segment,一個簡單的中文分詞程序，命令行如下： java -jar segmenter.jar [-b|-g|-8|-s|-t] inputfile.txt -b Big5, -g GB2312, -8 UTF-8, -s simp. chars, -t trad. chars segmented text will be saved to inputfile.txt.seg
上傳時間： 2014-01-04
上傳用戶：ynzfm
給大家傳一個俺找了好久的segy顯示工具，顯示ＳＥＧ－Ｙ地震數(shù)據(jù)在基于對話框的程序中加載并顯示 seg-Y 地震數(shù)據(jù)波形.
上傳時間： 2014-01-14
上傳用戶：wpwpwlxwlx
My first project written in Quartus II by using VHDL, executed some tasks that display word on 7-segments LED through the simulated 5-to-1 multiplexer. My code is easy to acquire and may be help usefull.
標(biāo)簽： executed Quartus display project
上傳時間： 2014-01-21
上傳用戶：chenlong
A design about 8051 (running at 12MHz) based system with 3 7-seg displays and two buttons to implement the following functions. 1. When press the + button, the display C = A+B. 2. When press the button, the display C = A - B. “A” and “B” are 8-bit inputs when “C” is 9-bit output.
上傳時間： 2015-05-05
上傳用戶：guoxiy
/* ********************************************************************************************************* * uC/TCP-IP V2 * The Embedded TCP/IP Suite * * (c) Copyright 2003-2010; Micrium, Inc.; Weston, FL * * All rights reserved. Protected by international copyright laws. * * uC/TCP-IP is provided in source form to registered licensees ONLY. It is * illegal to distribute this source code to any third party unless you receive * written permission by an authorized Micrium representative. Knowledge of * the source code may NOT be used to develop a similar product. * * Please help us continue to provide the Embedded community with the finest * software available. Your honesty is greatly appreciated. * * You can contact us at www.micrium.com. ********************************************************************************************************* */ /* ********************************************************************************************************* * * NETWORK TCP LAYER * (TRANSMISSION CONTROL PROTOCOL) * * Filename : net_tcp.h * Version : V2.10 * Programmer(s) : ITJ ********************************************************************************************************* * Note(s) : (1) Supports Transmission Control Protocol as described in RFC #793 with the following * restrictions/constraints : * * (a) TCP Security & Precedence NOT supported RFC # 793, Section 3.6 * * (b) TCP Urgent Data NOT supported RFC # 793, Section 3.7 * 'The Communication of * Urgent Information' * * (c) The following TCP options NOT supported : * * (1) Window Scale RFC #1072, Section 2 * RFC #1323, Section 2 * (2) Selective Acknowledgement (SACK) RFC #1072, Section 3 * RFC #2018 * RFC #2883 * (3) TCP Echo RFC #1072, Section 4 * (4) Timestamp RFC #1323, Section 3.2 * (5) Protection Against Wrapped Sequences (PAWS) RFC #1323, Section 4 * * (d) #### IP-Options-to-TCP-Connection RFC #1122, Section 4.2.3.8 * Handling NOT supported * * (e) #### ICMP-Error-Message-to-TCP-Connection RFC #1122, Section 4.2.3.9 * Handling NOT currently supported * * (2) TCP Layer assumes/requires Network Socket Layer (see 'net_sock.h MODULE Note #1a2'). ********************************************************************************************************* */ /*$PAGE*/ /* ********************************************************************************************************* * MODULE * * Note(s) : (1) TCP Layer module is NOT required for UDP-to-Application API configuration. * * See also 'net_cfg.h TRANSPORT LAYER CONFIGURATION' * & 'net_cfg.h USER DATAGRAM PROTOCOL LAYER CONFIGURATION'. * * See also 'net_tcp.h Note #2'. * * (2) The following TCP-module-present configuration value MUST be pre-#define'd in * 'net_cfg_net.h' PRIOR to all other network modules that require TCP Layer * configuration (see 'net_cfg_net.h TCP LAYER CONFIGURATION Note #2b') : * * NET_TCP_MODULE_PRESENT ********************************************************************************************************* */ #ifdef NET_TCP_MODULE_PRESENT /* See Note #2. */ /* ********************************************************************************************************* * EXTERNS ********************************************************************************************************* */ #if ((defined(NET_TCP_MODULE)) && \ (defined(NET_GLOBALS_EXT))) #define NET_TCP_EXT #else #define NET_TCP_EXT extern #endif /*$PAGE*/ /* ********************************************************************************************************* * DEFINES ********************************************************************************************************* */ /* ********************************************************************************************************* * TCP HEADER DEFINES * * Note(s) : (1) The following TCP value MUST be pre-#define'd in 'net_def.h' PRIOR to 'net_buf.h' so that * the Network Buffer Module can configure maximum buffer header size (see 'net_def.h TCP * LAYER DEFINES' & 'net_buf.h NETWORK BUFFER INDEX & SIZE DEFINES Note #1') : * * (a) NET_TCP_HDR_SIZE_MAX 60 (NET_TCP_HDR_LEN_MAX * * NET_TCP_HDR_LEN_WORD_SIZE) * * (2) Urgent pointer & data NOT supported (see 'net_tcp.h Note #1b'). ********************************************************************************************************* */ #define NET_TCP_HDR_LEN_MASK 0xF000u #define NET_TCP_HDR_LEN_SHIFT 12u #define NET_TCP_HDR_LEN_NONE 0u #define NET_TCP_HDR_LEN_MIN 5u #define NET_TCP_HDR_LEN_MAX 15u #define NET_TCP_HDR_LEN_WORD_SIZE CPU_WORD_SIZE_32 #define NET_TCP_HDR_SIZE_MIN (NET_TCP_HDR_LEN_MIN * NET_TCP_HDR_LEN_WORD_SIZE) #if 0 /* See Note #1a. */ #define NET_TCP_HDR_SIZE_MAX (NET_TCP_HDR_LEN_MAX * NET_TCP_HDR_LEN_WORD_SIZE) #endif #define NET_TCP_HDR_SIZE_TOT_MIN (NET_IP_HDR_SIZE_TOT_MIN + NET_TCP_HDR_SIZE_MIN) #define NET_TCP_HDR_SIZE_TOT_MAX (NET_IP_HDR_SIZE_TOT_MAX + NET_TCP_HDR_SIZE_MAX) #define NET_TCP_PSEUDO_HDR_SIZE 12u /* = sizeof(NET_TCP_PSEUDO_HDR) */ #define NET_TCP_PORT_NBR_RESERVED NET_PORT_NBR_RESERVED #define NET_TCP_PORT_NBR_NONE NET_TCP_PORT_NBR_RESERVED #define NET_TCP_HDR_URG_PTR_NONE 0x0000u /* See Note #2. */ /*$PAGE*/ /* ********************************************************************************************************* * TCP HEADER FLAG DEFINES * * Note(s) : (1) See 'TCP HEADER Note #2' for flag fields. * * (2) Urgent pointer & data NOT supported (see 