edges since the last host query (subject to the resolution of the 32 Hz sampling). This means that the host is not forced to poll quickly in order to detect short events. The algorithm used by the CFA533 to read the inputs is inherently “debounced”. The GPIOs also have “pull-up” and “pull-down” modes. These modes can be useful when using the GPIO as an input connected to a switch since no external pull-up or pull-down resistor is needed. For instance, the GPIO can be set to pull up. Then when a switch connected between the GPIO and ground is open, reading the GPIO will return a "1". When the switch is closed, the input will return a "0". Pull-up/pull-down resistance values are approximately 5k∧. Do not exceed current of 25 mA per GPIO. GPIO[1] may be connected to the host’s power in order to sense the host’s power on/off state. There is 5k∧ resistor for R3 in series with GPIO[1] to limit the possibility of latchup. The GPIO configuration is one of the items stored by the command 4 (0x04): Store Current State as Boot State (Pg. 43). type: 0x22 = 3410 data_length: 2 bytes to change value only 3 bytes to change value and configure function and drive mode data[0]: index of GPIO to modify 0 = GPIO[0] = J8, Pin 7 1 = GPIO[1] = J8, Pin 6 (may be ATX Host Power Sense, as configured by command 28, data[2]) 2 = GPIO[2] = J8, Pin 5 (default is ATX Host Power Control) 3 = GPIO[3] = J8, Pin 4 (default is ATX Host Reset Control) 4 = GPIO[4] = J9, Pin 2 (default is DOW I/O--has 1k∧ hardware pull-up) 5-255 = reserved NOTE ON SETTING AND CONFIGURING GPIO PINS The GPIO pins may also be used for ATX control through header J8 and temperature sensing through the CFA533’s DOW header. By factory default, the GPIO output setting, function, and drive mode are set correctly to enable operation of the ATX and DOW functions. The GPIO output setting, function, and drive mode must be set to the correct values in order for the ATX and DOW functions to work. Improper use of this command can disable the ATX and DOW functions.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 59 Please note: Future versions of this command on future hardware models may accept additional values for data[0], which would control the state of future additional GPIO pins data[1]: Pin output state (actual behavior depends on drive mode): 0 = Output set to low 1-99 = Output duty cycle percentage (100 Hz nominal) 100 = Output set to high 101-255 = invalid data[2]: Pin function select and drive mode (optional) ---- FDDD |||| ||||-- DDD = Drive Mode (based on output state of 1 or 0) |||| | 000: 1=Fast, Strong Drive Up, 0=Resistive Pull Down |||| | 001: 1=Fast, Strong Drive Up, 0=Fast, Strong Drive Down |||| | 010: Hi-Z, use for input |||| | 011: 1=Resistive Pull Up, 0=Fast, Strong Drive Down |||| | 100: 1=Slow, Strong Drive Up, 0=Hi-Z |||| | 101: 1=Slow, Strong Drive Up, 0=Slow, Strong Drive Down |||| | 110: reserved, do not use |||| | 111: 1=Hi-Z, 0=Slow, Strong Drive Down |||| 0: Port unused for GPIO. It will take on the default |||| function such as ATX, DOW or unused. The user is |||| responsible for setting the drive to the correct |||| value in order for the default function to work |||| correctly. |||| 1: Port used for GPIO under user control. The user is |||| responsible for setting the drive to the correct |||| value in order for the desired GPIO mode to work |||| correctly. The return packet will be: type: 0x40 | 0x22 = 0x62 = 9810 data_length: 0 35 (0x23): Read GPIO Pin Levels and Configuration State Please see command 34 (0x22): Set/Configure GPIO (Pg. 57) for details on the GPIO architecture. type: 0x23 = 3510 data_length: 1 data[0]: index of GPIO to query 0 = GPIO[0] = J8, Pin 7 1 = GPIO[1] = J8, Pin 6 (may be ATX Host Power Sense, as configured by command 28, data[2]) 2 = GPIO[2] = J8, Pin 5 (default is ATX Host Power Control) 3 = GPIO[3] = J8, Pin 4 (default is ATX Host Reset Control) 4 = GPIO[4] = J9, Pin 2 (default is DOW I/O--may have a 1k∧ hardware pull-up) 5-255 = reserved Please note: Future versions of this command on future hardware models may accept additional values for data[0],which would return the status of future additional GPIO pins.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 60 returns: data[0]: index of GPIO read data[1]: Pin state & changes since last poll ---- -RFS |||| ||||-- S = state at the last reading |||| |||--- F = at least one falling edge has |||| || been detected since the last poll |||| ||---- R = at least one rising edge has |||| | been detected since the last poll (This reading is the actual pin state, which may or may not agree with the pin setting, depending on drive mode and the load presented by external circuitry. The pins are polled at approximately 32 Hz asynchronously with respect to this command.Transients that happen between polls will not be detected.) data[2]: Requested Pin level/PWM level 0-100 = Output duty cycle percentage (This value is the requested PWM duty cycle. The actual pin may or may not be toggling in agreement with this value, depending on the drive mode and the load presented by external circuitry) data[3]: Pin function select and drive mode ---- FDDD |||| | 000: 1=Fast, Strong Drive Up, 0=Resistive Pull Down |||| | 001: 1=Fast, Strong Drive Up, 0=Fast, Strong Drive Down |||| | 010: Hi-Z, use for input |||| | 011: 1=Resistive Pull Up, 0=Fast, Strong Drive Down |||| | 100: 1=Slow, Strong Drive Up, 0=Hi-Z |||| | 101: 1=Slow, Strong Drive Up, 0=Slow, Strong Drive Down |||| | 111: 1=Hi-Z, 0=Slow, Strong Drive Down |||| 0: Port unused for GPIO. It will take on the default |||| function such as ATX, DOW or unused. The user is |||| responsible for setting the drive to the correct |||| value in order for the default function to work |||| correctly. |||| 1: Port used for GPIO under user control. The user is |||| responsible for setting the drive to the correct |||| value in order for the desired GPIO mode to work |||| correctly.
with the value of 226 to the display, the Greek letter "β" will be shown. Figure 24. Character Generator ROM (CGROM)
www.crystalfontz.com CFA533-*-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 61 DISPLAY MODULE RELIABILITY AND LONGEVITY DISPLAY MODULE RELIABILITY Under operating and storage temperature specification limitations, humidity non-condensing RH up to 65%, and no exposure to direct sunlight. Values listed below are approximate and represent typical lifetime.” PART NUMBER ITEM SPECIFICATION CFA533-*-KC (all variants) LCD portion (excluding keypad and backlights) 50,000 to 100,000 hours Keypad 1,000,000 keystrokes CFA533-TFH-KC CFA533-TMI-KC White LED display backlights and white or blue keypad backlights Note: We recommend that white LED backlights be dimmed or turned off during periods of inactivity to conserve their lifetime. Power-On Hours % of Initial Brightness <10,000 >90% <50,000 >50% CFA533-YYH-KC Yellow-green LED backlights 50,000 to 100,000 hours (typical) DISPLAY MODULE LONGEVITY (EOL / REPLACEMENT POLICY) Crystalfontz is committed to making all of our display modules available for as long as possible. For each display module we introduce, we intend to offer it indefinitely. We do not pre-plan a display module's obsolescence. The majority of modules we have introduced are still available. We recognize that discontinuing a display module may cause problems for some customers. However, rapidly changing technologies, component availability, or low customer order levels may force us to discontinue (“End of Life”, EOL) a display module. For example, we must occasionally discontinue a display module when a supplier discontinues a component or a manufacturing process becomes obsolete. When we discontinue a display module, we will do our best to find an acceptable replacement display module with the same fit, form, and function. In most situations, you will not notice a difference when comparing a “fit, form, and function” replacement display module to the discontinued display module it replaces. However, sometimes a change in component or process for the replacement display module results in a slight variation, perhaps an improvement, over the previous design. Although the replacement display module is still within the stated Datasheet specifications and tolerances of the discontinued display module, changes may require modification to your circuit and/or firmware. Possible changes include: Backlight LEDs. Brightness may be affected (perhaps the new LEDs have better efficiency) or the current they draw may change (new LEDs may have a different VF). Controller. A new controller may require minor changes in your code. Component tolerances. Display module components have manufacturing tolerances. In extreme cases, the tolerance stack can change the visual or operating characteristics. Please understand that we avoid changing a display module whenever possible; we only discontinue a display module if we have no other option. We will post Part Change Notices (PCN) on the product's web page as soon as possible. If interested, you can subscribe to future part change notifications.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 62 CARE AND HANDLING PRECAUTIONS For optimum operation of the display module and to prolong its life, please follow the precautions below. Note: Excessive voltage will shorten the life of the display module. You must drive the display module within the specified voltage limit. See Absolute Maximum Ratings (Pg. 24). HANDLING CAUTION FOR DISPLAY MODULES SHIPPED IN TRAYS If you receive display modules packed in trays, handle trays carefully by supporting the entire tray. Trays were made to immobilize the display modules inside their packing carton. Trays are not designed to be rigid. Do not carry trays by their edges; trays and display modules may be damaged. ELECTROSTATIC DISCHARGE (ESD) The circuitry is industry standard CMOS logic and susceptible to ESD damage. Please use industry standard anti- static precautions as you would for any other static sensitive devices such as expansion cards, motherboards, or integrated circuits. Ground your body, work surfaces, and equipment. DESIGN AND MOUNTING The controller maintains its internal operating modes until something happens to change it. Excessive external noise can change these internal modes. In your packaging and system design, suppress or prevent the noise from influencing the controller. Also, refresh the operating modes periodically to prevent the effects of unanticipated noise. The exposed surface of the LCD “glass” is actually a polarizer laminated on top of the glass.To protect the soft plastic polarizer from damage, the module ships with a protective film over the polarizer. Please peel off the protective film slowly. Peeling off the protective film abruptly may generate static electricity. The polarizer is made out of soft plastic and is easily scratched or damaged. When handling the module, avoid touching the polarizer. Finger oils are difficult to remove. To protect the soft plastic polarizer from damage, place a transparent plate (for example, acrylic, polycarbonate, or glass) in front of the module, leaving a small gap between the plate and the display surface. We use Lexan®, which is readily available and works well. Do not disassemble or modify the module. Do not modify the six tabs of the metal bezel or make connections to them. Solder only to the I/O terminals. Use care when removing solder—it is possible to damage the PCB. Do not reverse polarity to the power supply connections. Reversing polarity will immediately ruin the module. AVOID SHOCK, IMPACT, TORQUE, OR TENSION Do not expose the module to strong mechanical shock, impact, torque, or tension. Do not drop, toss, bend, or twist the module. Do not place weight or pressure on the module. CAUTION All electronics may contain harmful substances. Avoid contamination by using care to avoid damage during handling. If any residues, gases, powders, liquids, or broken fragments come in contact with your skin, eyes, mouth, or lungs, immediately contact your local poison control or emergency medical center.
