Àû²©¡¤(¼¯ÍÅ)ÓÐÏÞ¹«Ë¾¹ÙÍø


    1. λÖãºMCP9700AT-HSLASHTT > MCP9700AT-HSLASHTTÏêÇé

      MCP9700AT-HSLASHTTÖÐÎÄ×ÊÁÏ

      ³§¼ÒÐͺÅ

      MCP9700AT-HSLASHTT

      Îļþ´óС

      625.8Kbytes

      Ò³ÃæÊýÁ¿

      22Ò³

      ¹¦ÄÜÃèÊö

      Low-Power Linear Active Thermistor ICs

      Êý¾ÝÊÖ²á

      ÏÂÔصØÖ·Ò»ÏÂÔصØÖ·¶þµ½Ô­³§ÏÂÔØ

      Éú²ú³§ÉÌ

      Microchip Technology

      ¼ò³Æ

      Microchip¡¾Î¢Ð¾¿Æ¼¼¡¿

      ÖÐÎÄÃû³Æ

      ΢о¿Æ¼¼¹É·ÝÓÐÏÞ¹«Ë¾¹ÙÍø

      LOGO

      MCP9700AT-HSLASHTTÊý¾ÝÊÖ²á¹æ¸ñÊéPDFÏêÇé

      General Description

      MCP9700/9700A and MCP9701/9701A sensors with

      Linear Active Thermistor Integrated Circuit (IC) comprise

      a family of analog temperature sensors that

      convert temperature to analog voltage.

      The low-cost, low-power sensors feature an accuracy

      of ¡À2¡ãC from 0¡ãC to +70¡ãC (MCP9700A/9701A) and

      ¡À4¡ãC from 0¡ãC to +70¡ãC (MCP9700/9701) while

      consuming 6 ¦ÌA (typical) of operating current.

      Unlike resistive sensors, e.g., thermistors, the Linear

      Active Thermistor IC does not require an additional

      signal-conditioning circuit. Therefore, the biasing circuit

      development overhead for thermistor solutions can be

      avoided by implementing a sensor from these low-cost

      devices. The Voltage Output pin (VOUT) can be directly

      connected to the ADC input of a microcontroller. The

      MCP9700/9700A and MCP9701/9701A temperature

      coefficients are scaled to provide a 1¡ãC/bit resolution

      for an 8-bit ADC with a reference voltage of 2.5V and

      5V, respectively. The MCP9700/9700A output 0.1¡ãC/bit

      for a 12-bit ADC with 4.096V reference.

      The MCP9700/9700A and MCP9701/9701A provide a

      low-cost solution for applications that require measurement

      of a relative change of temperature. When measuring

      relative change in temperature from +25¡ãC, an

      accuracy of ¡À1¡ãC (typical) can be realized from 0¡ãC to

      +70¡ãC. This accuracy can also be achieved by applying

      system calibration at +25¡ãC.

      In addition, this family of devices is immune to the

      effects of parasitic capacitance and can drive large

      capacitive loads. This provides printed circuit board

      (PCB) layout design flexibility by enabling the device to

      be remotely located from the microcontroller. Adding

      some capacitance at the output also helps the output

      transient response by reducing overshoots or

      undershoots. However, capacitive load is not required

      for the stability of sensor output.

      Features

      ? Tiny Analog Temperature Sensor

      ? Available Packages:

      - SC70-5, SOT-23-3, TO-92-3

      ? Wide Temperature Measurement Range:

      - -40¡ãC to +125¡ãC (Extended Temperature)

      - -40¡ãC to +150¡ãC (High Temperature)

      (MCP9700, SOT-23-3 and SC70-5 only)

      ? Accuracy:

      - ¡À2¡ãC (max.), 0¡ãC to +70¡ãC (MCP9700A/9701A)

      - ¡À4¡ãC (max.), 0¡ãC to +70¡ãC (MCP9700/9701)

      ? Optimized for Analog-to-Digital Converters (ADCs):

      - 10.0 mV/¡ãC (typical) (MCP9700/9700A)

      - 19.5 mV/¡ãC (typical) (MCP9701/9701A)

      ? Wide Operating Voltage Range:

      - VDD = 2.3V to 5.5V (MCP9700/9700A)

      - VDD = 3.1V to 5.5V (MCP9701/9701A)

      ? Low Operating Current: 6 ¦ÌA (typical)

      ? Optimized to Drive Large Capacitive Loads

      Typical Applications

      ? Hard Disk Drives and Other PC Peripherals

      ? Entertainment Systems

      ? Home Appliance

      ? Office Equipment

      ? Battery Packs and Portable Equipment

      ? General Purpose Temperature Monitoring

      MCP9700AT-HSLASHTT¹©Ó¦ÉÌ...