'net_tcp.h Note #1b'). ********************************************************************************************************* */ #define NET_TCP_HDR_FLAG_MASK 0x0FFFu #define NET_TCP_HDR_FLAG_NONE DEF_BIT_NONE #define NET_TCP_HDR_FLAG_RESERVED 0x0FE0u /* MUST be '0'. */ #define NET_TCP_HDR_FLAG_URGENT DEF_BIT_05 /* See Note #2. */ #define NET_TCP_HDR_FLAG_ACK DEF_BIT_04 #define NET_TCP_HDR_FLAG_PUSH DEF_BIT_03 #define NET_TCP_HDR_FLAG_RESET DEF_BIT_02 #define NET_TCP_HDR_FLAG_SYNC DEF_BIT_01 #define NET_TCP_HDR_FLAG_FIN DEF_BIT_00 #define NET_TCP_HDR_FLAG_CLOSE NET_TCP_HDR_FLAG_FIN /* ********************************************************************************************************* * TCP FLAG DEFINES ********************************************************************************************************* */ /* ------------------ NET TCP FLAGS ------------------- */ #define NET_TCP_FLAG_NONE DEF_BIT_NONE #define NET_TCP_FLAG_USED DEF_BIT_00 /* TCP conn cur used; i.e. NOT in free TCP conn pool. */ /* ------------------ TCP TX FLAGS ------------------- */ /* TCP tx flags copied from TCP hdr flags. */ #define NET_TCP_FLAG_TX_FIN NET_TCP_HDR_FLAG_FIN #define NET_TCP_FLAG_TX_CLOSE NET_TCP_FLAG_TX_FIN #define NET_TCP_FLAG_TX_SYNC NET_TCP_HDR_FLAG_SYNC #define NET_TCP_FLAG_TX_RESET NET_TCP_HDR_FLAG_RESET #define NET_TCP_FLAG_TX_PUSH NET_TCP_HDR_FLAG_PUSH #define NET_TCP_FLAG_TX_ACK NET_TCP_HDR_FLAG_ACK #define NET_TCP_FLAG_TX_URGENT NET_TCP_HDR_FLAG_URGENT #define NET_TCP_FLAG_TX_BLOCK DEF_BIT_07 /* ------------------ TCP RX FLAGS ------------------- */ #define NET_TCP_FLAG_RX_DATA_PEEK DEF_BIT_08 #define NET_TCP_FLAG_RX_BLOCK DEF_BIT_15 /*$PAGE*/ /* ********************************************************************************************************* * TCP TYPE DEFINES * * Note(s) : (1) NET_TCP_TYPE_&&& #define values specifically chosen as ASCII representations of the TCP * types. Memory displays of TCP types will display with their chosen ASCII names. ********************************************************************************************************* */ /* ------------------ NET TCP TYPES ------------------- */ #if (CPU_CFG_ENDIAN_TYPE == CPU_ENDIAN_TYPE_BIG) #define NET_TCP_TYPE_NONE 0x4E4F4E45u /* "NONE" in ASCII. */ #define NET_TCP_TYPE_CONN 0x54435020u /* "TCP " in ASCII. */ #else #if (CPU_CFG_DATA_SIZE == CPU_WORD_SIZE_32) #define NET_TCP_TYPE_NONE 0x454E4F4Eu /* "NONE" in ASCII. */ #define NET_TCP_TYPE_CONN 0x20504354u /* "TCP " in ASCII. */ #elif (CPU_CFG_DATA_SIZE == CPU_WORD_SIZE_16) #define NET_TCP_TYPE_NONE 0x4F4E454Eu /* "NONE" in ASCII. */ #define NET_TCP_TYPE_CONN 0x43542050u /* "TCP " in ASCII. */ #else /* Dflt CPU_WORD_SIZE_08. */ #define NET_TCP_TYPE_NONE 0x4E4F4E45u /* "NONE" in ASCII. */ #define NET_TCP_TYPE_CONN 0x54435020u /* "TCP " in ASCII. */ #endif #endif /* ********************************************************************************************************* * TCP SEQUENCE NUMBER DEFINES * * Note(s) : (1) TCP initial transmit sequence number is incremented by a fixed value, preferably a large * prime value or a large value with multiple unique factors. * * (a) One reasonable TCP initial transmit sequence number increment value example : * * 65527 = 37 * 23 * 11 * 7 * * * #### NET_TCP_TX_SEQ_NBR_CTR_INC could be developer-configured in 'net_cfg.h'. * * See also 'NET_TCP_TX_GET_SEQ_NBR() Notes #1b2 & #1c2'. ********************************************************************************************************* */ #define NET_TCP_SEQ_NBR_NONE 0u #define NET_TCP_ACK_NBR_NONE NET_TCP_SEQ_NBR_NONE #define NET_TCP_TX_SEQ_NBR_CTR_INC 65527u /* See Note #1. */ #define NET_TCP_ACK_NBR_DUP_WIN_SIZE_SCALE 4 /*$PAGE*/ /* ********************************************************************************************************* * TCP DATA/TOTAL LENGTH DEFINES * * Note(s) : (1) (a) TCP total length #define's (NET_TCP_TOT_LEN) relate to the total size of a complete * TCP packet, including the packet's TCP header. Note that a complete TCP packet MAY * be fragmented in multiple Internet Protocol packets. * * (b) TCP data length #define's (NET_TCP_DATA_LEN) relate to the data size of a complete * TCP packet, equal to the total TCP packet length minus its TCP header size. Note * that a complete TCP packet MAY be fragmented in multiple Internet Protocol packets. ********************************************************************************************************* */ /* See Notes #1a & #1b. */ #define NET_TCP_DATA_LEN_MIN 0u #define NET_TCP_TOT_LEN_MIN (NET_TCP_HDR_SIZE_MIN + NET_TCP_DATA_LEN_MIN) #define NET_TCP_TOT_LEN_MAX (NET_IP_TOT_LEN_MAX - NET_IP_HDR_SIZE_MIN ) #define NET_TCP_DATA_LEN_MAX (NET_TCP_TOT_LEN_MAX - NET_TCP_HDR_SIZE_MIN) /*$PAGE*/ /* ********************************************************************************************************* * TCP segMENT SIZE DEFINES * * Note(s) : (1) (a) RFC # 879, Section 3 states that the TCP Maximum segment Size "counts only * data octets in the segment, ... not the TCP header or the IP header". * * (b) RFC #1122, Section 4.2.2.6 requires that : * * (1) "The MSS value to be sent in an MSS option must be less than or equal to * * (A) MMS_R - 20 * * where MMS_R is the maximum size for a transport-layer message that can * be received." * * (2) "If an MSS option is not received at connection setup, TCP MUST assume a * default send MSS of 536 (576 - 40)." * * See also 'net_ip.h IP DATA/TOTAL LENGTH DEFINES Note #1'. ********************************************************************************************************* */ /* See Note #1. */ #define NET_TCP_MAX_seg_SIZE_DFLT (NET_IP_MAX_DATAGRAM_SIZE_DFLT - NET_IP_HDR_SIZE_MIN - NET_TCP_HDR_SIZE_MIN) #define NET_TCP_MAX_seg_SIZE_DFLT_RX NET_TCP_DATA_LEN_MAX /* See Note #1b1. */ #define NET_TCP_MAX_seg_SIZE_DFLT_TX NET_TCP_MAX_seg_SIZE_DFLT /* See Note #1b2. */ #define NET_TCP_MAX_seg_SIZE_NONE 0u #define NET_TCP_MAX_seg_SIZE_MIN NET_TCP_MAX_seg_SIZE_DFLT #define NET_TCP_MAX_seg_SIZE_MAX NET_TCP_DATA_LEN_MAX #define NET_TCP_seg_LEN_MIN NET_TCP_DATA_LEN_MIN #define NET_TCP_seg_LEN_MAX NET_TCP_DATA_LEN_MAX #define NET_TCP_seg_LEN_SYNC 1u #define NET_TCP_seg_LEN_FIN 1u #define NET_TCP_seg_LEN_CLOSE NET_TCP_seg_LEN_FIN #define NET_TCP_seg_LEN_ACK 0u #define