www.crystalfontz.com CFA533-*-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 63 HOW TO CLEAN 1. Turn display module off. 2. Use the removable protective film to remove smudges (for example, fingerprints) and any foreign matter. If you no longer have the protective film, use standard transparent office tape (for example, Scotch® brand “Crystal Clear Tape”). 3. If the polarizer is dusty, you may carefully blow it off with clean, dry, oil-free compressed air. 4. If you must clean with a liquid, never use glass cleaners, as they may contain ammonia or alcohol that will damage the polarizer over time. Never apply liquids directly on the polarizer. Long contact with moisture may permanently spot or stain the polarizer. Use filtered water to slightly moisten a clean lint-free microfiber cloth designed for cleaning optics. (For example, use a cloth sold for cleaning plastic eyeglasses.) 5. The plastic is easily scratched or damaged. Use a light touch as you clean the polarizer. Wipe gently. 6. Use a dry microfiber cloth to remove any trace of moisture before turning on the TFT. 7. Gently wash the microfiber cloths in warm, soapy water and air dry before reuse. OPERATION Your circuit should be designed to protect the CFA533-*-KC from ESD and power supply transients. Observe the operating temperature limitations: a minimum of 0°C to a maximum of 50°C with minimal fluctuation. Operation outside of these limits may shorten life and/or harm display. At lower temperatures of this range, response time is delayed. At higher temperatures of this range, display becomes dark. (You may need to adjust the contrast.) Operate away from dust, moisture, and direct sunlight. For the CFA533-TFH-KC and CFA533-TMI-KC with white LEDs, adjust backlight brightness so the display is readable but not too bright. Dim or turn off the backlight during periods of inactivity to conserve the white LED backlight lifetime. STORAGE AND RECYCLING Store in an ESD-approved container away from dust, moisture, and direct sunlight, fluorescent lamps, or any strong ultraviolet radiation. Ensure humidity is less than 90% non-condensing. Observe the storage temperature limitations: -10°C minimum, 60°C maximum with minimal fluctuation. Rapid temperature changes can cause moisture to form, resulting in permanent damage. Do not allow weight to be placed on the CFA533-***-KCs while they are in storage. Please recycle your outdated Crystalfontz modules at an approved facility.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 64 APPENDIX A: QUALITY ASSURANCE STANDARDS INSPECTION CONDITIONS Environment Temperature: 25±5°C Humidity: 30~85% RH For visual inspection of active display area Source lighting: two 20 Watt or one 40 Watt fluorescent light Display adjusted for best contrast Viewing distance: 30±5 cm (about 12 inches) Viewable angle: inspect at 45° angle of vertical line right and left, top and bottom COLOR DEFINITIONS We try to describe the appearance of our modules as accurately as possible. For the photos, we adjust for optimal appearance. Actual display appearance may vary due to (1) different operating conditions, (2) small variations of component tolerances, (3) inaccuracies of our camera, (4) color interpretation of the photos on your monitor, and/or (5) personal differences in the perception of color. DEFECTS CLASSIFICATION Defects are defined as: Major Defect: results in failure or substantially reduces usability of unit for its intended purpose. Minor Defect: deviates from standards but is not likely to reduce usability for its intended purpose.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 65 Width ACCEPTANCE STANDARDS DEFECT TYPE ACCEPTANCE STANDARDS CRITERIA MAJOR / MINOR 1 Electrical defects 1. No display, display malfunctions, or shorted segments. 2. Current consumption exceeds specifications. Major 2 Viewing area defect Viewing area does not meet specifications). Major
3 Contrast adjustment
defect Contrast adjustment fails or malfunctions. Major
4 Blemishes or foreign
Blemish Defect Size (mm) Acceptable Qty Minor <0.3 3 <2 defects within 10 mm of each other
5 Other blemishes or for-
Defect size = (A + B)/2 Length Width Defect Size (mm) Acceptable Qty Minor <0.15 Ignore 0.15 to 0.20 3 0.20 to 0.25 2 0.25 to 0.30 1
6 Dark lines or scratches
Defect Width (mm) Defect Length (mm) Acceptable Qty Minor <0.03 <3.0 3 0.03 to 0.05 <2.0 2 0.05 to 0.08 <2.0 1 0.08 to 0.10 ≤3.0 0 >0.10 >3.0 0
7 Bubbles between polarizer film and glass Defect Size (mm) Acceptable Qty
<0.20 Ignore 0.20 to 0.40 3 0.40 to 0.60 2 >0.60 0
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 66 B C D G DEFECT TYPE ACCEPTANCE STANDARDS CRITERIA (Continued) MAJOR / MINOR
8 Display pattern defect
A F E Minor Dot Size (mm) Acceptable Qty ((A+B)/2)<0.2 <3 total defects <2 pinholes per digit C>0 ((D+E)/2)<0.25 ((F+G)/2)<0.25 9 Backlight defects 1. Light fails or flickers.* 2. Color and luminance do not correspond to specifications.* 3. Exceeds standards for display’s blemishes or foreign matter (see test 5, Pg. 65), and dark lines or scratches (see test 6, Pg. 65). *Minor if display functions correctly. Major if the display fails. Minor 10 COB defects 1. Pinholes >0.2 mm. 2. Seal surface has pinholes through to the IC. 3. More than 3 locations of sealant beyond 2 mm of the sealed areas. Minor 11 PCB defects 1. Oxidation or contamination on connectors.* 2. Wrong parts, missing parts, or parts not in specification.* 3. Jumpers set incorrectly. 4. Solder (if any) on bezel, LED pad, zebra pad, or screw hole pad is not smooth. *Minor if display functions correctly. Major if the display fails. Minor 12 Soldering defects 1. Unmelted solder paste. 2. Cold solder joints, missing solder connections, or oxidation.* 3. Solder bridges causing short circuits.* 4. Solder balls. *Minor if display functions correctly. Major if the display fails. Minor
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 67 APPENDIX B: SAMPLE APPLICATIONS AND SOURCE CODE ARDUINO EXAMPLE CONNECTIONS AND SKETCH We have an example project that details the steps needed to connect a CFA533 I2C LCD module to an Arduino Uno. There is a sample sketch that can be loaded into the Arduino to test it. DEMONSTRATION CODE FOR ATMEL AVR ATMEGA 2561 Available for download on the Datasheets & Files tab for the web pages of each CFA533 part number.