      ¸üÐÂʱ¼ä£º2025-2-15 9:30:00
      ¹©Ó¦ÉÌ ÐͺŠƷÅÆ ÅúºÅ ·â×° ¿â´æ ±¸×¢ ¼Û¸ñ
      ±±¾©ÌìÑô³ÏÒµ¿ÆóÓÐÏÞ¹«Ë¾
      MCP9700BT-E/TT
      MICROCHIP
      24+
      con
      35960
      ²éÏÖ»õµ½¾©±±Í¨ÓîÉ̳Ç
      ÉîÛÚÊк㴴´ïʵҵÓÐÏÞ¹«Ë¾
      MCP9700DM-PCTL
      MICROCHIP
      17+
      6200
      100%Ô­×°ÕýÆ·ÏÖ»õ
      ÉîÛÚÊÐÐ˲ӿƼ¼ÓÐÏÞ¹«Ë¾
      MCP9700DM-PCTL
      Microchip
      24+
      Ô­³§·â×°
      28500
      ÊÚȨ´úÀíÖ±Ïú,Ô­³§Ô­×°ÏÖ»õ,¼ÙÒ»·£Ê®,ÌؼÛÏúÊÛ
      Öпƺ½µç£¨ÉîÛÚ£©µç×Ó¼¯ÍÅÓÐÏÞ¹«Ë¾
      MCP9700DM-PCTL
      MICROCHIP
      NA
      90000
      ¹«Ë¾¼¯ÍÅ»¯Åäµ¥-Óиü¶àÊýÁ¿-Ãâ·ÑËÍÑù-Ô­°ü×°ÕýÆ·ÏÖ»õ-
      ÉîÛÚÊкêÊÀ¼Ñµç×ӿƼ¼ÓÐÏÞ¹«Ë¾
      MCP9700DM-PCTL
      Microchip
      2023+
      ±à³ÌÆ÷
      612
      È«ÐÂÔ­³§Ô­×°²úÆ·¡¢¹«Ë¾ÏÖ»õÏúÊÛ
      ÉîÛÚÊк£Ììºèµç×ӿƼ¼ÓÐÏÞ¹«Ë¾
      MCP9700-E/TO
      Microchip
      1708+
      ?
      7500
      Ö»×öÔ­×°½ø¿Ú,¼ÙÒ»·£Ê®
      ÉîÛÚÊдï¶÷¿Æ¼¼ÓÐÏÞ¹«Ë¾
      MCP9700-E/TO
      Microchip
      18+
      NA
      3000
      ½ø¿ÚÔ­×°ÕýÆ·ÓÅÊƹ©Ó¦
      ÉîÛÚÊлªî£Ð¾¿Æ¼¼ÓÐÏÞ¹«Ë¾
      MCP9700-E/TO
      Microchip
      24+
      TO92-3
      10000
      È«ÐÂÔ­³§Ô­×°£¬½ø¿ÚÕýÆ·ÏÖ»õ£¬Õý¹æÇþµÀ¿Éº¬Ë°£¡£¡
      ÉîÛÚÊкê½Ý¼Ñµç×ӿƼ¼ÓÐÏÞ¹«Ë¾
      MCP9700BT-E/LT
      Microchip Technology
      24+
      5-TSSOP SC-70-5 SOT-353
      9350
      ¶ÀÁ¢·ÖÏúÉÌ ¹«Ë¾Ö»×öÔ­×° ³ÏÐľ­Óª Ãâ·ÑÊÔÑùÕýÆ·±£Ö¤
      ÉîÛÚÊÐÕñºê΢¿Æ¼¼ÓÐÏÞ¹«Ë¾
      MCP9700DM-TH1
      MICROCHIPTEC
      23+
      NA
      13650
      Ô­×°ÕýÆ·,¼ÙÒ»·£°Ù!