NET_TCP_seg_LEN_RESET 0u #define NET_TCP_seg_LEN_PROBE 0u #define NET_TCP_DATA_LEN_TX_SYNC 0u #define NET_TCP_DATA_LEN_TX_FIN 0u #define NET_TCP_DATA_LEN_TX_CLOSE NET_TCP_DATA_LEN_TX_FIN #define NET_TCP_DATA_LEN_TX_ACK 0u #define NET_TCP_DATA_LEN_TX_PROBE_NO_DATA 0u #define NET_TCP_DATA_LEN_TX_PROBE_DATA 1u #define NET_TCP_DATA_LEN_TX_RESET 0u #define NET_TCP_TX_PROBE_DATA 0x00u /* ********************************************************************************************************* * TCP WINDOW SIZE DEFINES * * Note(s) : (1) Although NO RFC specifies the absolute minimum TCP connection window size value allowed, * RFC #793, Section 3.7 'Data Communication : Managing the Window' states that for "the * window ... there is an assumption that this is related to the currently available data * buffer space available for this connection". ********************************************************************************************************* */ #define NET_TCP_WIN_SIZE_NONE 0u #define NET_TCP_WIN_SIZE_MIN NET_TCP_MAX_seg_SIZE_MIN #define NET_TCP_WIN_SIZE_MAX DEF_INT_16U_MAX_VAL /*$PAGE*/ /* ********************************************************************************************************* * TCP HEADER OPTIONS DEFINES * * Note(s) : (1) See the following RFC's for TCP options summary : * * (a) RFC # 793, Section 3.1 'Header Format : Options' * (b) RFC #1122; Sections 4.2.2.5, 4.2.2.6 * * (2) TCP option types are encoded in the first octet for each TCP option as follows : * * -------- * | TYPE | * -------- * * The TCP option type value determines the TCP option format : * * (a) The following TCP option types are single-octet TCP options -- i.e. the option type * octet is the ONLY octet for the TCP option. * * (1) TYPE = 0 End of Options List * (2) TYPE = 1 No Operation * * * (b) All other TCP options MUST be multi-octet TCP options (see RFC #1122, Section 4.2.2.5) : * * ------------------------------ * | TYPE | LEN | TCP OPT | * ------------------------------ * * where * TYPE Indicates the specific TCP option type * LEN Indicates the total TCP option length, in octets, including * the option type & the option length octets * TCP OPT Additional TCP option octets, if any, that contain the remaining * TCP option information * * The following TCP option types are multi-octet TCP options where the option's second * octet specify the total TCP option length, in octets, including the option type & the * option length octets : * * (1) TYPE = 2 Maximum segment Size See RFC # 793, Section 3.1 'Header Format : * Options : Maximum segment Size'; * RFC #1122, Section 4.2.2.6; * RFC # 879, Section 3 * * (2) TYPE = 3 Window Scale See 'net_tcp.h Note #1c1' * (3) TYPE = 4 SACK Allowed See 'net_tcp.h Note #1c2' * (4) TYPE = 5 SACK Option See 'net_tcp.h Note #1c2' * (5) TYPE = 6 Echo Request See 'net_tcp.h Note #1c3' * (6) TYPE = 7 Echo Reply See 'net_tcp.h Note #1c3' * (7) TYPE = 8 Timestamp See 'net_tcp.h Note #1c4' * * (3) TCP header allows for a maximum option list length of 40 octets : * * NET_TCP_HDR_OPT_SIZE_MAX = NET_TCP_HDR_SIZE_MAX - NET_TCP_HDR_SIZE_MIN * * = 60 - 20 * * = 40 * * (4) 'NET_TCP_OPT_SIZE' MUST be pre-defined PRIOR to all definitions that require TCP option * size data type. ********************************************************************************************************* */ /*$PAGE*/ #define NET_TCP_HDR_OPT_END_LIST 0u #define NET_TCP_HDR_OPT_NOP 1u #define NET_TCP_HDR_OPT_MAX_seg_SIZE 2u #define NET_TCP_HDR_OPT_WIN_SCALE 3u #define NET_TCP_HDR_OPT_SACK_PERMIT 4u #define NET_TCP_HDR_OPT_SACK 5u #define NET_TCP_HDR_OPT_ECHO_REQ 6u #define NET_TCP_HDR_OPT_ECHO_REPLY 7u #define NET_TCP_HDR_OPT_TS 8u #define NET_TCP_HDR_OPT_PAD NET_TCP_HDR_OPT_END_LIST #define NET_TCP_HDR_OPT_LEN_END_LIST 1u #define NET_TCP_HDR_OPT_LEN_NOP 1u #define NET_TCP_HDR_OPT_LEN_MAX_seg_SIZE 4u #define NET_TCP_HDR_OPT_LEN_WIN_SCALE 3u #define NET_TCP_HDR_OPT_LEN_SACK_PERMIT 2u #define NET_TCP_HDR_OPT_LEN_ECHO_REQ 6u #define NET_TCP_HDR_OPT_LEN_ECHO_REPLY 6u #define NET_TCP_HDR_OPT_LEN_TS 10u #define NET_TCP_HDR_OPT_LEN_SACK_MIN 6u #define NET_TCP_HDR_OPT_LEN_SACK_MAX 38u #define NET_TCP_HDR_OPT_LEN_MIN 1u #define NET_TCP_HDR_OPT_LEN_MIN_LEN 2u #define NET_TCP_HDR_OPT_LEN_MAX 38u typedef CPU_INT32U NET_TCP_OPT_SIZE; /* TCP opt size data type (see Note #4). */ #define NET_TCP_HDR_OPT_SIZE_WORD (sizeof(NET_TCP_OPT_SIZE)) #define NET_TCP_HDR_OPT_SIZE_MAX (NET_TCP_HDR_SIZE_MAX - NET_TCP_HDR_SIZE_MIN) #define NET_TCP_HDR_OPT_NBR_MIN 0u #define NET_TCP_HDR_OPT_NBR_MAX (NET_TCP_HDR_OPT_SIZE_MAX / NET_TCP_HDR_OPT_SIZE_WORD) #define NET_TCP_HDR_OPT_IX NET_TCP_HDR_SIZE_MIN /*$PAGE*/ /* ********************************************************************************************************* * TCP OPTION CONFIGURATION TYPE DEFINES * * Note(s) : (1) NET_TCP_OPT_CFG_TYPE_&&& #define values specifically chosen as ASCII representations of * the TCP option configuration types. Memory displays of TCP option configuration buffers * will display the TCP option configuration TYPEs with their chosen ASCII names. ********************************************************************************************************* */ /* ---------------- TCP OPT CFG TYPES ----------------- */ #if (CPU_CFG_ENDIAN_TYPE == CPU_ENDIAN_TYPE_BIG) #define NET_TCP_OPT_CFG_TYPE_NONE 0x4E4F4E45u /* "NONE" in ASCII. */ #define NET_TCP_OPT_CFG_TYPE_MAX_seg_SIZE 0x4D535320u /* "MSS " in ASCII. */ #define NET_TCP_OPT_CFG_TYPE_WIN_SCALE 0x57494E20u /* "WIN " in ASCII (see 'net_tcp.h Note #1c1'). */ #define NET_TCP_OPT_CFG_TYPE_SACK_PERMIT 0x53434B50u /* "SCKP" in ASCII (see 'net_tcp.h Note #1c2'). */ #define NET_TCP_OPT_CFG_TYPE_SACK 0x5341434Bu /* "SACK" in ASCII (see 'net_tcp.h Note #1c2'). */ #define NET_TCP_OPT_CFG_TYPE_ECHO_REQ 0x45524551u /* "EREQ" in ASCII (see 'net_tcp.h Note #1c3'). */ #define NET_TCP_OPT_CFG_TYPE_ECHO_REPLY 0x4543484Fu /* "ECHO" in ASCII (see 'net_tcp.h Note #1c3'). */ #define NET_TCP_OPT_CFG_TYPE_TS 0x54532020u /* "TS " in ASCII (see 'net_tcp.h Note #1c4'). */ #else #if (CPU_CFG_DATA_SIZE == CPU_WORD_SIZE_32) #define NET_TCP_OPT_CFG_TYPE_NONE 0x454E4F4Eu /* "NONE" in ASCII. */ #define NET_TCP_OPT_CFG_TYPE_MAX_seg_SIZE 0x2053534Du /* "MSS " in ASCII. */ #define NET_TCP_OPT_CFG_TYPE_WIN_SCALE 0x204E4957u /* "WIN " in