533 I2C WINTEST
The 533 I2C WinTest works with TotalPhase Aardvark I2C/SPI Adapter to demonstrate the display’s features. ALGORITHMS TO CALCULATE THE CRC Below are eight sample algorithms that will calculate the CRC of a CFA533 packet. Some of the algorithms were contributed by forum members and originally written for the CFA631 or CFA635. The CRC used in the CFA533 is the same one that is used in IrDA, which came from PPP, which seems to be related to a CCITT (ref: Network Working Group Request for Comments: 1171) standard. At that point, the trail was getting a bit cold and diverged into several referenced articles and papers, dating back to 1983. The polynomial used is X16 + X12 + X5 + X0 (0x8408) The result is bit-wise inverted before being returned. Algorithm 1: “C” Table Implementation This algorithm is typically used on the host computer, where code space is not an issue. //This code is from the IRDA LAP documentation, which appears to //have been copied from PPP: // http://irda.affiniscape.com/associations/2494/files/Specifications/IrLAP11_Plus_Er- rata.zip //I doubt that there are any worries about the legality of this code, //searching for the first line of the table below, it appears that //the code is already included in the linux 2.6 kernel "Driver for //ST5481 USB ISDN modem". This is an "industry standard" algorithm //and I do not think there are ANY issues with it at all. typedef unsigned char ubyte; typedef unsigned short word; word get_crc(ubyte *bufptr,word len) //CRC lookup table to avoid bit-shifting loops. static const word crcLookupTable[256] = {0x00000,0x01189,0x02312,0x0329B,0x04624,0x057AD,0x06536,0x074BF, 0x08C48,0x09DC1,0x0AF5A,0x0BED3,0x0CA6C,0x0DBE5,0x0E97E,0x0F8F7, 0x01081,0x00108,0x03393,0x0221A,0x056A5,0x0472C,0x075B7,0x0643E, 0x09CC9,0x08D40,0x0BFDB,0x0AE52,0x0DAED,0x0CB64,0x0F9FF,0x0E876, 0x02102,0x0308B,0x00210,0x01399,0x06726,0x076AF,0x04434,0x055BD, 0x0AD4A,0x0BCC3,0x08E58,0x09FD1,0x0EB6E,0x0FAE7,0x0C87C,0x0D9F5, 0x03183,0x0200A,0x01291,0x00318,0x077A7,0x0662E,0x054B5,0x0453C, 0x0BDCB,0x0AC42,0x09ED9,0x08F50,0x0FBEF,0x0EA66,0x0D8FD,0x0C974,
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 68 0x04204,0x0538D,0x06116,0x0709F,0x00420,0x015A9,0x02732,0x036BB, 0x0CE4C,0x0DFC5,0x0ED5E,0x0FCD7,0x08868,0x099E1,0x0AB7A,0x0BAF3, 0x05285,0x0430C,0x07197,0x0601E,0x014A1,0x00528,0x037B3,0x0263A, 0x0DECD,0x0CF44,0x0FDDF,0x0EC56,0x098E9,0x08960,0x0BBFB,0x0AA72, 0x06306,0x0728F,0x04014,0x0519D,0x02522,0x034AB,0x00630,0x017B9, 0x0EF4E,0x0FEC7,0x0CC5C,0x0DDD5,0x0A96A,0x0B8E3,0x08A78,0x09BF1, 0x07387,0x0620E,0x05095,0x0411C,0x035A3,0x0242A,0x016B1,0x00738, 0x0FFCF,0x0EE46,0x0DCDD,0x0CD54,0x0B9EB,0x0A862,0x09AF9,0x08B70, 0x08408,0x09581,0x0A71A,0x0B693,0x0C22C,0x0D3A5,0x0E13E,0x0F0B7, 0x00840,0x019C9,0x02B52,0x03ADB,0x04E64,0x05FED,0x06D76,0x07CFF, 0x09489,0x08500,0x0B79B,0x0A612,0x0D2AD,0x0C324,0x0F1BF,0x0E036, 0x018C1,0x00948,0x03BD3,0x02A5A,0x05EE5,0x04F6C,0x07DF7,0x06C7E, 0x0A50A,0x0B483,0x08618,0x09791,0x0E32E,0x0F2A7,0x0C03C,0x0D1B5, 0x02942,0x038CB,0x00A50,0x01BD9,0x06F66,0x07EEF,0x04C74,0x05DFD, 0x0B58B,0x0A402,0x09699,0x08710,0x0F3AF,0x0E226,0x0D0BD,0x0C134, 0x039C3,0x0284A,0x01AD1,0x00B58,0x07FE7,0x06E6E,0x05CF5,0x04D7C, 0x0C60C,0x0D785,0x0E51E,0x0F497,0x08028,0x091A1,0x0A33A,0x0B2B3, 0x04A44,0x05BCD,0x06956,0x078DF,0x00C60,0x01DE9,0x02F72,0x03EFB, 0x0D68D,0x0C704,0x0F59F,0x0E416,0x090A9,0x08120,0x0B3BB,0x0A232, 0x05AC5,0x04B4C,0x079D7,0x0685E,0x01CE1,0x00D68,0x03FF3,0x02E7A, 0x0E70E,0x0F687,0x0C41C,0x0D595,0x0A12A,0x0B0A3,0x08238,0x093B1, 0x06B46,0x07ACF,0x04854,0x059DD,0x02D62,0x03CEB,0x00E70,0x01FF9, 0x0F78F,0x0E606,0x0D49D,0x0C514,0x0B1AB,0x0A022,0x092B9,0x08330, 0x07BC7,0x06A4E,0x058D5,0x0495C,0x03DE3,0x02C6A,0x01EF1,0x00F78}; register word newCrc; newCrc=0xFFFF; //This algorithm is based on the IrDA LAP example. while(len--) newCrc = (newCrc >> 8) ^ crcLookupTable[(newCrc ^ *bufptr++) & 0xff]; //Make this crc match the one’s complement that is sent in the packet. return(~newCrc); Algorithm 2: “C” Bit Shift Implementation This algorithm was mainly written to avoid any possible legal issues about the source of the routine (at the request of the LCDproc group). This routine was “clean” coded from the definition of the CRC. It is ostensibly smaller than the table driven approach but will take longer to execute. This routine is offered under the GPL. typedef unsigned char ubyte; typedef unsigned short word; word get_crc(ubyte *bufptr,word len) register unsigned int newCRC; //Put the current byte in here. ubyte data; int bit_count; //This seed makes the output of this shift based algorithm match //the table based algorithm. The center 16 bits of the 32-bit //"newCRC" are used for the CRC. The MSb of the lower byte is used //to see what bit was shifted out of the center 16 bit CRC //accumulator ("carry flag analog"); newCRC=0x00F32100; while(len--) //Get the next byte in the stream. data=*bufptr++; //Push this byte’s bits through a software //implementation of a hardware shift & xor. for(bit_count=0;bit_count<=7;bit_count++)
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 69 //Shift the CRC accumulator newCRC>>=1; //The new MSB of the CRC accumulator comes //from the LSB of the current data byte. if(data&0x01) newCRC|=0x00800000; //If the low bit of the current CRC accumulator was set //before the shift, then we need to XOR the accumulator //with the polynomial (center 16 bits of 0x00840800) if(newCRC&0x00000080) newCRC^=0x00840800; //Shift the data byte to put the next bit of the stream //into position 0. data>>=1; //All the data has been done. Do 16 more bits of 0 data. for(bit_count=0;bit_count<=15;bit_count++) //Shift the CRC accumulator newCRC>>=1; //If the low bit of the current CRC accumulator was set //before the shift we need to XOR the accumulator with //0x00840800. if(newCRC&0x00000080) newCRC^=0x00840800; //Return the center 16 bits, making this CRC match the one’s //complement that is sent in the packet. return((~newCRC)>>8); Algorithm 2B: “C” Improved Bit Shift Implementation This is simplified algorithm that implements the CRC.
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 70 unsigned short get_crc(unsigned char count,unsigned char *ptr) unsigned short crc; //Calculated CRC unsigned char i; //Loop count, bits in byte unsigned char data; //Current byte being shifted crc = 0xFFFF; // Preset to all 1's, prevent loss of leading zeros while(count--) data = *ptr++; i = 8; do if((crc ^ data) & 0x01) crc >>= 1; crc ^= 0x8408; else crc >>= 1; data >>= 1; } while(--i != 0); return (~crc); Algorithm 3: “PIC Assembly” Bit Shift Implementation This routine was graciously donated by one of our customers. ; Crystalfontz CFA533 PIC CRC Calculation Example ; This example calculates the CRC for the hard coded example provided ; in the documentation. ; It uses "This is a test. " as input and calculates the proper CRC ; of 0x93FA. #include "p16f877.inc" ; CRC16 equates and storage accuml equ 40h ; BYTE - CRC result register high byte accumh equ 41h ; BYTE - CRC result register low byte datareg equ 42h ; BYTE - data register for shift j equ 43h ; BYTE - bit counter for CRC 16 routine Zero equ 44h ; BYTE - storage for string memory read index equ 45h ; BYTE - index for string memory read savchr equ 46h ; BYTE - temp storage for CRC routine ; seedlo equ 021h ; initial seed for CRC reg lo byte seedhi equ 0F3h ; initial seed for CRC reg hi byte
