UDK3中文资料

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uPSD3333D-40U6中文资料

1/9DATA BRIEFINGJanuary 2005For further information contact your local ST sales office.uPSD33xxTurbo SeriesFast 8032 MCU with Programmable LogicFEATURES SUMMARY■FAST 8-BIT TURBO 8032 MCU, 40MHz –Advanced core, 4-clocks per instruction –10 MIPs peak performance at 40MHz (5V)–JTAG Debug and In-SystemProgramming–Branch Cache & 6 instruction PrefetchQueue–Dual XDATA pointers with auto incr & decr –Compatible with 3rd party 8051 tools ■DUAL FLASH MEMORIES WITH MEMORY MANAGEMENT–Place either memory into 8032 programaddress space or data address space –READ-while-WRITE operation for In-Application Programming and EEPROM emulation–Single voltage program and erase–100K guaranteed erase cycles, 15-yearretention■CLOCK, RESET, AND SUPPLY MANAGEMENT–SRAM is Battery Backup capable–Flexible 8-level CPU clock divider register –Normal, Idle, and Power Down Modes –Power-on and Low Voltage resetsupervisor–Programmable Watchdog Timer ■PROGRAMMABLE LOGIC, GENERAL PURPOSE–16 macrocells–Create shifters, state machines, chip-selects, glue-logic to keypads, panels, LCDs, others■COMMUNICATION INTERFACES–I 2C Master/Slave controller, 833KHz –SPI Master controller, 10MHz–Two UARTs with independent baud rate –IrDA protocol support up to 115K baud –Up to 46 I/O, 5V tolerant on 3.3VuPSD33xxV■A/D CONVERTER–Eight Channels, 10-bit resolution, 6µs ■TIMERS AND INTERRUPTS–Three 8032 standard 16-bit timers–Programmable Counter Array (PCA), six16-bit modules for PWM, CAPCOM, and timers–8/10/16-bit PWM operation–11 Interrupt sources with two externalinterrupt pins■OPERATING VOLTAGE SOURCE (±10%)–5V devices use both 5.0V and 3.3Vsources– 3.3V devices use only 3.3V sourceuPSD33xx2/9Table 1. Device SummaryPart Number 1st Flash (bytes)2nd Flash (bytes)SRAM (bytes)GPIO 8032 Bus V CC V DD Pkg.Temp.uPSD3312D-40T664K 16K 2K 37No 3.3V 5.0V TQFP52–40°C to 85°C uPSD3312DV-40T664K 16K 2K 37No 3.3V 3.3V TQFP52–40°C to 85°C uPSD3333D-40T6128K 32K 8K 37No 3.3V 5.0V TQFP52–40°C to 85°C uPSD3333DV-40T6128K 32K 8K 37No 3.3V 3.3V TQFP52–40°C to 85°C uPSD3333D-40U6128K 32K 8K 46Yes 3.3V 5.0V TQFP80–40°C to 85°C uPSD3333DV-40U6128K 32K 8K 46Yes 3.3V 3.3V TQFP80–40°C to 85°C uPSD3334D-40U6256K 32K 8K 46Yes 3.3V 5.0V TQFP80–40°C to 85°C uPSD3334DV-40U6256K 32K 8K 46Yes 3.3V 3.3V TQFP80–40°C to 85°C uPSD3354D-40T6256K 32K 32K 37No 3.3V 5.0V TQFP52–40°C to 85°C uPSD3354DV-40T6256K 32K 32K 37No 3.3V 3.3V TQFP52–40°C to 85°C uPSD3354D-40U6256K 32K 32K 46Yes 3.3V 5.0V TQFP80–40°C to 85°C uPSD3354DV-40U6256K32K32K46Yes3.3V3.3VTQFP80–40°C to 85°CuPSD33xx SUMMARY DESCRIPTIONThe Turbo uPSD33xx Series combines a powerful 8051-based microcontroller with a flexible memory structure, programmable logic, and a rich periph-eral mix to form an ideal embedded controller. At its core is a fast 4-cycle 8032 MCU with a 6-byte instruction prefetch queue (PFQ) and a 4-entry ful-ly associative branching cache (BC) to maximize MCU performance, enabling loops of code in smaller localities to execute extremely fast.Code development is easily managed without a hardware In-Circuit Emulator by using the serial JTAG debug interface. JTAG is also used for In-System Programming (ISP) in as little as 10 sec-onds, perfect for manufacturing and lab develop-ment. The 8032 core is coupled to Programmable System Device (PSD) architecture to optimize the 8032 memory structure, offering two independent banks of Flash memory that can be placed at vir-tually any address within 8032 program or data ad-dress space, and easily paged beyond 64K bytes using on-chip programmable decode logic. Dual Flash memory banks provide a robust solution for remote product updates in the field through In-Ap-plication Programming (IAP). Dual Flash banks also support EEPROM emulation, eliminating the need for external EEPROM chips. General pur-pose programmable logic (PLD) is included to build an endless variety of glue-logic, saving exter-nal logic devices. The PLD is configured using the software development tool, PSDsoft Express, available from