ASCII (see 'net_tcp.h Note #1c1'). */ #define NET_TCP_OPT_CFG_TYPE_SACK_PERMIT 0x504B4353u /* "SCKP" in ASCII (see 'net_tcp.h Note #1c2'). */ #define NET_TCP_OPT_CFG_TYPE_SACK 0x4B434153u /* "SACK" in ASCII (see 'net_tcp.h Note #1c2'). */ #define NET_TCP_OPT_CFG_TYPE_ECHO_REQ 0x51455245u /* "EREQ" in ASCII (see 'net_tcp.h Note #1c3'). */ #define NET_TCP_OPT_CFG_TYPE_ECHO_REPLY 0x4F484345u /* "ECHO" in ASCII (see 'net_tcp.h Note #1c3'). */ #define NET_TCP_OPT_CFG_TYPE_TS 0x20205354u /* "TS " in ASCII (see 'net_tcp.h Note #1c4'). */ #elif (CPU_CFG_DATA_SIZE == CPU_WORD_SIZE_16) #define NET_TCP_OPT_CFG_TYPE_NONE 0x4F4E454Eu /* "NONE" in ASCII. */ #define NET_TCP_OPT_CFG_TYPE_MAX_seg_SIZE 0x534D2053u /* "MSS " in ASCII. */ #define NET_TCP_OPT_CFG_TYPE_WIN_SCALE 0x4957204Eu /* "WIN " in ASCII (see 'net_tcp.h Note #1c1'). */ #define NET_TCP_OPT_CFG_TYPE_SACK_PERMIT 0x4353504Bu /* "SCKP" in ASCII (see 'net_tcp.h Note #1c2'). */ #define NET_TCP_OPT_CFG_TYPE_SACK 0x41534B43u /* "SACK" in ASCII (see 'net_tcp.h Note #1c2'). */ #define NET_TCP_OPT_CFG_TYPE_ECHO_REQ 0x52455145u /* "EREQ" in ASCII (see 'net_tcp.h Note #1c3'). */ #define NET_TCP_OPT_CFG_TYPE_ECHO_REPLY 0x43454F48u /* "ECHO" in ASCII (see 'net_tcp.h Note #1c3'). */ #define NET_TCP_OPT_CFG_TYPE_TS 0x53542020u /* "TS " in ASCII (see 'net_tcp.h Note #1c4'). */ #else /* Dflt CPU_WORD_SIZE_08. */ #define NET_TCP_OPT_CFG_TYPE_NONE 0x4E4F4E45u /* "NONE" in ASCII. */ #define NET_TCP_OPT_CFG_TYPE_MAX_seg_SIZE 0x4D535320u /* "MSS " in ASCII. */ #define NET_TCP_OPT_CFG_TYPE_WIN_SCALE 0x57494E20u /* "WIN " in ASCII (see 'net_tcp.h Note #1c1'). */ #define NET_TCP_OPT_CFG_TYPE_SACK_PERMIT 0x53434B50u /* "SCKP" in ASCII (see 'net_tcp.h Note #1c2'). */ #define NET_TCP_OPT_CFG_TYPE_SACK 0x5341434Bu /* "SACK" in ASCII (see 'net_tcp.h Note #1c2'). */ #define NET_TCP_OPT_CFG_TYPE_ECHO_REQ 0x45524551u /* "EREQ" in ASCII (see 'net_tcp.h Note #1c3'). */ #define NET_TCP_OPT_CFG_TYPE_ECHO_REPLY 0x4543484Fu /* "ECHO" in ASCII (see 'net_tcp.h Note #1c3'). */ #define NET_TCP_OPT_CFG_TYPE_TS 0x54532020u /* "TS " in ASCII (see 'net_tcp.h Note #1c4'). */ #endif #endif /*$PAGE*/ /* ********************************************************************************************************* * TCP CONNECTION TIMEOUT DEFINES * * Note(s) : (1) (a) (1) RFC #1122, Section 4.2.2.13 'DISCUSSION' states that "the graceful close algorithm * of TCP requires that the connection state remain defined on (at least) one end of * the connection, for a timeout period of 2xMSL ... During this period, the (remote * socket, local socket) pair that defines the connection is busy and cannot be reused". * * (2) The following sections reiterate that the TIME-WAIT state timeout scalar is two * maximum segment lifetimes (2 MSL) : * * (A) RFC #793, Section 3.9 'Event Processing : segMENT ARRIVES : * Check Sequence Number : TIME-WAIT STATE' * (B) RFC #793, Section 3.9 'Event Processing : segMENT ARRIVES : * Check FIN Bit : TIME-WAIT STATE' * * (b) (1) RFC #793, Section 3.3 'Sequence Numbers : Knowing When to Keep Quiet' states that * "the Maximum segment Lifetime (MSL) is ... to be 2 minutes. This is an engineering * choice, and may be changed if experience indicates it is desirable to do so". * * (2) Microsoft Corporation's Windows XP defaults MSL to 15 seconds. ********************************************************************************************************* */ /* Max seg timeout (see Note #1b) : */ #define NET_TCP_CONN_TIMEOUT_MAX_seg_MIN_SEC ( 0u ) /* ... min = 0 seconds */ #define NET_TCP_CONN_TIMEOUT_MAX_seg_MAX_SEC ( 2u * DEF_TIME_NBR_SEC_PER_MIN) /* ... max = 2 minutes */ #define NET_TCP_CONN_TIMEOUT_MAX_seg_DFLT_SEC ( 15u ) /* ... dflt = 15 seconds */ #define NET_TCP_CONN_TIMEOUT_MAX_seg_SCALAR 2u /* ... scalar (see Note #1a). */ #define NET_TCP_CONN_TIMEOUT_CONN_DFLT_SEC (120u * DEF_TIME_NBR_SEC_PER_MIN) /* Dflt conn timeout = 120 minutes */ #define NET_TCP_CONN_TIMEOUT_USER_DFLT_SEC ( 30u * DEF_TIME_NBR_SEC_PER_MIN) /* Dflt user timeout = 30 minutes */ /*$PAGE*/ /* ********************************************************************************************************* * TCP CONNECTION STATES * * Note(s) : (1) See the following RFC's for TCP state machine summary : * * (a) RFC # 793; Sections 3.2, 3.4, 3.5, 3.9 * (b) RFC #1122; Sections 4.2.2.8, 4.2.2.10, 4.2.2.11, 4.2.2.13, 4.2.2.18, 4.2.2.20 * * (2) (a) #### Additional closing-data-available state used for closing connections to allow the * application layer to receive any remaining data. * * See also 'net_tcp.c NetTCP_RxPktConnHandlerFinWait1() Note #2f5A2', * 'net_tcp.c NetTCP_RxPktConnHandlerFinWait2() Note #2f5B', * 'net_tcp.c NetTCP_RxPktConnHandlerClosing() Note #2d2B2a1B', * & 'net_tcp.c NetTCP_RxPktConnHandlerLastAck() Note #2d2A1b'. ********************************************************************************************************* */ #define NET_TCP_CONN_STATE_NONE 0u #define NET_TCP_CONN_STATE_FREE 1u #define NET_TCP_CONN_STATE_CLOSED 10u #define NET_TCP_CONN_STATE_LISTEN 20u #define NET_TCP_CONN_STATE_SYNC_RXD 30u #define NET_TCP_CONN_STATE_SYNC_RXD_PASSIVE 31u #define NET_TCP_CONN_STATE_SYNC_RXD_ACTIVE 32u #define NET_TCP_CONN_STATE_SYNC_TXD 35u #define NET_TCP_CONN_STATE_CONN 40u #define NET_TCP_CONN_STATE_FIN_WAIT_1 50u #define NET_TCP_CONN_STATE_FIN_WAIT_2 51u #define NET_TCP_CONN_STATE_CLOSING 52u #define NET_TCP_CONN_STATE_TIME_WAIT 53u #define NET_TCP_CONN_STATE_CLOSE_WAIT 55u #define NET_TCP_CONN_STATE_LAST_ACK 56u #define NET_TCP_CONN_STATE_CLOSING_DATA_AVAIL 59u /* See Note #2a. */ /* ********************************************************************************************************* * TCP CONNECTION QUEUE STATES ********************************************************************************************************* */ #define NET_TCP_RX_Q_STATE_NONE 0u #define NET_TCP_RX_Q_STATE_CLOSED 100u #define NET_TCP_RX_Q_STATE_CLOSING 101u #define NET_TCP_RX_Q_STATE_SYNC 110u #define NET_TCP_RX_Q_STATE_CONN 111u #define NET_TCP_TX_Q_STATE_NONE 0u #define NET_TCP_TX_Q_STATE_CLOSED 200u #define NET_TCP_TX_Q_STATE_CLOSING 201u #define NET_TCP_TX_Q_STATE_SYNC 210u #define NET_TCP_TX_Q_STATE_CONN 211u #define NET_TCP_TX_Q_STATE_SUSPEND 215u #define NET_TCP_TX_Q_STATE_CLOSED_SUSPEND 220u #define NET_TCP_TX_Q_STATE_CLOSING_SUSPEND 221u /*$PAGE*/ /* ********************************************************************************************************* * TCP CONNECTION CODE DEFINES **************