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 71 polyL equ 008h ; polynomial low byte polyH equ 084h ; polynomial high byte ; CRC Test Program org 0 ; reset vector = 0000H clrf PCLATH ; ensure upper bits of PC are cleared clrf STATUS ; ensure page bits are cleared goto main ; jump to start of program ; ISR Vector main main1 main2 org 4 ; start of ISR goto $ ; jump to ISR when coded org 20 ; start of main program movlw seedhi ; setup intial CRC seed value. movwf accumh ; This must be done prior to movlw seedlo ; sending string to CRC routine. movwf accuml ; clrf index ; clear string read variables movlw HIGH InputStr ; point to LCD test string movwf PCLATH ; latch into PCL, movfw index ; get index call InputStr ; get character movwf Zero ; setup for terminator test movf Zero,f ; see if terminator btfsc STATUS,Z ; skip if not terminator goto main2 ; else terminator reached, jump out of loop call CRC16 ; calculate new crc call SENDUART ; send data to LCD incf index,f ; bump index goto main1 ; loop movlw 00h ; shift accumulator 16 more bits. call CRC16 ; This must be done after sending movlw 00h ; string to CRC routine. call CRC16 ; comf accumh,f ; invert result comf accuml,f ; movfw accuml ; get CRC low byte call SENDUART ; send to LCD movfw accumh ; get CRC hi byte call SENDUART ; send to LCD stop goto stop ; word result of 0x93FA is in accumh/accuml ; calculate CRC of input byte CRC16 _loop movwf savchr ; save the input character movwf datareg ; load data register movlw .8 ; setup number of bits to test movwf j ; save to incrementor clrc ; clear carry for CRC register shift rrf datareg,f ; perform shift of data into CRC register rrf accumh,f ; rrf accuml,f ; btfss STATUS,C ; skip jump if if carry goto _notset ; otherwise goto next bit
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 72 _notset movlw polyL ; XOR poly mask with CRC register xorwf accuml,F ; movlw polyH ; xorwf accumh,F ; decfsz j,F ; decrement bit counter goto _loop ; loop if not complete movfw savchr ; restore the input character return ; return to calling routine ; USER SUPPLIED Serial port transmit routine SENDUART return ; put serial xmit routine here ; test string storage org 0100h InputStr addwf PCL,f dt 7h,10h,"This is a test. ",0 end Algorithm 4: “Visual Basic” Table Implementation Visual BASIC has its own challenges as a language (such as initializing static arrays), and it is also challenging to use Visual BASIC to work with “binary” (arbitrary length character data possibly containing nulls—such as the “data” portion of the CFA533 packet) data. This routine was adapted from the C table implementation. The complete project can be found in our forums. 'This program is brutally blunt. Just like VB. No apologies. 'Written by Crystalfontz America, Inc. 2004 http://www.crystalfontz.com 'Free code, not copyright copyleft or anything else. 'Some visual basic concepts taken from: 'http://www.planet-source-code.com/vb/scripts/ShowCode.asp?txtCodeId=21434&lngWId=1 'most of the algorithm is from functions in 633_WinTest: 'https://www.crystalfontz.com/product/633WinTest#docs 'Full zip of the project is available in our forum: 'http://www.crystalfontz.com/forum/showthread.php?postid=9921#post9921 Private Type WORD Lo As Byte Hi As Byte End Type Private Type PACKET_STRUCT command As Byte data_length As Byte data(22) As Byte crc As WORD End Type Dim crcLookupTable(256) As WORD Private Sub MSComm_OnComm() 'Leave this here End Sub 'My understanding of visual basic is very limited--however it appears that there is no way 'to initialize an array of structures. Nice language. Fast processors, lots of memory, big Sub Initialize_CRC_Lookup_Table() crcLookupTable(0).Lo = &H0 crcLookupTable(0).Hi = &H0
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 73 . . . 'For purposes of brevity in this data sheet, I have removed 251 entries of this table, the 'full source is available in our forum: 'http://www.crystalfontz.com/forum/showthread.php?postid=9921#post9921 . . . crcLookupTable(255).Lo = &H78 crcLookupTable(255).Hi = &HF End Sub 'This function returns the CRC of the array at data for length positions Private Function Get_Crc(ByRef data() As Byte, ByVal length As Integer) As WORD Dim Index As Integer Dim Table_Index As Integer Dim newCrc As WORD newCrc.Lo = &HFF newCrc.Hi = &HFF For Index = 0 To length - 1 'exclusive-or the input byte with the low-order byte of the CRC register 'to get an index into crcLookupTable Table_Index = newCrc.Lo Xor data(Index) 'shift the CRC register eight bits to the right newCrc.Lo = newCrc.Hi newCrc.Hi = 0 ' exclusive-or the CRC register with the contents of Table at Table_Index newCrc.Lo = newCrc.Lo Xor crcLookupTable(Table_Index).Lo newCrc.Hi = newCrc.Hi Xor crcLookupTable(Table_Index).Hi Next Index 'Invert & return newCrc Get_Crc.Lo = newCrc.Lo Xor &HFF Get_Crc.Hi = newCrc.Hi Xor &HFF End Function Private Sub Send_Packet(ByRef packet As PACKET_STRUCT) Dim Index As Integer 'Need to put the whole packet into a linear array 'since you can’t do type overrides. VB, gotta love it. Dim linear_array(26) As Byte linear_array(0) = packet.command linear_array(1) = packet.data_length For Index = 0 To packet.data_length - 1 linear_array(Index + 2) = packet.data(Index) Next Index packet.crc = Get_Crc(linear_array, packet.data_length + 2) 'Might as well move the CRC into the linear array too linear_array(packet.data_length + 2) = packet.crc.Lo linear_array(packet.data_length + 3) = packet.crc.Hi 'Now a simple loop can dump it out the port. For Index = 0 To packet.data_length + 3 MSComm.Output = Chr(linear_array(Index)) Next Index End Sub Algorithm 5: “Java” Table Implementation This code was posted in our forum by user “norm” as a working example of a Java CRC calculation. public class CRC16 extends Object public static void main(String[] args) byte[] data = new byte[2]; // hw - fw data[0] = 0x01; data[1] = 0x00; System.out.println("hw -fw req"); System.out.println(Integer.toHexString(compute(data))); // ping
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 74 data[0] = 0x00; data[1] = 0x00; System.out.println("ping"); System.out.println(Integer.toHexString(compute(data))); // reboot data[0] = 0x05; data[1] = 0x00; System.out.println("reboot"); System.out.println(Integer.toHexString(compute(data))); // clear lcd data[0] = 0x06; data[1] = 0x00; System.out.println("clear lcd"); System.out.println(Integer.toHexString(compute(data))); // set line 1 data = new byte[18]; data[0] = 0x07; data[1] = 0x10; String text = "Test Test Test"; byte[] textByte = text.getBytes(); for (int i=0; i < text.length(); i++) data[i+2] = textByte[i]; System.out.println("text 1"); System.out.println(Integer.toHexString(compute(data))); private CRC16() private static final int[] crcLookupTable = 0x00000,0x01189,0x02312,0x0329B,0x04624,0x057AD,0x06536,0x074BF, 0x08C48,0x09DC1,0x0AF5A,0x0BED3,0x0CA6C,0x0DBE5,0x0E97E,0x0F8F7, 0x01081,0x00108,0x03393,0x0221A,0x056A5,0x0472C,0x075B7,0x0643E, 0x09CC9,0x08D40,0x0BFDB,0x0AE52,0x0DAED,0x0CB64,0x0F9FF,0x0E876, 0x02102,0x0308B,0x00210,0x01399,0x06726,0x076AF,0x04434,0x055BD, 0x0AD4A,0x0BCC3,0x08E58,0x09FD1,0x0EB6E,0x0FAE7,0x0C87C,0x0D9F5, 0x03183,0x0200A,0x01291,0x00318,0x077A7,0x0662E,0x054B5,0x0453C, 0x0BDCB,0x0AC42,0x09ED9,0x08F50,0x0FBEF,0x0EA66,0x0D8FD,0x0C974, 0x04204,0x0538D,0x06116,0x0709F,0x00420,0x015A9,0x02732,0x036BB, 0x0CE4C,0x0DFC5,0x0ED5E,0x0FCD7,0x08868,0x099E1,0x0AB7A,0x0BAF3, 0x05285,0x0430C,0x07197,0x0601E,0x014A1,0x00528,0x037B3,0x0263A, 0x0DECD,0x0CF44,0x0FDDF,0x0EC56,0x098E9,0x08960,0x0BBFB,0x0AA72, 