the web at /psm, at no charge. The uPSD33xx also includes supervisor functions such as a programmable watchdog timer and low-voltage reset.3/9uPSD33xxPIN DESCRIPTIONSNote: 1.For 5V applications, V DD must be connected to a 5.0V source. For 3.3V applications, V DD must be connected to a 3.3V source.2.These signals can be used on one of two different ports (Port 1 or Port 4) for flexibility. Default is Port1.3.V REF and 3.3V AV CC are shared in the 52-pin package only. ADC channels must use AV CC as V REF for the 52-pin package.4/9uPSD33xxNote: 1.For 5V applications, V DD must be connected to a 5.0V source. For 3.3V applications, V DD must be connected to a 3.3V source.2.These signals can be used on one of two different ports (Port 1 or Port 4) for flexibility. Default is Port1.5/9uPSD33xx6/9Table 2. Major ParametersParameterTest Conditions/Comments5.0V Value 3.3V Value Unit Operating Voltage – 4.5 to 5.5 (PSD);3.0 to 3.6 (MCU)3.0 to 3.6(PSD and MCU)V Operating Temperature ––40 to 85–40 to 85°C MCU Frequency8MHz (min) for I 2C 1 Min, 40 Max1 Min, 40 MaxMHz Active Current, Typical (20% of PLD used; 25°C operation)40MHz Crystal, T urbo 5040mA 40MHz Crystal, Non-Turbo 4838mA 8MHz Crystal, Turbo 2118mA 8MHz Crystal, Non-Turbo 108mA Idle Current, Typical(20% of PLD used; 25°C operation)40MHz Crystal divided by 2048internally.All interfaces are disabled.1611mA Standby Current, Typical Power-down Mode needs reset to exit.140120µA SRAM Backup Current, T ypical If external battery is attached.0.50.5µA I/O Sink/Source Current,Ports A, B, C, and D V OL = 0.45V (max);V OH = 2.4V (min)I OL = 8 (max);I OH = –2 (min)I OL = 4 (max);I OH = –1 (min)mA I/O Sink/Source Current,Port 4V OL = 0.6V (max);V OH = 2.4V (min)I OL = 10 (max);I OH = –10 (min)I OL = 10 (max);I OH = –10 (min)mA PLD Macrocells For registered or combinatorial logic 1616–PLD Inputs Inputs from pins, feedback,or MCU addresses6969–PLD OutputsOutput to pins or internal feedback 1818–PLD Propagation Delay, Typical, Turbo ModePLD input to output1522nsuPSD33xx PART NUMBERINGTable 3. Ordering Information SchemeExample:uPSD3334D V–40U6TDevice TypeuPSD = Microcontroller PSDFamily33 = T urbo coreSRAM Size1 = 2Kbyte3 = 8Kbyte5 = 32KbyteMain Flash Memory Size2 = 64Kbyte3 = 128Kbyte4 = 256KbyteIP MixD = IP Mix: I2C, SPI, UART (2), IrDA, ADC, Supervisor, PCAOperating Voltageblank = V CC = 4.5 to 5.5VV = V CC = 3.0 to 3.6VSpeed–40 = 40MHzPackageT = 52-pin TQFPU = 80-pin TQFPTemperature Range6 = –40 to 85°CShipping Optio nTape & Reel Packing = TFor a list of available options (e.g., Speed, Package) or for further information on any aspect of this device, please contact the ST Sales Office nearest to you.7/9uPSD33xxREVISION HISTORYTable 4. Document Revision HistoryDate Version Revision Details July 1, 2003 1.0First Issue14-Sep-04 2.0Reformatted; updated with version 4.0 datasheet 21-Jan-05 3.0Updated with version 6.0 datasheet8/9uPSD33xx Information furnished is believed to be accurate and reliable. However, STMicroelectronics assumes no responsibility for the consequencesof use of such information nor for any infringement of patents or other rights of third parties which may result from its use. No license is granted by implication or otherwise under any patent or patent rights of STMicroelectronics. Specifications mentioned in this publication are subject to change without notice. This publication supersedes and replaces all information previously supplied. STMicroelectronics products are notauthorized for use as critical components in life support devices or systems without express written approval of STMicroelectronics.The ST logo is a registered trademark of STMicroelectronics.All other names are the property of their respective owners© 2005 STMicroelectronics - All rights reservedSTMicroelectronics group of companiesAustralia - Belgium - Brazil - Canada - China - Czech Republic - Finland - France - Germany - Hong Kong - India - Israel - Italy - Japan - Malaysia - Malta - Morocco - Singapore - Spain - Sweden - Switzerland - United Kingdom - United States of America9/9。