上傳時間： 2015-11-22
上傳用戶：the same kong
/**************************************************************** 外部晶振8M PA0~3：四位數(shù)碼管的位選 PB0~7：數(shù)碼管的8位段選 外部中斷0用于計數(shù) 定時器0溢出中斷的定時為1ms 說明 ：檢測到水流較小時，繼電器延時1秒關(guān)閉 ******************************************************************/ #include<iom16v.h> #include<macros.h> #define uchar unsigned char #define uint unsigned int char led_7[10]={0x3F,0x06,0x5B,0x4F,0x66,0x6D,0x7D,0x07,0x7F,0x6F}; //數(shù)碼管段選 char position[4]={0xfe,0xfd,0xfb,0xf7};//數(shù)碼管位選 uint sumnum=0; //用于記錄1000ms內(nèi)進入中斷的次數(shù) uint time=0; //記錄進入比較定時器0的次數(shù) uint num=0; //記錄1ms內(nèi)進入中斷的次數(shù) uint count=0; //進入外部中斷0的次數(shù) uchar flag; uint sumnum1; //記錄100ms內(nèi)的數(shù)目 /***************************函數(shù)聲明***************************/ void delay(); void display(uint m ); void init(); void init_0(); void init_2(); void _delay_us(uint l) { unsigned int i; for(i=0;i<l;i++) { asm("nop"); } } /**************************主函數(shù)***********************************/ void main() { init(); init_0(); init_2(); while(sumnum<5) { PORTD=0XBF; segdisplay(sumnum1); } while(1) { segdisplay(sumnum1); } } /*************************掃描數(shù)碼管時的延時函數(shù)*********************/ void delay() { uchar i,j; for(i=6;i>0;i--) for(j=225;j>0;j--); } /************************數(shù)碼管顯示函數(shù)*****************************/ void segdisplay( int temp) { int seg[]={0x3f,0x06,0x5b,0x4f,0x66,0x6d,0x7d,0x07,0x7f,0x6f}; int temp1,temp2,temp3,temp4; temp1=temp/1000; temp2=(temp/100)%10; temp3=(temp/10)%10; temp4=temp%10; DDRB=0xff; DDRA|=0x0f; PORTA=~BIT(3); PORTB=seg[temp1]; _delay_us(100); PORTA=~BIT(2); PORTB=seg[temp2]; _delay_us(100); PORTA=~BIT(1); PORTB=seg[temp3]; _delay_us(100); PORTA=~BIT(0); PORTB=seg[temp4]; _delay_us(100); } /***********************管腳初始化函數(shù)*********************/ void init() { DDRD|=0X40; //PD4 設(shè)置為輸出 PORTD=0XBF; DDRA=0XFF; DDRB=0XFF; PORTA=0XFF; PORTB=0XFF; } /***********************外部中斷0初始化*********************/ void init_0() { MCUCR=0X02; //INT0為下降沿觸發(fā) GICR=0X40; //使能INT0中斷 SREG=0X80; //使能總中斷 } /**********************定時器2初始化***********************/ void init_2() { TCCR0=0x03; // 內(nèi)部時鐘，64 分頻（8M/64=125KHz） TCNT0=0x83; //裝初值 TIMSK=0x01; // 允許 T/C0溢出中斷中斷 } /***********************外部中斷0子函數(shù)********************/ #pragma interrupt_handler int0_isr:2 void int0_isr(void) { count++; } /*********************定時計數(shù)器0溢出中斷子函數(shù)*****************/ #pragma interrupt_handler int0_over:10 void int0_over(void) { TCNT0=0x83; //重裝初值 if((time%100) == 0) sumnum1 = num; if(time == 1000) { sumnum=num; if(sumnum<10) { if((flag==1)&&(sumnum<10)) { PORTD=0XFF; flag=0; } flag++; } else PORTD=0XBF; num=0; time=0; } num+=count; count=0; ++time; }
標(biāo)簽： C語言
上傳時間： 2016-03-09
上傳用戶：彥 yan
#include "STC90.h" #include < intrins.h > #define uchar unsigned char #define uint unsigned int #define led_port P1 sbit IR_RE = P3^2; sbit led_r = P1^3; sbit led_g = P1^4; sbit led_b = P1^5; sbit led_wd = P1^7; sbit K1 =P3^0 ; //增加鍵 sbit K2 =P3^1 ; //減少鍵 sbit BEEP =P3^7 ; //蜂鳴器 uchar temp,temp1; bit k=0; //紅外解碼判斷標(biāo)志位，為0則為有效信號，為1則為無效 bit Flag2; uchar date[4]={0,0,0,0}; //date數(shù)組為存放地址原碼，反碼，數(shù)據(jù)原碼，反碼 uint lade_1,lade_2,lade_3,lade_4; uint num; uchar date_ram,ee_temp,ee_temp1; uchar WDT_NUM=0; uchar const dofly[]={0x3f,0x06,0x5b,0x4f,0x66,0x6d,0x7d,0x07,0x7f,0x6f};// 顯示段碼值01234567 uchar code seg[]={7,6,5,4,3,2,1,0};//分別對應(yīng)相應(yīng)的數(shù)碼管點亮,即位碼 unsigned long disp_date; void fade(); void fade1(); /*************************** 看門狗子程序*************************/ void watchdog_timer() { if(WDT_NUM==5) { WDT_NUM=0; led_wd=!led_wd; } WDT_NUM++; WDT_CONTR=0x3f; } /******************************************************************/ void delay(unsigned int cnt) { while(--cnt); } /*--------------------------延時1ms程子程序-----------------------*/ void delay_1ms(uint z) { uint x,y; for(x=z;x>0;x--) for(y=126;y>0;y--); } /*--------------------------延時1ms程子程序-----------------------*/ delay1000() { uchar i,j; i=5; do{j=95; do{j--;} while(j); i--; } while(i); } /*---------------------------延時882us子程序-----------------------*/ delay882() { uchar i,j; i=6; do{j=71; do{j--;} while(j); i--; }while(i); } /*--------------------------延時2400us程子程序-----------------------*/ delay2400() { uchar i,j; i=5; do{j=237; do{j--;} while(j); i--; }while(i); } /**********************************************************************/ /* void display() { uchar i; for(i=0;i<8;i++) { P0=dofly[disp_date%10];//取顯示數(shù)據(jù)，段碼 P2=seg[i]; //取位碼 delay_1ms(1); disp_date/=10; } } */ /*********************************************************************/ uchar EEPROM_read(uint addr)//EEPROM字節(jié)讀 { ISP_CONTR=0x83; //系統(tǒng)時鐘<12M時，對ISP_CONTR寄存器設(shè)置的值，本電路為11.0592M ISP_CMD=1; //字節(jié)讀 ISP_ADDRH=(addr&0xff00)>>8; ISP_ADDRL=addr&0x00ff; ISP_TRIG=0x46; ISP_TRIG=0xb9; _nop_(); _nop_(); return ISP_DATA; } //-------------------------------------------------------------------- void EEPROM_write(uint addr,uchar dat)//EEPROM字節(jié)寫 { ISP_CONTR=0x83; //系統(tǒng)時鐘<12M時，對ISP_CONTR寄存器設(shè)置的值，本電路為11.0592M ISP_CMD=2; //字節(jié)編程 ISP_ADDRH=(addr&0xff00)>>8; ISP_ADDRL=addr&0x00ff; ISP_DATA=dat; ISP_TRIG=0x46; ISP_TRIG=0xb9; _nop_(); _nop_(); } //-------------------------------------------------------------------- void EEPROM_ERASE(uint addr)//EEPROM扇區(qū)擦除 { ISP_CONTR=0x83; //系統(tǒng)時鐘<12M時，對ISP_CONTR寄存器設(shè)置的值，本電路為11.0592M ISP_CMD=3; //扇區(qū)擦除 ISP_ADDRH=(addr&0xff00)>>8; ISP_ADDRL=addr&0x00ff; ISP_TRIG=0x46; ISP_TRIG=0xb9; _nop_(); _nop_(); } //************************************************************** /*----------------------------------------------------------*/ /*-----------------------紅外解碼程序(核心)-----------------*/ /*----------------------------------------------------------*/ void IR_decode() { uchar i,j; while(IR_RE==0); delay2400(); if(IR_RE==1) //延時2.4ms后如果是高電平則是新碼 { delay1000(); delay1000(); for(i=0;i<4;i++) { for(j=0;j<8;j++) { while(IR_RE==0); //等待地址碼第1位高電平到來 delay882(); //延時882us判斷此時引腳電平 ///CY=IR_RE; if(IR_RE==0) { date[i]>>=1; date[i]=date[i]|0x00; } else if(IR_RE==1) { delay1000(); date[i]>>=1; date[i]=date[i]|0x80; } } //1位數(shù)據(jù)接收結(jié)束 } //32位二進制碼接收結(jié)束 } } /* void LED_PWM() { lade_2=num; //384 lade_4=num; //384 while(lade_2!