0x06306,0x0728F,0x04014,0x0519D,0x02522,0x034AB,0x00630,0x017B9, 0x0EF4E,0x0FEC7,0x0CC5C,0x0DDD5,0x0A96A,0x0B8E3,0x08A78,0x09BF1, 0x07387,0x0620E,0x05095,0x0411C,0x035A3,0x0242A,0x016B1,0x00738, 0x0FFCF,0x0EE46,0x0DCDD,0x0CD54,0x0B9EB,0x0A862,0x09AF9,0x08B70, 0x08408,0x09581,0x0A71A,0x0B693,0x0C22C,0x0D3A5,0x0E13E,0x0F0B7, 0x00840,0x019C9,0x02B52,0x03ADB,0x04E64,0x05FED,0x06D76,0x07CFF, 0x09489,0x08500,0x0B79B,0x0A612,0x0D2AD,0x0C324,0x0F1BF,0x0E036, 0x018C1,0x00948,0x03BD3,0x02A5A,0x05EE5,0x04F6C,0x07DF7,0x06C7E, 0x0A50A,0x0B483,0x08618,0x09791,0x0E32E,0x0F2A7,0x0C03C,0x0D1B5, 0x02942,0x038CB,0x00A50,0x01BD9,0x06F66,0x07EEF,0x04C74,0x05DFD, 0x0B58B,0x0A402,0x09699,0x08710,0x0F3AF,0x0E226,0x0D0BD,0x0C134, 0x039C3,0x0284A,0x01AD1,0x00B58,0x07FE7,0x06E6E,0x05CF5,0x04D7C, 0x0C60C,0x0D785,0x0E51E,0x0F497,0x08028,0x091A1,0x0A33A,0x0B2B3, 0x04A44,0x05BCD,0x06956,0x078DF,0x00C60,0x01DE9,0x02F72,0x03EFB, 0x0D68D,0x0C704,0x0F59F,0x0E416,0x090A9,0x08120,0x0B3BB,0x0A232, 0x05AC5,0x04B4C,0x079D7,0x0685E,0x01CE1,0x00D68,0x03FF3,0x02E7A, 0x0E70E,0x0F687,0x0C41C,0x0D595,0x0A12A,0x0B0A3,0x08238,0x093B1, 0x06B46,0x07ACF,0x04854,0x059DD,0x02D62,0x03CEB,0x00E70,0x01FF9, 0x0F78F,0x0E606,0x0D49D,0x0C514,0x0B1AB,0x0A022,0x092B9,0x08330, 0x07BC7,0x06A4E,0x058D5,0x0495C,0x03DE3,0x02C6A,0x01EF1,0x00F78 public static int compute(byte[] data) int newCrc = 0x0FFFF;
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 75 for (int i = 0; i < data.length; i++ ) int lookup = crcLookupTable[(newCrc ^ data[i]) & 0xFF]; newCrc = (newCrc >> 8) ^ lookup; return(~newCrc); Algorithm 6: “Perl” Table Implementation This code was translated from the C version by one of our customers. #!/usr/bin/perl use strict; my @CRC_LOOKUP = (0x00000,0x01189,0x02312,0x0329B,0x04624,0x057AD,0x06536,0x074BF, 0x08C48,0x09DC1,0x0AF5A,0x0BED3,0x0CA6C,0x0DBE5,0x0E97E,0x0F8F7, 0x01081,0x00108,0x03393,0x0221A,0x056A5,0x0472C,0x075B7,0x0643E, 0x09CC9,0x08D40,0x0BFDB,0x0AE52,0x0DAED,0x0CB64,0x0F9FF,0x0E876, 0x02102,0x0308B,0x00210,0x01399,0x06726,0x076AF,0x04434,0x055BD, 0x0AD4A,0x0BCC3,0x08E58,0x09FD1,0x0EB6E,0x0FAE7,0x0C87C,0x0D9F5, 0x03183,0x0200A,0x01291,0x00318,0x077A7,0x0662E,0x054B5,0x0453C, 0x0BDCB,0x0AC42,0x09ED9,0x08F50,0x0FBEF,0x0EA66,0x0D8FD,0x0C974, 0x04204,0x0538D,0x06116,0x0709F,0x00420,0x015A9,0x02732,0x036BB, 0x0CE4C,0x0DFC5,0x0ED5E,0x0FCD7,0x08868,0x099E1,0x0AB7A,0x0BAF3, 0x05285,0x0430C,0x07197,0x0601E,0x014A1,0x00528,0x037B3,0x0263A, 0x0DECD,0x0CF44,0x0FDDF,0x0EC56,0x098E9,0x08960,0x0BBFB,0x0AA72, 0x06306,0x0728F,0x04014,0x0519D,0x02522,0x034AB,0x00630,0x017B9, 0x0EF4E,0x0FEC7,0x0CC5C,0x0DDD5,0x0A96A,0x0B8E3,0x08A78,0x09BF1, 0x07387,0x0620E,0x05095,0x0411C,0x035A3,0x0242A,0x016B1,0x00738, 0x0FFCF,0x0EE46,0x0DCDD,0x0CD54,0x0B9EB,0x0A862,0x09AF9,0x08B70, 0x08408,0x09581,0x0A71A,0x0B693,0x0C22C,0x0D3A5,0x0E13E,0x0F0B7, 0x00840,0x019C9,0x02B52,0x03ADB,0x04E64,0x05FED,0x06D76,0x07CFF, 0x09489,0x08500,0x0B79B,0x0A612,0x0D2AD,0x0C324,0x0F1BF,0x0E036, 0x018C1,0x00948,0x03BD3,0x02A5A,0x05EE5,0x04F6C,0x07DF7,0x06C7E, 0x0A50A,0x0B483,0x08618,0x09791,0x0E32E,0x0F2A7,0x0C03C,0x0D1B5, 0x02942,0x038CB,0x00A50,0x01BD9,0x06F66,0x07EEF,0x04C74,0x05DFD, 0x0B58B,0x0A402,0x09699,0x08710,0x0F3AF,0x0E226,0x0D0BD,0x0C134, 0x039C3,0x0284A,0x01AD1,0x00B58,0x07FE7,0x06E6E,0x05CF5,0x04D7C, 0x0C60C,0x0D785,0x0E51E,0x0F497,0x08028,0x091A1,0x0A33A,0x0B2B3, 0x04A44,0x05BCD,0x06956,0x078DF,0x00C60,0x01DE9,0x02F72,0x03EFB, 0x0D68D,0x0C704,0x0F59F,0x0E416,0x090A9,0x08120,0x0B3BB,0x0A232, 0x05AC5,0x04B4C,0x079D7,0x0685E,0x01CE1,0x00D68,0x03FF3,0x02E7A, 0x0E70E,0x0F687,0x0C41C,0x0D595,0x0A12A,0x0B0A3,0x08238,0x093B1, 0x06B46,0x07ACF,0x04854,0x059DD,0x02D62,0x03CEB,0x00E70,0x01FF9, 0x0F78F,0x0E606,0x0D49D,0x0C514,0x0B1AB,0x0A022,0x092B9,0x08330, 0x07BC7,0x06A4E,0x058D5,0x0495C,0x03DE3,0x02C6A,0x01EF1,0x00F78); # our test packet read from an enter key press over the serial line: # type: 80 (key press) # data_length: 1 (1 byte of data) # data = 5 my $type: '80'; my $length = '01'; my $data = '05'; my $packet = chr(hex $type) . chr(hex $length) . chr(hex $data) ; my $valid_crc = '5584' ; print "A CRC of Packet ($packet) Should Equal ($valid_crc)\\n"; my $crc = 0xFFFF ;
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 76 printf("%x\\n", $crc); foreach my $char (split //, $packet) # newCrc = (newCrc >> 8) ^ crcLookupTable[(newCrc ^ *bufptr++) & 0xff]; # & is bitwise AND # ^ is bitwise XOR # >> bitwise shift right $crc = ($crc >> 8) ^ $CRC_LOOKUP[($crc ^ ord($char) ) & 0xFF] ; # print out the running crc at each byte printf("%x\\n", $crc); # get the complement $crc = ~$crc ; $crc = ($crc & 0xFFFF) ; # print out the crc in hex printf("%x\\n", $crc); Algorithm 7: For PIC18F8722 or PIC18F2685 This code was written by customer Virgil Stamps of ATOM Instrument Corporation for our CFA635 module. ; CRC Algorithm for CrystalFontz CFA-635 display (DB535) ; This code written for PIC18F8722 or PIC18F2685 ; Your main focus here should be the ComputeCRC2 and ; CRC16_ routines ComputeCRC2: nxt1_dsply: return CRC16_ movwf: dsplyCRCData ; w has byte to crc movlw .8 movwf dsplyCRCCount _cloop: bcf STATUS,C ; clear carry for CRC register shift rrcf dsplyCRCData,f ; perform shift of data into CRC ;register _notset: rrcf dsplyCRC,F rrcf dsplyCRC+1,F btfss STATUS,C ; skip jump if carry goto _notset ; otherwise goto next bit movlw 0x84 xorwf dsplyCRC,F movlw 0x08 ; XOR poly mask with CRC register xorwf dsplyCRC+1,F decfsz dsplyCRCCount,F ; decrement bit counter bra _cloop ; loop if not complete return movlb movwf RAM8 dsplyLPCNT ;w has the byte count movf call decfsz goto movlw call movlw call comf comf POSTINC1,w CRC16_ dsplyLPCNT nxt1_dsply CRC16_ CRC16_ dsplyCRC,F dsplyCRC+1,F ; shift accumulator 16 more bits ; invert result
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 77 ; example to clear screen dsplyFSR1 TEMP equ 0x83A ; 16-bit save for FSR1 for display ; message handler dsplyCRC equ 0x83C ; 16-bit CRC (H/L) dsplyLPCNT equ 0x83E ; 8-bit save for display message ; length - CRC dsplyCRCData equ 0x83F ; 8-bit CRC data for display use dsplyCRCCount equ 0x840 ; 8-bit CRC count for display use SendCount equ 0x841 ; 8-bit byte count for sending to ; display RXBUF2 equ 0x8C0 ; 32-byte receive buffer for ; Display TXBUF2 equ 0x8E0 ; 32-byte transmit buffer for ; Display ClearScreen: movlb RAM8 movlw .0 movwf SendCount movlw 0xF3 movwf dsplyCRC ; seed ho for CRC calculation movlw 0x21 movwf dsplyCRC+1 ; seen lo for CRC calculation call ClaimFSR1 movlw 0x06 movwf TXBUF2 LFSR FSR1,TXBUF2 movf SendCount,w movwf TXBUF2+1 ; message data length ; send message via interrupt routine. The code is made complex due ; to the limited FSR registers and extended memory space used ; example of sending a string to column 0, row 0 SignOnL1: call ClaimFSR1 lfsr FSR1,TXBUF2+4 ; set data string position SHOW C0R0,BusName ; move string to TXBUF2 movlw .2 ; addwf SendCount ; movff SendCount,TXBUF2+1 ; insert message data length call BuildMsgDSPLY call SendMsg return ; BuildMsgDSPLY used to send a string to LCD BuildMsgDSPLY: movlw 0xF3 movwf dsplyCRC ; seed hi for CRC calculation movlw 0x21 movwf dsplyCRC+1 ; seed lo for CRC calculation LFSR FSR1,TXBUF2 ; point at transmit buffer movlw 0x1F ; command to send data to LCD movwf TXBUF2 ; insert command byte from us to ; CFA-635 BMD1 movlw .2 ddwf SendCount,w ; + overhead call ComputeCRC2 ; compute CRC of transmit message movf dsplyCRC+1,w movwf POSTINC1 ; append CRC byte movf dsplyCRC,w movwf POSTINC1 ; append CRC byte