K3主要表结构与关联

K/3系统管理员培训－－K/3主要表结构与关联关系K/3主要模块数据库结构及问题分析一、总帐系统✓1.基础资料✓2.初始化及余额表✓3.凭证处理✓4.结帐基础资料相关数据表⏹计量单位组/单位 (t_measureunit/ t_unitgroup)⏹币别 (t_currency)⏹凭证字 (t_vouchgroup)⏹科目 (t_account)⏹核算项目类别/核算项目 (t_itemclass/t_item)⏹核算项目属性 (t_ItemPropDesc)计量单位组/单位 (t_measureunit/ t_unitgroup)⏹常用的字段为Fmeasureunitid（计量单位内码），tnitgroupid(计量单位组内码)，Fstandard（是否基本计量单位）。

⏹在一个计量单位组内，只能有一个基本计量单位，即Funitgroupid 字段值相同的记录，只能有一条记录的Fstandard字段值为1，如果一个组内有两个Fstandard=1的计量单位，则会造成一些报表数据翻倍。

⏹K3中有很多表引用“计量单组ID”和“计量单位ID”，比如科目、凭证、物料、物流单据、余额表及BOM等等。

一旦t_UnitGroup或t_MeasureUnit丢失记录(包括零记录)，对引用表来说就产生了“孤立数据”。

币别t_currency，常用到的字段为FcurrencyID（币别内码），FFixRate（换算率），Fscale（小数位数）等等；⏹ FcurrencyID（币别内码）：系统默认记帐本位的FcurrencyID值为1⏹ Fscale（小数位数）：在中间层帐套管理中可设置本位币小数点位数，即FcurrencyID值为1的记录对应的Fscale值；凭证字t_vouchgroup，常用的字段为FgroupID（凭证字内码），一般被t_voucher（凭证表）引用⏹t_account，主要字段为FAccountID(科目内码)，FfullName(科目全名)，FQuantity(是否数量金额辅助核算), FMeasureUnitID（计量单位内码），FDetailid(核算项目内码)等。

3W3中文手册(通用)

U n i n t e r r u p t i b l eP o w e r S u p p l y用户手册U S E R′S M A N U A L10-40KVA三相输出Three-phase Outputpag. 2 / 29安全规范注意事项本手册包含安装与操作本产品的说明.。