=0&Flag2==1) { for(lade_3=512;lade_3>lade_4;lade_3--) //512 { led_port=0x00; delay(1); } lade_3=512; //512 lade_4--; for(lade_1=0;lade_1<lade_2;lade_1++) { led_port=0x38; //c7 delay(1); } lade_1=0; lade_2--; if(temp!=0x0c&Flag2==1) { lade_2=0; } lade_2=num; //384 lade_4=num; //384 } } */ void calc() { EEPROM_read(0x2000); ee_temp1=ISP_DATA; ee_temp=ee_temp1&0x0f; //************************************* 1 /* if(date[3]==0xff&Flag2==1) { if(num>=20) { num=num-80; } //else num=1; LED_PWM(); } if(date[3]==0xfe&Flag2==1) { if(num<=500) { num=num+80; } // else num=511; LED_PWM(); } if(ee_temp1==0xfd) { led_port=0x00; watchdog_timer(); } if(ee_temp1==0xfc) { led_port=0x00; led_r=1; led_g=1; led_b=1; watchdog_timer(); } */ //********************************************** 2 if(ee_temp1==0xfb) { led_port=0x00; led_r=1; watchdog_timer(); } if(ee_temp1==0xfa) { led_port=0x00; led_g=1; watchdog_timer(); } if(ee_temp1==0xf9) { led_port=0x00; led_b=1; watchdog_timer(); } if(ee_temp1==0xf8) { led_port=0x00; led_r=1; led_g=1; led_b=1; watchdog_timer(); } //************************************** 3 if(ee_temp1==0xf7) { uint fade_1,fade_2,fade_3,fade_4; fade_2=448; //384 fade_4=448; //384 while(fade_2!=0&ee_temp==0x07) { for(fade_3=512;fade_3>fade_4;fade_3--) //512 { led_port=0x10; delay(1); } fade_3=512; //512 fade_4--; watchdog_timer(); for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x08; delay(1); } fade_1=0; fade_2--; if(ee_temp!=0x07) { fade_2=0; } watchdog_timer(); fade_2=448; //384 fade_4=448; //384 } } if(ee_temp1==0xf6) { uint fade_1,fade_2,fade_3,fade_4; fade_2=448; //384 fade_4=448; //384 while(fade_2!=0&ee_temp==0x06) { for(fade_3=512;fade_3>fade_4;fade_3--) //512 { led_port=0x20; delay(1); } fade_3=512; //512 fade_4--; watchdog_timer(); for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x10; delay(1); } fade_1=0; fade_2--; if(ee_temp!=0x06) { fade_2=0; } watchdog_timer(); fade_2=448; //384 fade_4=448; //384 } } if(ee_temp1==0xf5) { uint fade_1,fade_2,fade_3,fade_4; fade_2=448; //384 fade_4=448; //384 while(fade_2!=0&ee_temp==0x05) { for(fade_3=512;fade_3>fade_4;fade_3--) //512 { led_port=0x08; delay(1); } fade_3=512; //512 fade_4--; watchdog_timer(); for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x20; delay(1); } fade_1=0; fade_2--; if(ee_temp!=0x05) { fade_2=0; } watchdog_timer(); fade_2=448; //384 fade_4=448; //384 } } if(ee_temp1==0xf4) { while(ee_temp==4) { led_port=0x00; led_r=1; delay_1ms(200); led_port=0x00; led_r=1; led_g=1; delay_1ms(200); led_port=0x00; led_g=1; delay_1ms(200); watchdog_timer(); led_port=0x00; led_g=1; led_b=1; delay_1ms(200); led_port=0x00; led_b=1; delay_1ms(200); led_port=0x00; led_b=1; led_r=1; delay_1ms(200); watchdog_timer(); } } //************************************** 4 if(ee_temp1==0xf3) { uint fade_1,fade_2,fade_3,fade_4; fade_2=416; //384 fade_4=416; //384 while(fade_2!=0&ee_temp==0x03) { for(fade_3=512;fade_3>fade_4;fade_3--) //512 { led_port=0x10; delay(1); } fade_3=512; //512 fade_4--; watchdog_timer(); for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x08; delay(1); } fade_1=0; fade_2--; if(ee_temp!=0x03) { fade_2=0; } watchdog_timer(); fade_2=416; //384 fade_4=416; //384 } } if(ee_temp1==0xf2) { uint fade_1,fade_2,fade_3,fade_4; fade_2=384; //384 fade_4=384; //384 while(fade_2!=0&ee_temp==0x02) { for(fade_3=512;fade_3>fade_4;fade_3--) //512 { led_port=0x20; delay(1); } fade_3=512; //512 fade_4--; watchdog_timer(); for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x10; delay(1); } fade_1=0; fade_2--; if(ee_temp!=0x02) { fade_2=0; } watchdog_timer(); fade_2=384; //384 fade_4=384; //384 } } if(ee_temp1==0xf1) { uint fade_1,fade_2,fade_3,fade_4; fade_2=348; //384 fade_4=348; //384 while(fade_2!=0&ee_temp==0x01) { for(fade_3=512;fade_3>fade_4;fade_3--) //512 { led_port=0x08; delay(1); } fade_3=512; //512 fade_4--; watchdog_timer(); for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x20; delay(1); } fade_1=0; fade_2--; if(ee_temp!=0x01) { fade_2=0; } watchdog_timer(); fade_2=348; //384 fade_4=348; //384 } } if(ee_temp1==0xf0) { while(ee_temp==0) { led_port=0x00; led_r=1; delay_1ms(500); watchdog_timer(); led_port=0x00; led_g=1; delay_1ms(500); led_port=0x00; led_b=1; delay_1ms(500); watchdog_timer(); } } //******************************************** 5 if(ee_temp1==0xef) { uint fade_1,fade_2,fade_3,fade_4; fade_2=384; //384 fade_4=384; //384 while(fade_2!=0&ee_temp==0x0f) { for(fade_3=512;fade_3>fade_4;fade_3--) //512 { led_port=0x10; delay(1); } fade_3=512; //512 fade_4--; watchdog_timer(); for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x08; delay(1); } fade_1=0; fade_2--; if(ee_temp!=0x0f) { fade_2=0; } watchdog_timer(); fade_2=384; //384 fade_4=384; //384 } } if(ee_temp1==0xee) { uint fade_1,fade_2,fade_3,fade_4; fade_2=320; //384 fade_4=320; //384 while(fade_2!=0&ee_temp==0x0e) { for(fade_3=512;fade_3>fade_4;fade_3--) //512 { led_port=0x20; delay(1); } fade_3=512; //512 fade_4--; watchdog_timer(); for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x10; delay(1); } fade_1=0; fade_2--; if(ee_temp!=0x0e) { fade_2=0; } watchdog_timer(); fade_2=320; //384 fade_4=320; //384 } } if(ee_temp1==0xed) { uint fade_1,fade_2,fade_3,fade_4; fade_2=320; //384 fade_4=320; //384 while(fade_2!=0&ee_temp==0x0d) { for(fade_3=512;fade_3>fade_4;fade_3--) //512 { led_port=0x08; delay(1); } fade_3=512; //512 fade_4--; watchdog_timer(); for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x20; delay(1); } fade_1=0; fade_2--; if(ee_temp!=0x0d) { fade_2=0; } watchdog_timer(); fade_2=320; //384 fade_4=320; //384 } } if(ee_temp1==0xec) fade(); //******************************************* 6 if(ee_temp1==0xeb) { led_port=0x00; led_r=1; led_g=1; watchdog_timer(); } if(ee_temp1==0xea) { led_port=0x00; //led_r=0; led_g=1; led_b=1; watchdog_timer(); } if(ee_temp1==0xe9) { led_port=0x00; led_r=1; //led_g=0; led_b=1; watchdog_timer(); } if(ee_temp1==0xe8) fade1(); } void fade() { // uchar i; uint fade_1,fade_2,fade_3,fade_4; fade_2=512; fade_4=511; while(fade_2!=0&ee_temp==0x0c) { for(fade_3=512;fade_3>fade_4;fade_3--) { led_port=0x10; delay(1); } fade_3=512; fade_4--; watchdog_timer(); for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x08; delay(1); } fade_1=0; fade_2--; if(ee_temp!