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 78 return SendMsg: call ReleaseFSR1 LFSR FSR0,TXBUF2 movff FSR0H,irptFSR0 movff FSR0L,irptFSR0+1 ; save interrupt use of FSR0 movff SendCount,TXBUSY2 bsf PIE2,TX2IE return ; set transmit interrupt enable ; (bit 4) ; macro to move string to transmit buffer SHOW macro src, stringname call src MOVLF upper stringname, TBLPTRU MOVLF high stringname, TBLPTRH MOVLF low stringname, TBLPTRL call MOVE_STR endm MOVE_STR: tblrd *+ movf TABLAT,w bz ms1b movwf POSTINC1 incf SendCount goto MOVE_STR ms1b: return
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 79 APPENDIX C: CONNECTING A DS2450 1-WIRE QUAD A/D CONVERTER This appendix describes a simple test circuit that demonstrates how to connect a Dallas Semiconductor DS2450 4- channel ADC to the CFA533’s DOW (Dallas One Wire) connector. It also gives a sample command sequence to initialize and read the ADC. Up to 32 DOW devices can be connected to the CFA533. In this example the DS2450 appears at device index 0. Your software should query the connected devices using command 18 (0x12): Read DOW Device Information (Pg. 49) to verify the locations and types of DOW devices connected in your application. Please refer to the DS2450 Data Sheet and the description for command 20 (0x14): Arbitrary DOW Transaction (Pg. 50) more information. Appendix C Figure 1. Test Circuit Schematic Start 533_I2C_WinTest and open the Packet Debugger dialog. Select Command 20 = Arbitrary DOW Transaction, then paste each string below into the data field and send the packet. The response should be similar to what is shown. 7R ³'2:´ FRQQHFWRU RQ &)$-533
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 80 //Write 0x40 (=64) to address 0x1C (=28) to leave analog circuitry on //(see page 6 of the data sheet) <command 20> \\000\\002\\085\\028\\000\\064 <response> C=84(d=0):2E,05,22 //16 bit "i-button" CRC + 8-bit "DOW" CRC //Consult "i-button" docs to check 16-bit CRC //DOW CRC is probably useless for this device. //Write all 8 channels of control/status (16 bits, 5.10v range) <command 20> \\000\\002\\085\\008\\000\\000 // address = 8, channel A low <response> C=84(d=0):6F,F1,68 // 16-bits, output off <command 20> \\000\\002\\085\\009\\000\\001 // address = 9, channel A high <response> C=84(d=0):FF,F1,AB // no alarms, 5.1v <command 20> \\000\\002\\085\\010\\000\\000 // address = 10, channel B low <response> C=84(d=0):CE,31,88 // 16-bits, output off <command 20> \\000\\002\\085\\011\\000\\001 // address = 11, channel B high <response> C=84(d=0):5E,31,4B // no alarms, 5.1v <command 20> \\000\\002\\085\\012\\000\\000 // address = 12, channel C low <response> C=84(d=0):2E,30,A3 // 16-bits, output off <command 20> \\000\\002\\085\\013\\000\\001 // address = 13, channel C high <response> C=84(d=0):BE,30,60 // no alarms, 5.1v <command 20> \\000\\002\\085\\014\\000\\000 // address = 14, channel D low <response> C=84(d=0):8F,F0,43 // 16-bits, output off <command 20> \\000\\002\\085\\015\\000\\001 // address = 15, channel D high <response> C=84(d=0):1F,F0,80 // no alarms, 5.1v //Read all 4 channels of control/status (check only) <command 20> \\000\\010\\170\\008\\000 //Repeat next two commands for each conversion (two cycles shown) //Start conversion on all channels <command 20> \\000\\002\\060\\015\\000 <response> C=84(d=0):3A,03,28 //Read all 8 channels <command 20> \\000\\010\\170\\000\\000 <response> C=84(d=0):00,33,DF,64,84,96,6A,C8,5A,6B,BE //Decoded response: 0x3300 = 13056 1.016015625 volts (channel A) 0x64DF = 25823 2.009541321 volts (channel B) 0x9684 = 38532 2.998553467 volts (channel C) 0xC86A = 51306 3.992623901 volts (channel D) //Start conversion on all channels <command 20> \\000\\002\\060\\015\\000 <response> C=84(d=0):3A,03,28 //Read all 8 channels <command 20> \\000\\010\\170\\000\\000 <response> C=84(d=0):6B,33,B2,64,97,96,42,C8,0F,C9,0A //Decoded response: 0x336B = 13163 1.024342346 volts (channel A) 0x64B2 = 25778 2.006039429 volts (channel B) 0x9697 = 38551 3.000032043 volts (channel C) 0xC842 = 51266 3.989511108 volts (channel D)
www.crystalfontz.com CFA533-*-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 81 APPENDIX D: EXAMPLE OF I2C SOURCE CODE FOR THE ATMEL AVR ATMEGA2561 Sample code for I2C communications between the CFA533-*-KC and an Atmel AVR ATMega2561 is below. Files may be downloaded at http://www.crystalfontz.com/products/document/2097/CFA-533-I2C-AVR.zip. TWI_driver.c // This is demo code for a CFA-10006 talking to a CFA-533-*-KC: // http://www.crystalfontz.com/product/CFA10006 // http://www.crystalfontz.com/product/CFA533-TMI-KC.html // TWI hacked to top two pins of "PORTD" on the 10K6 // SCL = PD0 // SDA = PD1 (lift R7 to disable LED1) // 1K pull-ups patched onto those two pins to +5v // CFA533-TMI-KC hooked to PD0/PD1 (SCL/SDA) // 2000 / 12 / 05: Original source is AVR155 by Asmund Saetre // 2010 / 01 / 07: This code was modified heavily by Crystalfontz. -BAC #include <avr/io.h> #include "TWI_driver.h" // Function : char Init_TWI(void) // Setup the TWI module // Baudrate : 100kHz @ 4MHz system clock // Own address : OWN_ADR (Defined in TWI_driver.h) char Init_TWI(void) TWAR = OWN_ADR; //Set own slave address TWBR = 12; //Set cycle time to 400 KHz // 12 -> 400 KHz measured // 72 -> 100 KHz measured TWCR = (1<<TWEN); //Enable TWI-interface return 1; // Function : void Wait_TWI_int(void) // Loop until TWI interrupt flag is set void Wait_TWI_int(void) while (!(TWCR & (1<<TWINT))); // Function :unsigned char Send_start(void) // Send a START condition to the bus and wait for the TWINT get set to // see the result. If it failed return the TWSR value, if succes return // SUCCESS. unsigned char Send_start(void) TWCR = ((1<<TWINT)+(1<<TWSTA)+(1<<TWEN));//Send START Wait_TWI_int(); //Wait for TWI interrupt flag set if((TWSR != START)&&(TWSR != REP_START)) //If status other than START
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 82 return TWSR; //transmitted(0x08) or Repeated return SUCCESS; //START transmitted(0x10) //-> error and return TWSR. //If success return SUCCESS // Function : // Send a STOP condition to the bus void Send_stop(void) TWCR = ((1<<TWEN)+(1<<TWINT)+(1<<TWSTO)); //Send STOP condition // Function : unsigned char Send_byte(unsigned char data) // Send one byte to the bus. unsigned char Send_byte(unsigned char data) Wait_TWI_int(); //Wait for TWI interrupt flag set TWDR = data; TWCR = ((1<<TWINT)+(1<<TWEN)); //Clear int flag to send byte Wait_TWI_int(); //Wait for TWI interrupt flag set if(TWSR != MTX_DATA_ACK) //If NACK received return TWSR return TWSR; return SUCCESS; //Else return SUCCESS // Function : unsigned char Send_adr(unsigned char adr) // Send a SLA+W/R to the bus unsigned char Send_adr(unsigned char adr) Wait_TWI_int(); //Wait for TWI interrupt flag set TWDR = adr; TWCR = ((1<<TWINT)+(1<<TWEN)); //Clear int flag to send byte Wait_TWI_int(); //Wait for TWI interrupt flag set if((TWSR != MTX_ADR_ACK)&&(TWSR != MRX_ADR_ACK)) //If NACK received return return TWSR; //TWSR return SUCCESS; //Else return SUCCESS unsigned char Get_byte_and_ACK(void) Wait_TWI_int(); //Wait for TWI interrupt flag set //Clear int flag and enable acknowledge to receive data. TWCR = ((1<<TWINT)+(1<<TWEA)+(1<<TWEN)); Wait_TWI_int(); //Wait for TWI interrupt flag set return(TWDR); //Save received byte unsigned char Get_byte_and_NACK(void) Wait_TWI_int(); //Wait for TWI interrupt flag set //Clear int flag to and do not enable acknowledge to tell the slave