      MCP9700AT-HSLASHTT ²úÆ·Ïà¹ØÐͺÅ

      • 48NDVA-2GBZ-M2SLASHCE
      • 48NDVA-2GBZ-MSLASHCE
      • 48NDVA-2GBZ-MSLASHQ
      • 48NDVA-2GBZ-RSLASHCE
      • 48NDVA-2GBZ-RSLASHQ
      • MAX1110CSLASHD
      • MS6N-LRE-1/4-D6-PI
      • MS6N-LRE-1/4-D6-PI-Z
      • MS6N-LRE-1/4-D6-PU
      • MS6N-LRE-1/4-D6-PU-Z
      • MS6N-LRE-1/4-D7-PI
      • MS6N-LRE-1/4-D7-PI-Z
      • MS6N-LRE-1/4-D7-PU
      • MS6N-LRE-1/4-D7-PU-Z
      • MS6N-LRE-1SLASH4-D6
      • MS6N-LRE-1SLASH4-D6-PI
      • MS6N-LRE-1SLASH4-D6-PI-Z
      • MS6N-LRE-1SLASH4-D6-PU
      • MS6N-LRE-1SLASH4-D6-PU-Z
      • MS6N-LRE-1SLASH4-D6-Z
      • MS6N-LRE-1SLASH4-D7
      • MS6N-LRE-1SLASH4-D7-PI
      • MS6N-LRE-1SLASH4-D7-PI-Z
      • MS6N-LRE-1SLASH4-D7-PU
      • MS6N-LRE-1SLASH4-D7-PU-Z
      • XMC0-202-DAAC0
      • XMC0-202-DAAC1
      • XMC0-202-DAAC3
      • XMC0-202-DAAC4

      MicrochipÏà¹Øµç·ͼ

      • MICROCRYSTAL
      • MICRODC
      • MICRO-ELECTRONICS
      • MICROESYS
      • MICRO-LINEAR
      • Micron
      • MICRONAS
      • MicrOne
      • MICRONETICS
      • MICROPAC
      • Microsemi
      • MICROSS

      Microchip Technology ΢о¿Æ¼¼¹É·ÝÓÐÏÞ¹«Ë¾

      ÖÐÎÄ×ÊÁÏ: 147618Ìõ

      ΢о¿Æ¼¼¹É·ÝÓÐÏÞ¹«Ë¾£¨Ó¢ÓMicrochipTechnologyInc.£¬Ó¢Îļòд£ºMicrochip£©£¬ÊÇÒ»¸öÃÀ¹ú΢¿ØÖÆÆ÷¡¢ÄÚ´æÓëÀà±È°ëµ¼ÌåÖÆÔìÉÌ¡£ËüµÄ²úÆ·°üº¬Î¢¿ØÖÆÆ÷£¨PIC΢¿ØÖÆÆ÷¡¢dsPIC/PIC24¡¢PIC32£©¡¢ÐòÁÐʽEEPROM¡¢ÐòÁÐʽSRAM¡¢KEELOQ×é¼þ¡¢ÎÞÏßµçƵÂÊ£¨RF£©×é¼þ¡¢ÈÈ×é¼þ¡¢¹¦ÂÊÓëµç³Ø¹ÜÀíÀà±È×é¼þ£¬Ò²ÓÐÏßÐÔ¡¢½Ó¿ÚÓë»ìºÏÐźÅ×é¼þ¡£»¹ÓÐһЩ½Ó¿Ú×é¼þ°üº¬USB¡¢ZigBee/MiWi£¬CANbusÓëEthernet¡£¹«Ë¾×ܲ¿Î»ÓÚÑÇÀûÉ£ÄÇÖÝÇ®µÂÀÕ£¬¾§Ô²³§Ôò·Ö±ðλÓÚÑÇÀûÉ£ÄÇÖÝ̹Åå¼°°ÂÀÕ¸ÔÖݸñÀ×˹º±¡£Ö÷ÒªµÄ¾ºÕùÕßÓÐÑǵÂŵ°ëµ¼Ìå¡¢°®ÌØ÷¶û¡¢·É˼¿¨¶û£¨·Ö²ð×ÔĦÍÐÂÞÀ­£©¡¢Ó¢

      ¡¾ÍøÕ¾µØͼ¡¿¡¾sitemap¡¿