=0x0c) { fade_2=0; } } watchdog_timer(); fade_2=512; fade_4=511; while(fade_2!=0&ee_temp==0x0c) { if(ee_temp!=0x0c) { fade_2=0; } for(fade_3=512;fade_3>fade_4;fade_3--) { led_port=0x20; delay(1); // watchdog_timer(); } fade_3=512; fade_4--; watchdog_timer(); for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x10; delay(1); // watchdog_timer(); } fade_1=0; fade_2--; } watchdog_timer(); fade_2=512; fade_4=511; while(fade_2!=0&ee_temp==0x0c) { if(ee_temp!=0x0c) { fade_2=0; } for(fade_3=512;fade_3>fade_4;fade_3--) { led_port=0x08; delay(1); watchdog_timer(); } fade_3=512; fade_4--; watchdog_timer(); for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x20; delay(1); watchdog_timer(); } fade_1=0; fade_2--; } watchdog_timer(); } void fade1() { // uchar i; uint fade_1,fade_2,fade_3,fade_4; fade_2=128; fade_4=127; while(fade_2!=0&ee_temp==0x08) { for(fade_3=128;fade_3>fade_4;fade_3--) { led_port=0x10; delay(1); } fade_3=128; fade_4--; for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x08; delay(1); } fade_1=0; fade_2--; if(ee_temp!=0x08) { fade_2=0; } } watchdog_timer(); fade_2=128; fade_4=127; while(fade_2!=0&ee_temp==0x08) { if(ee_temp!=0x08) { fade_2=0; } for(fade_3=128;fade_3>fade_4;fade_3--) { led_port=0x20; delay(1); } fade_3=128; fade_4--; for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x10; delay(1); } fade_1=0; fade_2--; } watchdog_timer(); fade_2=128; fade_4=127; while(fade_2!=0&ee_temp==0x08) { if(ee_temp!=0x08) { fade_2=0; } for(fade_3=128;fade_3>fade_4;fade_3--) { led_port=0x08; delay(1); } fade_3=128; fade_4--; for(fade_1=0;fade_1<fade_2;fade_1++) { led_port=0x20; delay(1); } fade_1=0; fade_2--; } watchdog_timer(); } void init() { led_port=0x00; /* led_r=1; delay_1ms(500); led_port=0x00; led_g=1; delay_1ms(500); led_port=0x00; led_b=1; delay_1ms(500); led_port=0x00; */ delay_1ms(2); WDT_CONTR=0x3f; delay_1ms(500); } //******************************** void main() { init(); Flag2=0; SP=0x60; //堆棧指針 EX0=1; //允許外部中斷0,用于檢測紅外遙控器按鍵 EA=1; num=255; while(1) { calc(); } } //******************************************************************** /*------------------------外部中斷0程序-------------------------*/ /*------------------主要用于處理紅外遙控鍵值--------------------*/ void int0() interrupt 0 { uchar i; Flag2=0; /////// k=0; EX0=0; //檢測到有效信號關(guān)中斷，防止干擾 for(i=0;i<4;i++) { delay1000(); if(IR_RE==1){k=1;} //剛開始為9ms的引導(dǎo)碼. } led_port=0x00; if(k==0) { IR_decode(); //如果接收到的是有效信號，則調(diào)用解碼程序 if(date[3]>=0xe8) { if(date[3]<=0xfb) { temp1=date[3]; EEPROM_ERASE(0x2000); //STC_EEROM_0X2000 temp1 EEPROM_write(0x2000,temp1); EEPROM_read(0x2000); ee_temp1=ISP_DATA; ee_temp=ee_temp1&0x0f; /* temp=date[3]&0x0f; EEPROM_ERASE(0x2004); //STC_EEROM_0X2004 temp EEPROM_write(0x2004,temp); */ } else { EEPROM_read(0x2000); ee_temp1=ISP_DATA; ee_temp=ee_temp1&0x0f; } } delay2400(); delay2400(); delay2400(); delay_1ms(500); } EX0=1; //開外部中斷，允許新的遙控按鍵 }
上傳時間： 2016-07-02
上傳用戶：184890962
VK2C23 是一款存儲器映射和多功能 的 LCD 控制 / 驅(qū)動芯片。該芯片的顯示字段為 224 點 (56 seg × 4 COM) 或 416 點 (52 seg × 8 COM)。VK2C23 芯片的軟件配置特 性使其適用于多種 LCD 應(yīng)用，包括 LCD 模塊和 顯示子系統(tǒng)。VK2C23 芯片可通過雙 線雙向 I2C 接口與大多數(shù)微處理器或微控制器進 行通信。 VK2C2X系列為I2C介面、RAM mapping的LCD控制暨驅(qū)動IC，此系列以先進設(shè)計技術(shù)降低IC耗電、提升抗雜訊及ESD防護能力。全系列包含VK2C22、VK2C23、VK2C24等。VK2C22已成功獲得單相電表客戶的認(rèn)可及采用，VK2C23及VK2C24適合于點數(shù)需求較大的三相電表的應(yīng)用。
標(biāo)簽： C23 23 16C LCD VK2 VK 2C 16 HT 存儲器
上傳時間： 2018-07-14
上傳用戶：szqxw1688
我們的優(yōu)勢： 1：元泰原廠直銷價格支持！ 2：原廠工程技術(shù)服務(wù)支持！ 3：大陸地區(qū)大量庫存現(xiàn)貨！ 4：免費樣品支持案子開發(fā)！ 5：提供原廠準(zhǔn)確設(shè)計資料！ 6：原廠授權(quán)確保原裝正品！ 市場部 許碩 深圳市永嘉微電科技有限公司 臺灣元泰(VINTEK)半導(dǎo)體股份有限公司授權(quán)大中華區(qū)總代理 地址: 廣東省深圳市寶安區(qū)西鄉(xiāng)大道正泰來商務(wù)大廈3A層 網(wǎng)址: www.szvinka.com 電話: 0755-83251722 傳真: 0755-27912655 手機: 188 9858 2398 Q Q: 191 888 5898 LCD/LED液晶控制器及驅(qū)動器系列 芯片簡介如下： RAM映射LCD控制器和驅(qū)動器系列 VK1024B 2.4V～5.2V 6seg*4com 6*3 6*2 偏置電壓1/2 1/3 S0P-16 VK1056B 2.4V～5.2V 14seg*4com 14*3 14*2 偏置電壓1/2 1/3 SOP-24/SSOP-24 VK1072B 2.4V～5.2V 18seg*4com 18*3 18*2 偏置電壓1/2 1/3 SOP-28 VK1072C 2.4V～5.2V 18seg*4com 18*3 18*2 偏置電壓1/2 1/3 SOP-28 VK1088B 2.4V～5.2V 22seg*4com 22*3 偏置電壓1/2 1/3 QFN-32L（4MM*4MM） VK0192 2.4V～5.2V 24seg*8com 偏置電壓1/4 LQFP-44 VK0256 2.4V～5.2V 32seg*8com 偏置電壓1/4 QFP-64 VK0256B 2.4V～5.2V 32seg*8com 偏置電壓1/4 LQFP-64 VK0256C 2.4V～5.2V 32seg*8com 偏置電壓1/4 LQFP-52 VK1621S-1 2.4V～5.2V 32*4 32*3 32*2 偏置電壓1/2 1/3 LQFP44/48/SSOP48/SKY28/DICE裸片 VK1622B 2.7V～5.5V 32seg*8com 偏置電壓1/4 LQFP-48 VK1622S 2.7V～5.5V 32seg*8com 偏置電壓1/4 LQFP44/48/52/64/QFP64/DICE裸片 VK1623S 2.4V～5.2V 48seg*8com 偏置電壓1/4 LQFP-100/QFP-100/DICE裸片 VK1625 2.4V～5.2V 64seg*8com 偏置電壓1/4 LQFP-100/QFP-100/DICE VK1626 2.4V～5.2V 48seg*16com 偏置電壓1/5 LQFP-100/QFP-100/DICE 標(biāo)準(zhǔn)系列驅(qū)動IC適用于有段式lcd面板的消費類產(chǎn)品，三線接口，可以驅(qū)動2COM到16COM，最大64個seg的lcd,可以通過指令進入省電模式，多種封裝可供客戶選擇。 (高品質(zhì) 高性價比：液晶顯示驅(qū)動IC 原廠直銷 工程技術(shù)支持！) (所有型號全部封裝均有現(xiàn)貨，歡迎加Q查詢 191 888 5898 許生) 高抗干擾LCD液晶控制器及驅(qū)動系列 VK2C21A 2.4～5.5V 20seg*4com 16*8 偏置電壓1/3 1/4 I2C通訊接口 SOP-28 VK2C21B 2.4～5.5V 16seg*4com 12*8 偏置電壓1/3 1/4 I2C通訊接口 SOP-24 VK2C21C 2.4～5.5V 12seg*4com 8*8 偏置電壓1/3 1/4 I2C通訊接口 SOP-20 VK2C21D 2.4～5.5V 8seg*4com 4*8 偏置電壓1/3 1/4 I2C通訊接口 NSOP-16 VK2C22A 2.4～5.5V 44seg*4com 偏置電壓1/2 1/3 I2C通訊接口 LQFP-52 VK2C22B 2.4～5.5V 40seg*4com 偏置電壓1/2 1/3 I2C通訊接口 LQFP-48 VK2C23A 2.4～5.5V 56seg*4com 52*8 偏置電壓1/3 1/4 I2C通訊接口 LQFP-64 VK2C23B 2.4～5.5V 36seg*8com 偏置電壓1/3 1/4 I2C通訊接口 LQFP-48 VK2C24 2.4～5.5V 72seg*4com 68*8 60*16 偏置電壓1/3 1/4 1/5 I2C通訊接口 LQFP-80 抗干擾系列驅(qū)動IC適用于有段式lcd面板的電氣表等產(chǎn)品，i2c接口，lcd驅(qū)動電壓可以通過外部vlcd引腳設(shè)置，也可以通過指令設(shè)置16級內(nèi)部vlcd電壓,幀頻可設(shè)置為80Hz和160Hz，多種封裝可供客戶選擇。 超低功耗LCD液晶控制器及驅(qū)動系列 VKL060 2.5～5.5V 15seg*4com 偏置電壓1/2 1/3 I2C通訊接口 SSOP-24 VKL128 2.5～5.5V 32seg*4com 偏置電壓1/2 1/3 I2C通訊接口 LQFP-44 VKL144A 2.5～5.5V 36seg*4com 偏置電壓1/2 1/3 I2C通訊接口 TSSOP-48 VKL144B 2.5～5.5V 36seg*4com 偏置電壓1/2 1/3 I2C通訊接口 QFN48L (6MM*6MM) 低功耗系列驅(qū)動IC適用于有段式lcd面板的手表，醫(yī)療儀器等產(chǎn)品，i2c接口，工作電流小可設(shè)置多種節(jié)電模式，可通過VLCD腳接對地電阻調(diào)整對比度，多種封裝可供客戶選擇。 