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 83 //to stop transmitting TWCR = ((1<<TWINT)+(1<<TWEN)); Wait_TWI_int(); //Wait for TWI interrupt flag set return(TWDR); //Save received byte CFA-533-I2C-AVR.C // This is demo code for a CFA-10006 talking to a CFA-533-*-KC: // http://www.crystalfontz.com/product/CFA10006 // http://www.crystalfontz.com/product/CFA533-TMI-KC.html // TWI hacked to top two pins of "PORTD" on the 10K6 // SCL = PD0 // SDA = PD1 (lift R7 to disable LED1) // 1K pull-ups patched onto those two pins to +5v // CFA533-TMI-KC hooked to PD0/PD1 (SCL/SDA) #include <avr/io.h> #include <util/delay.h> #include "TWI_driver.h" #define LED_PORT PORTD #define LED2 0x02 #define CLR_LED2 LED_PORT &= ~(1 << LED2); #define SET_LED2 LED_PORT |= (1 << LED2); #define CFA533_ADDRESS 42 // 1/16MHz * 80000 = 5mS #define DELAY5mS 80000L // 1/16MHz * 2000000 = 125mS #define DELAY125mS 2000000L #define KP_UP 0x01 #define KP_ENTER 0x02 #define KP_CANCEL 0x04 #define KP_LEFT 0x08 #define KP_RIGHT 0x10 #define KP_DOWN 0x20 typedef unsigned char ubyte; typedef signed char sbyte; typedef unsigned short uword; typedef signed short sword; typedef unsigned long ulong; typedef signed long slong; //This structure allows access to the individual bytes in a word. typedef union ubyte as_bytes[2]; uword as_word; }WORD_UNION;
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 84 #define MAX_DATA_LENGTH 18 #define MAX_COMMAND 35 typedef struct ubyte command; ubyte data_length; ubyte data[MAX_DATA_LENGTH]; WORD_UNION CRC; }CFA533_PACKET; CFA533_PACKET outgoing_command; CFA533_PACKET incoming_response; //CRC lookup table to avoid bit-shifting loops. const uword crcLookupTable[256] = {0x00000,0x01189,0x02312,0x0329B,0x04624,0x057AD,0x06536,0x074BF, 0x08C48,0x09DC1,0x0AF5A,0x0BED3,0x0CA6C,0x0DBE5,0x0E97E,0x0F8F7, 0x01081,0x00108,0x03393,0x0221A,0x056A5,0x0472C,0x075B7,0x0643E, 0x09CC9,0x08D40,0x0BFDB,0x0AE52,0x0DAED,0x0CB64,0x0F9FF,0x0E876, 0x02102,0x0308B,0x00210,0x01399,0x06726,0x076AF,0x04434,0x055BD, 0x0AD4A,0x0BCC3,0x08E58,0x09FD1,0x0EB6E,0x0FAE7,0x0C87C,0x0D9F5, 0x03183,0x0200A,0x01291,0x00318,0x077A7,0x0662E,0x054B5,0x0453C, 0x0BDCB,0x0AC42,0x09ED9,0x08F50,0x0FBEF,0x0EA66,0x0D8FD,0x0C974, 0x04204,0x0538D,0x06116,0x0709F,0x00420,0x015A9,0x02732,0x036BB, 0x0CE4C,0x0DFC5,0x0ED5E,0x0FCD7,0x08868,0x099E1,0x0AB7A,0x0BAF3, 0x05285,0x0430C,0x07197,0x0601E,0x014A1,0x00528,0x037B3,0x0263A, 0x0DECD,0x0CF44,0x0FDDF,0x0EC56,0x098E9,0x08960,0x0BBFB,0x0AA72, 0x06306,0x0728F,0x04014,0x0519D,0x02522,0x034AB,0x00630,0x017B9, 0x0EF4E,0x0FEC7,0x0CC5C,0x0DDD5,0x0A96A,0x0B8E3,0x08A78,0x09BF1, 0x07387,0x0620E,0x05095,0x0411C,0x035A3,0x0242A,0x016B1,0x00738, 0x0FFCF,0x0EE46,0x0DCDD,0x0CD54,0x0B9EB,0x0A862,0x09AF9,0x08B70, 0x08408,0x09581,0x0A71A,0x0B693,0x0C22C,0x0D3A5,0x0E13E,0x0F0B7, 0x00840,0x019C9,0x02B52,0x03ADB,0x04E64,0x05FED,0x06D76,0x07CFF, 0x09489,0x08500,0x0B79B,0x0A612,0x0D2AD,0x0C324,0x0F1BF,0x0E036, 0x018C1,0x00948,0x03BD3,0x02A5A,0x05EE5,0x04F6C,0x07DF7,0x06C7E, 0x0A50A,0x0B483,0x08618,0x09791,0x0E32E,0x0F2A7,0x0C03C,0x0D1B5, 0x02942,0x038CB,0x00A50,0x01BD9,0x06F66,0x07EEF,0x04C74,0x05DFD, 0x0B58B,0x0A402,0x09699,0x08710,0x0F3AF,0x0E226,0x0D0BD,0x0C134, 0x039C3,0x0284A,0x01AD1,0x00B58,0x07FE7,0x06E6E,0x05CF5,0x04D7C, 0x0C60C,0x0D785,0x0E51E,0x0F497,0x08028,0x091A1,0x0A33A,0x0B2B3, 0x04A44,0x05BCD,0x06956,0x078DF,0x00C60,0x01DE9,0x02F72,0x03EFB, 0x0D68D,0x0C704,0x0F59F,0x0E416,0x090A9,0x08120,0x0B3BB,0x0A232, 0x05AC5,0x04B4C,0x079D7,0x0685E,0x01CE1,0x00D68,0x03FF3,0x02E7A, 0x0E70E,0x0F687,0x0C41C,0x0D595,0x0A12A,0x0B0A3,0x08238,0x093B1, 0x06B46,0x07ACF,0x04854,0x059DD,0x02D62,0x03CEB,0x00E70,0x01FF9, 0x0F78F,0x0E606,0x0D49D,0x0C514,0x0B1AB,0x0A022,0x092B9,0x08330, 0x07BC7,0x06A4E,0x058D5,0x0495C,0x03DE3,0x02C6A,0x01EF1,0x00F78}; uword get_crc(ubyte *bufptr,ubyte len) register uword newCrc; newCrc=0xFFFF; while(len--) newCrc = (newCrc >> 8) ^ crcLookupTable[(newCrc ^ *bufptr++) & 0xff]; //Make this crc match the one's complement that is sent in the packet. return(~newCrc);
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 85 // send_packet() // send_packet() will send set the CRC in outgoing_response and send it to // the host. void send_packet(void) ubyte Send_start(); Send_adr((CFA533_ADDRESS<<1)|W); //Write Send_byte(outgoing_command.command); Send_byte(outgoing_command.data_length); for(i=0;i<outgoing_command.data_length;i++) Send_byte(outgoing_command.data[i]); //Set the CRC outgoing_command.CRC.as_word= get_crc((ubyte *)&outgoing_command,outgoing_command.data_length+2); //Now send the CRC. Send_byte(outgoing_command.CRC.as_bytes[0]); Send_byte(outgoing_command.CRC.as_bytes[1]); Send_stop(); // check_for_packet() // check_for_packet() will read whatever is available in the CFA-533's I2C // output buffer, and determine if it is a valid packet. ubyte check_for_packet(void) ubyte Send_start(); Send_adr((CFA533_ADDRESS<<1)|R); //Read incoming_response.command=Get_byte_and_ACK(); //Only commands 0 through MAX_COMMAND are valid. //Mask response (0x40) and report (0x80) flags if(MAX_COMMAND<(incoming_response.command&0x3F)) return(0); incoming_response.data_length=Get_byte_and_ACK(); //There is a valid command byte. Get the data_length. The data length //must be within reason. if(MAX_DATA_LENGTH<incoming_response.data_length) return(0); //Read the data[] array of the packet for(i=0;i<incoming_response.data_length;i++) incoming_response.data[i]=Get_byte_and_ACK(); //Pull in the first byte of the CRC
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 86 incoming_response.CRC.as_bytes[0]=Get_byte_and_ACK(); //Pull in the last byte, and terminate the transaction. incoming_response.CRC.as_bytes[1]=Get_byte_and_NACK(); //Now check the CRC. if(incoming_response.CRC.as_word== get_crc((ubyte *)&incoming_response,incoming_response.data_length+2)) //This is a good packet. I'll be horn swaggled. //Let our caller know that incoming_command has good stuff in it. return(1); //The CRC did not match. return(0); int main (void) /* Port D - Bit 7: KEY0, input, pull-up * 6: KEY1, input, pull-up * 5: KEY2, input, pull-up * 4: KEY3, input, pull-up * 3: NC, input, pull-up * 2: LED2, output * 1: TWI_SDA * 0: TWI_SCL DDRD = 0b00000100; PORTD = 0b11111111; Init_TWI(); //Show the base screen, top line outgoing_command.command=31; //31 (0x1F): Send Data to LCD outgoing_command.data_length=12; //Data Length outgoing_command.data[0]=0; //X = left outgoing_command.data[1]=0; //Y = first line //0123456789012345 //0000000000111111 //CFA-533 UECLRD outgoing_command.data[ 2]='C'; outgoing_command.data[ 3]='F'; outgoing_command.data[ 4]='A'; outgoing_command.data[ 5]='-'; outgoing_command.data[ 6]='5'; outgoing_command.data[ 7]='3'; outgoing_command.data[ 8]='3'; outgoing_command.data[ 9]=' '; outgoing_command.data[10]=' '; outgoing_command.data[11]=' '; send_packet(); builtin_avr_delay_cycles(DELAY5mS); //Show the base screen bottom line outgoing_command.command=31; //31 (0x1F): Send Data to LCD outgoing_command.data_length=12; //Data Length outgoing_command.data[0]=0; //X = left outgoing_command.data[1]=1; //Y = second line //0123456789012345 //0000000000111111 outgoing_command.data[ 2]='I';
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 87 outgoing_command.data[ 3]='2'; outgoing_command.data[ 4]='C'; outgoing_command.data[ 5]=' '; outgoing_command.data[ 6]='D'; outgoing_command.data[ 7]='e'; outgoing_command.data[ 8]='m'; outgoing_command.data[ 9]='o'; outgoing_command.data[10]=' '; outgoing_command.data[11]=' '; send_packet(); builtin_avr_delay_cycles(DELAY5mS); while(1) SET_LED2; builtin_avr_delay_cycles(DELAY125mS); // 1/8 second CLR_LED2; builtin_avr_delay_cycles(DELAY125mS); // 1/8 second //Poll the keypad ~4x per second outgoing_command.command=24; //24 (0x18): Read Keypad, Polled Mode outgoing_command.data_length=0; //Data Length = 0 send_packet(); builtin_avr_delay_cycles(DELAY5mS); check_for_packet(); // See if there is a read polled keypad response, // if so, put the key status on the LCD if(incoming_response.command == 0x58) //Show the Key's Up/Down state //On the top line outgoing_command.command=31; //31 (0x1F): Send Data to LCD outgoing_command.data_length=8; //Data Length outgoing_command.data[0]=10; //X = right outgoing_command.data[1]=0; //Y = first line if(incoming_response.data[0]&KP_UP) outgoing_command.data[2]='U'; else outgoing_command.data[2]='u'; if(incoming_response.data[0]&KP_ENTER) outgoing_command.data[3]='E'; else outgoing_command.data[3]='e'; if(incoming_response.data[0]&KP_CANCEL) outgoing_command.data[4]='C'; else outgoing_command.data[4]='c'; if(incoming_response.data[0]&KP_LEFT) outgoing_command.data[5]='L'; else outgoing_command.data[5]='l'; if(incoming_response.data[0]&KP_RIGHT) outgoing_command.data[6]='R'; else outgoing_command.data[6]='r';
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 88 if(incoming_response.data[0]&KP_DOWN) outgoing_command.data[7]='D'; else outgoing_command.data[7]='d'; send_packet(); builtin_avr_delay_cycles(DELAY5mS); //The default CFA-533 CGRAM has: // up arrow at character 2 // dn arrow at character 3 // up+dn arrow at character 7 //Use these characters to show the changes //below the keys outgoing_command.command=31; //31 (0x1F): Send Data to LCD outgoing_command.data_length=8; //Data Length outgoing_command.data[0]=10; //X = right outgoing_command.data[1]=1; //Y = first line if((incoming_response.data[1]&KP_UP)&& //a press and a (incoming_response.data[2]&KP_UP)) //release outgoing_command.data[2]=7; else if(incoming_response.data[1]&KP_UP) //press outgoing_command.data[2]=3; else if(incoming_response.data[2]&KP_UP) //release outgoing_command.data[2]=2; else outgoing_command.data[2]='-'; if((incoming_response.data[1]&KP_ENTER)&& //a press and a (incoming_response.data[2]&KP_ENTER)) //release outgoing_command.data[3]=7; else if(incoming_response.data[1]&KP_ENTER) //press outgoing_command.data[3]=3; else if(incoming_response.data[2]&KP_ENTER) //release outgoing_command.data[3]=2; else outgoing_command.data[3]='-'; if((incoming_response.data[1]&KP_CANCEL)&& //a press and a (incoming_response.data[2]&KP_CANCEL)) //release outgoing_command.data[4]=7; else if(incoming_response.data[1]&KP_CANCEL) //press outgoing_command.data[4]=3; else if(incoming_response.data[2]&KP_CANCEL) //release outgoing_command.data[4]=2; else outgoing_command.data[4]='-'; if((incoming_response.data[1]&KP_LEFT)&& //a press and a (incoming_response.data[2]&KP_LEFT)) //release outgoing_command.data[5]=7; else if(incoming_response.data[1]&KP_LEFT) //press outgoing_command.data[5]=3; else if(incoming_response.data[2]&KP_LEFT) //release outgoing_command.data[5]=2;
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 89 else outgoing_command.data[5]='-'; if((incoming_response.data[1]&KP_RIGHT)&& //a press and a (incoming_response.data[2]&KP_RIGHT)) //release outgoing_command.data[6]=7; else if(incoming_response.data[1]&KP_RIGHT) //press outgoing_command.data[6]=3; else if(incoming_response.data[2]&KP_RIGHT) //release outgoing_command.data[6]=2; else outgoing_command.data[6]='-'; if((incoming_response.data[1]&KP_DOWN)&& //a press and a (incoming_response.data[2]&KP_DOWN)) //release outgoing_command.data[7]=7; else if(incoming_response.data[1]&KP_DOWN) //press outgoing_command.data[7]=3; else if(incoming_response.data[2]&KP_DOWN) //release outgoing_command.data[7]=2; else outgoing_command.data[7]='-'; send_packet(); builtin_avr_delay_cycles(DELAY5mS);
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 90 APPENDIX E: VIBRATION TEST REPORT Test: Sine & Random Vibration Reliability Laboratory Originator: Brent Crosby – Crystalfontz America Test Coordinator: Larry Bettinger - lbetting@keytronic.com 509-927-5577 Test Started: April 9, 2013 Test Completed: April 10, 2013 Summary: The following Crystalfontz America samples were submitted for operational vibration testing: Sample Description S/N
533 Yellow 1148533YYHD063605
533 Blue 1234533TMITD075774
633 Yellow 1037633YYH297069
633 White 1217633TFHD356000
735 Yellow 1212735TFK0002778
735 White 1212735TFK0002778
2x CFA-10036 ver. 1.0 Pilot run samples, no S/N assigned. 2x CFA-10037 ver. 1.0 Pilot run samples, no S/N assigned. Test Conditions: The samples were mounted to a customer’s fixture plate which was bolted directly to the slip table for the X and Y-axes. For the Z-axis the fixture was bolted to the tester with a small aluminum coupling plate. The vibration testing was performed on a Ling Dynamic Systems V730 vibrator with a Data Physics SignalStar Scalar vibration control system version 2.2.923. The samples were subjected to following profiles:
- GR-63-CORE 5.4.2, Office Vibration, Alternative Test: 5-100-5 Hz at 1.0 g with a sweep rate of .25 octave/minute, 35 minutes per axis.
- MIL-STD 810F, Figure 514C-17, Random: 1 hour per axis.
- MIL-STD 810F, Figure 514C-18, Sine: 1 hour per axis. Equipment used: Equipment Model S/N Calibration Due Date Endevco Control Accelerometer 7221 AM67 12-03-13 Endevco Charge amplifier 2721B ER01 12-03-13 Data Physics Vibration controller SignalStar Scalar 74244 05-29-13
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 91 Test Setups: Z-axis Y-axis Test Report Number: CRYSTALFONTZ002 Page 2 of 7
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 92 ¤ Con Ref Abo Ala Abo rol t + m + t - Alar m - X-axis Control accelerometer vibration level graphs: 2.00 1.00 400m 5.00 10.0 100 Hz Z-axis (GR-63-CORE 5.4.2, Office Vibration, Alternative Test) Test Report Number: CRYSTALFONTZ002 Page 3 of 7 LogMag, g
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 93 ¤ Con Ref Abo Ala Abo rol t + m + t - Alar m - ¤ Con Ref Abo Ala Abo rol t + m + t - Alar m - 2.00 1.00 400m 5.00 10.0 100 Hz Y-axis (GR-63-CORE 5.4.2, Office Vibration, Alternative Test) 2.00 1.00 400m 5.00 10.0 100 Hz X-axis (GR-63-CORE 5.4.2, Office Vibration, Alternative Test) Test Report Number: CRYSTALFONTZ002 Page 4 of 7 LogMag, g LogMag, g
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 94 200m 100m 10.0m 2.00m 20.0 100.0 1000.0 2000.0 Hz X- axis (MIL-STD 810F, Figure 514C-17, Random) 200m 100m 10.0m 2.00m 20.0 100.0 1000.0 2000.0 Hz Y- axis (MIL-STD 810F, Figure 514C-17, Random) Test Report Number: CRYSTALFONTZ002 Page 5 of 7 LogMag, g(rms)²/Hz LogMag, g(rms)²/Hz
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 95 Abort - Abort + Alarm + Alarm - Control Ref 200m 100m 10.0m 2.00m 20.0 100.0 1000.0 2000.0 Hz Z- axis (MIL-STD 810F, Figure 514C-17, Random) 10.0 1.00 100m 5.00 10.0 100 500 Hz Z-axis (MIL-STD 810F, Figure 514C-18, Sine) Test Report Number: CRYSTALFONTZ002 Page 6 of 7 LogMag, g(rms)²/Hz LogMag, g
www.crystalfontz.com CFA533-***-KC Series I2C Serial LCD Datasheet 2015-09-25 Hardware v1.1 / Firmware c1.1 Page 96 Abort - Abort + Alarm + Alarm - Control Ref Abort - Abort + Alarm + Alarm - Control Ref 10.0 1.00 100m 5.00 10.0 100 500 Hz Y-axis (MIL-STD 810F, Figure 514C-18, Sine) 10.0 1.00 100m 5.00 10.0 100 500 Hz X-axis (MIL-STD 810F, Figure 514C-18, Sine) Test Report Number: CRYSTALFONTZ002 Page 7 of 7 LogMag, g LogMag, g