靜態(tài)顯示LCD液晶控制器及驅(qū)動系列 VKS118 2.4～5.2V 118seg*2com 偏置電壓 -- 4線通訊接口 LQFP-128 VKS232 2.4～5.2V 116seg*2com 偏置電壓1/1 1/2 4線通訊接口 LQFP-128 靜態(tài)顯示系列驅(qū)動IC，有對比度好、可視角大、不閃爍等特點，適用于洗衣機面板，汽機車儀表、家電等高顯示品質(zhì)產(chǎn)品 內(nèi)存映射的LED控制器及驅(qū)動器 VK1628 --- 通訊接口:STB/CLK/DIO 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:70/52 共陰驅(qū)動:10段7位/13段4位 共陽驅(qū)動:7段10位 按鍵:10x2 封裝SOP28 VK1629 --- 通訊接口:STB/CLK/DIN/DOUT 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:128 共陰驅(qū)動:16段8位 共陽驅(qū)動:8段16位 按鍵:8x4 封裝QFP44 VK1629A --- 通訊接口:STB/CLK/DIO 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:128 共陰驅(qū)動:16段8位 共陽驅(qū)動:8段16位 按鍵:--- 封裝SOP32 VK1629B --- 通訊接口:STB/CLK/DIO 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:112 共陰驅(qū)動:14段8位 共陽驅(qū)動:8段14位 按鍵:8x2 封裝SOP32 VK1629C --- 通訊接口:STB/CLK/DIO 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:120 共陰驅(qū)動:15段8位 共陽驅(qū)動:8段15位 按鍵:8x1 封裝SOP32 VK1629D --- 通訊接口:STB/CLK/DIO 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:96 共陰驅(qū)動:12段8位 共陽驅(qū)動:8段12位 按鍵:8x4 封裝SOP32 VK1640 --- 通訊接口: CLK/DIN 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:128 共陰驅(qū)動:8段16位 共陽驅(qū)動:16段8位 按鍵:--- 封裝SOP28 VK1650 --- 通訊接口: SCL/SDA 電源電壓:5V(3.0～5.5V) 驅(qū)動點陣:8x16 共陰驅(qū)動:8段4位 共陽驅(qū)動:4段8位 按鍵:7x4 封裝SOP16/DIP16 VK1668 ---通訊接口:STB/CLK/DIO 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:70/52 共陰驅(qū)動:10段7位/13段4位 共陽驅(qū)動:7段10位 按鍵:10x2 封裝SOP24 VK6932 --- 通訊接口:STB/CLK/DIN 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:128 共陰驅(qū)動:8段16位17.5/140mA 共陽驅(qū)動:16段8位 按鍵:--- 封裝SOP32 VK16K33 --- 通訊接口:SCL/SDA 電源電壓:5V(4.5V～5.5V) 驅(qū)動點陣:128/96/64 共陰驅(qū)動:16段8位/12段8位/8段8位 共陽驅(qū)動:8段16位/8段12位/8段8位 按鍵:13x3 10x3 8x3 封裝SOP20/SOP24/SOP28 (所有型號全部封裝均有現(xiàn)貨，歡迎加Q查詢 191 888 5898 許生) 以上介紹內(nèi)容為IC參數(shù)簡介，難免有錯漏，且相關(guān)IC型號眾多，未能一一收錄。歡迎聯(lián)系索取完整資料及樣品！ 請加許先生 QQ：191 888 5898聯(lián)系！謝謝 生意無論大小，做人首重誠信！本公司全體員工將既往開來，再接再厲。爭取為各位帶來更專業(yè)的技術(shù)支持，更優(yōu)質(zhì)的銷售服務(wù)，更高性價比的好產(chǎn)品.竭誠希望能與各位客戶朋友深入溝通，攜手共進，共同成長，合作共贏！謝謝。
標(biāo)簽： LCD低功耗驅(qū)動IC LCD驅(qū)動芯片 液晶顯示驅(qū)動IC
上傳時間： 2018-09-21
上傳用戶：szqxw1688
VK元泰原廠LED的面板驅(qū)動產(chǎn)品主要應(yīng)用于段式和點陣式LED的顯示驅(qū)動包括但不局限以下產(chǎn)品： 儀表顯示、大小家電、標(biāo)志牌、健身器材顯示面板等，同時涉及顯示器控制器、雙斜率與顯示驅(qū)動ADC及顯示器驅(qū)動計數(shù)器相關(guān)產(chǎn)品，產(chǎn)品具備顯示、背光、按鍵掃描、單線、兩線及三線通訊等不同特色。LED面板顯示驅(qū)動控制芯片/段式和點陣式LED顯示驅(qū)動專家。樣品免費，大量原裝現(xiàn)貨！歡迎加Q索取產(chǎn)品PDF資料。 VK元泰原廠LED顯示屏驅(qū)動主要大量應(yīng)用于以下這些產(chǎn)品簡介： 1：VCR、VCD、DVD 及家庭影院等產(chǎn)品的顯示屏驅(qū)動。 2：電磁爐、微波爐、冰箱、空調(diào) 、家庭影院等產(chǎn)品的高段位顯示屏驅(qū)動。 3：電子產(chǎn)品LED顯示屏驅(qū)動，電子秤及小家電產(chǎn)品的顯示屏驅(qū)動。 4：機頂盒、各種家電設(shè)備、智能電表等數(shù)碼管、多段位顯示屏驅(qū)動 VK1628概述 VK1628 是 1/5～1/8 占空比的 LED 顯示控制驅(qū)動電路。由 10 根段輸出、4 根柵輸出、3 根段/柵輸出，1 個顯示存儲器、控制電路、鍵掃描電路組成了一個高可靠性的單片機外圍 LED 驅(qū)動電路。串行數(shù)據(jù)通過4線串行接口輸入到 VK1628采用 SOP28 的封裝形式。 VK1629A概述 VK1629A 是LED（發(fā)光二極管顯示器）驅(qū)動控制專用電路，內(nèi)部集成有MCU 數(shù)字接口、數(shù)據(jù)鎖存器、LED 高壓驅(qū)動等電路。主要應(yīng)用于冰箱、空調(diào)、家庭影院等產(chǎn)品的高段位顯示屏驅(qū)動。 VK1629B概述 VK1629B 是 LED（發(fā)光二極管顯示器）驅(qū)動控制專用電路，內(nèi)部集成有 MCU 數(shù)字接口、數(shù)據(jù)鎖存器、鍵盤掃描、LED 高壓驅(qū)動等電路。主要應(yīng)用于冰箱、空調(diào)、家庭影院等產(chǎn)品的高段位顯示屏驅(qū)動。 VK1629C 概述 VK1629C 是帶鍵盤掃描接口的 LED（發(fā)光二極管顯示器）驅(qū)動控制專用電路，內(nèi)部 集成有 MCU 數(shù)字接口、數(shù)據(jù)鎖存器、LED 高壓驅(qū)動、鍵盤掃描等電路。主要應(yīng)用于冰箱、空調(diào)、家庭影院等產(chǎn)品的高段位顯示屏驅(qū)動。 VK1629D 概述 VK1629D 是 LED（發(fā)光二極管顯示器）驅(qū)動控制專用電路，內(nèi)部集成有 MCU 數(shù)字接口、數(shù)據(jù)鎖存器、LED 高壓驅(qū)動等電路。主要應(yīng)用于冰箱、空調(diào)、家庭影院等產(chǎn)品的高段位顯示屏驅(qū)動。 VK1640 概述 VK1640 是一款 LED（發(fā)光二極管顯示器）驅(qū)動控制專用電路，內(nèi)部集成有 MCU 數(shù)字接口、數(shù)據(jù)鎖存器、LED 高壓驅(qū)動。本產(chǎn)品采用 CMOS 工藝，主要應(yīng)用于小型 LED 顯示屏驅(qū)動。 VK1640B概述 ----- SSOP24 超小封裝體積方便開發(fā)設(shè)計，更低成本單價！ VK1640B 是一款 LED（發(fā)光二極管顯示器）驅(qū)動控制專用電路，內(nèi)部集成有 MCU 數(shù)字接口、 數(shù)據(jù)鎖存器、LED 高壓驅(qū)動。本產(chǎn)品采用 CMOS 工藝，主要應(yīng)用于小型 LED 顯示屏驅(qū)動。 VK1650概述 VK1650 是一種帶鍵盤掃描電路接口的 LED 驅(qū)動控制專用電路。內(nèi)部集成有 MCU 輸入輸出控制數(shù)字接口、數(shù)據(jù)鎖存器、LED 驅(qū)動、鍵盤掃描、輝度調(diào)節(jié)等電路。本芯片性能穩(wěn)定、質(zhì)量可靠、抗干擾能力強，可適應(yīng)于 24 小時長期連續(xù)工作的應(yīng)用場合。 VK1651概述 VK1651 是一種帶鍵盤掃描接口的 LED（發(fā)光二極管顯示器）驅(qū)動控制專用電路，內(nèi)部集 成有 MCU 數(shù)字接口、數(shù)據(jù)鎖存器、LED 高壓驅(qū)動、鍵盤掃描等電路。本產(chǎn)品性能優(yōu)良，質(zhì)量可靠。主要應(yīng)用于電磁爐。微波爐及小家電產(chǎn)品的顯示屏驅(qū)動。 VK1668概述 VK1668 是 1/5～1/8 占空比的 LED 顯示控制驅(qū)動電路。由 10 根段輸出、4 根柵輸出、3 根段/柵輸出，1 個顯示存儲器、控制電路、鍵掃描電路組成了一個高可靠性的單片機外圍 LED 驅(qū)動電路。串行數(shù)據(jù)通過4線串行接口輸入到 VK1668采用 SOP24 的封裝形式。 VK6932概述 VK6932 是一款 LED（發(fā)光二極管顯示器）驅(qū)動控制專用電路，內(nèi)部集成有 MCU 數(shù)字接口、數(shù)據(jù)鎖存器、LED 高壓驅(qū)動。本產(chǎn)品采用 CMOS 工藝，主要應(yīng)用于 LED 顯示屏驅(qū)動。 VK16K33 概述 --- RAM映射16*8 LED控制器驅(qū)動器，帶按鍵控制 VK16K33是一個內(nèi)存映射和多功能LED控制器驅(qū)動程序。更大顯示設(shè)備中的段是128個模式（16個seg 和 8個COM），矩陣鍵為13*3（更大值）。掃描路。VK16K33的軟件配置特點使其適用于多個LED應(yīng)用包括LED模塊和顯示子系統(tǒng)。VK16K33與大多數(shù)微控制器兼容，并且通過雙線雙向I2c總線進行通信。 內(nèi)存映射的LED控制器及驅(qū)動器 VK1628 --- 通訊接口:STB/CLK/DIO 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:70/52 共陰驅(qū)動:10段7位/13段4位 共陽驅(qū)動:7段10位 按鍵:10x2 封裝SOP28 VK1629 --- 通訊接口:STB/CLK/DIN/DOUT 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:128 共陰驅(qū)動:16段8位 共陽驅(qū)動:8段16位 按鍵:8x4 封裝QFP44 VK1629A --- 通訊接口:STB/CLK/DIO 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:128 共陰驅(qū)動:16段8位 共陽驅(qū)動:8段16位 按鍵:--- 封裝SOP32 VK1629B --- 通訊接口:STB/CLK/DIO 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:112 共陰驅(qū)動:14段8位 共陽驅(qū)動:8段14位 按鍵:8x2 封裝SOP32 VK1629C --- 通訊接口:STB/CLK/DIO 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:120 共陰驅(qū)動:15段8位 共陽驅(qū)動:8段15位 按鍵:8x1 封裝SOP32 VK1629D --- 通訊接口:STB/CLK/DIO 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:96 共陰驅(qū)動:12段8位 共陽驅(qū)動:8段12位 按鍵:8x4 封裝SOP32 VK1640 --- 通訊接口: CLK/DIN 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:128 共陰驅(qū)動:8段16位 共陽驅(qū)動:16段8位 按鍵:--- 封裝SOP28 VK1640B -- 通訊接口: CLK/DIN 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:96 共陰驅(qū)動:8段12位 共陽驅(qū)動:12段8位（封裝小，價格低）封裝SSOP24 VK1650 --- 通訊接口: SCL/SDA 電源電壓:5V(3.0～5.5V) 驅(qū)動點陣:8x16 共陰驅(qū)動:8段4位 共陽驅(qū)動:4段8位 按鍵:7x4 封裝SOP16/DIP16 VK1651 --- 通訊接口: SCL/SDA 電源電壓:5V(3.0～5.5V) 驅(qū)動點陣:8x14 共陰驅(qū)動:7段4位 共陽驅(qū)動:4段7位 按鍵:7x4 封裝SOP16/DIP16 VK1668 ---通訊接口:STB/CLK/DIO 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:70/52 共陰驅(qū)動:10段7位/13段4位 共陽驅(qū)動:7段10位 按鍵:10x2 封裝SOP24 VK6932 --- 通訊接口:STB/CLK/DIN 電源電壓:5V(4.5～5.5V) 驅(qū)動點陣:128 共陰驅(qū)動:8段16位17.5/140mA 共陽驅(qū)動:16段8位 按鍵:--- 封裝SOP32 VK16K33 --- 通訊接口:SCL/SDA 電源電壓:5V(4.5V～5.5V) 驅(qū)動點陣:128/96/64 共陰驅(qū)動:16段8位/12段8位/8段8位 共陽驅(qū)動:8段16位/8段12位/8段8位 按鍵:13x3 10x3 8x3 封裝SOP20/SOP24/SOP28 聯(lián) 系 人：許先生 聯(lián) 系 QQ：191 888 5898 聯(lián)系手機：188 9858 2398
標(biāo)簽： 1628 1629 1640 1651 1650 LED VK 面板 芯片 版本
上傳時間： 2019-02-16
上傳用戶：szqxw1688
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