请在安装前由经过专业训练的人员详细阅读本手册。

因为本手册包含基本的使用说明。

请妥善保存！安全规范■ 本产品安装时必须接地请确保地线牢固地索附在有右图标示的接地铜条上：■ 所有关于本产品内部的维修保养工作必须由经过专业训练的人员操作■ 在需要更换保险丝的情形时,请更换同样型式与规格的保险丝(请参阅”设置输出入配线”章节). ■ 在必须切断UPS 的输入市电时,请断开前面板内的所有开关,或者经由UPS 的控制面板选择”SYSTEM OFF”电瓶更换必须由专业人员执行.更换之后的废电瓶请交由专业的废电的处置,因为电池内可能有对环境造成污染的物质!由于本产品不断的改良与研发,对于本手册内容有所修正时将不另行通知.欢迎您随时与我们联系以取得最新信息.电磁干扰要求本产品”不断电式电源供应器”(UPS),符合基本的电磁干扰要求:EMC 指令89/336e 92/31 a 93/68 ECC.使用说明警告:本产品属于A 等级的UPS.在居住的环境中,本产品可能会造成无线电干扰,此情况下,使用者可能必须采取适当的措施.例如:当电视或者收音机受到干扰时,可将本产品搬移到适当的距离以减少干扰情形.索引外观位置图 (5)储存 (5)安装环境 (6)前置作业 (6)安装环境 (6)安装位置 (6)设置输出入配线 (7)保护 (7)UPS内部 (7)UPS输入 (7)UPS 输出，短路与选择性 (7)差异 (8)配线与连接 (8)启动UPS前置作业 (8)市电与负载连接 (9)三相输出（输入：三相） (9)电瓶 (9)外接电瓶箱 (9)内接电瓶箱 (9)连接状况 (9)开机程序 (9)功能检查 (10)关机 (10)配置模式 (10)在线式（ON - LINE） (10)待机经济模式（STANDBY-ON operation） (10)操作模式 (11)电瓶操作模式（不属于稳压器配置模式） (11)旁路操作模式 (12)手动旁路维护模式 (12)维护 (13)UPS 部件 (13)输入 / 输出过滤器 (13)转换器 (13)pag. 3 / 29逆变器 (14)旁路 (14)SWMB (手动维护开关), SWIN, SWOUT (14)电瓶 (14)RS232 n.1 与 n. 2 介面 (14)讯号及指令面板 (14)EPO连接器 (15)规格 (16)系统 (16)转换器输入 (16)转换器输出 (17)电瓶 (17)输出逆变器 (17)旁路 (17)状态讯息显示 (18)概述 (18)警示灯号: LED (18)警告讯息 (19)控制面板 (20)基本选单 (20)Key menu 1, "?", HELP (20)Key menu 2 "测量" (20)Key menu 2, 2 : “输出测量” (21)Key menu 3 "KEY", 指令 (21)Key menu 3, 2: 电瓶测试 (21)Key menu 3, 5: 使用者自订 (22)Key menu 3, 5, 436215, 2: 工作模式和功率设定 (22)Key menu 3, 5, 436215,3:输出电压，旁路电压范围，旁路频率范围的设定 (22)Key menu 3, 5, 436215, 4:电池数量，电池浮充电压，电池容量设定 (22)Key menu 3, 5, 436215,5:电池定时自测试设定 (22)Key menu 3, 6: 逆变器关闭 / 切至旁路模式 (23)Key menu 3, 7: 系统完全关机设定 (23)Key menu 4:事件记录 (23)故障代码表 (25)附录 (27)尺寸 / 重量 (28)pag. 4 / 29pag. 5 / 29外观位置图1. 控制面板2. 上面板3. 前面板4. 滑轮5. 背面通风孔6. 散热孔7. 风扇网格 8. EPO 连接器9. REMOTE 连接器 10. RS232-2 通讯端口 11. RS232-1 通讯端口 12. 侧面板储存本产品的储存条件如下:温度:0°- 40°C (32°- 104°F) 相对湿度:< 95%UPS 内含电瓶时:UPS 内部的电瓶会因为化学变化而自我放电.假如您并非要立即使用本产品,请注意外装箱上标示的再充电日期(此标示只有在UPS 内含电瓶时才会有),并在期限内再充电!再充电只要提供UPS输入电源并开机限内再充电,保持在”正常模式”下运作至少24小时安装环境三相输出额定容量 [kVA] 10 15 20 30 40 操作温度0 ± 40 °C最大相对湿度95 % (无冷凝)最大操作高度4000m尺寸 (长 x 宽 x 高) [mm] 505 x 720 x 1140 505 x825 x 1215 UPS 重量100 114 120 126 140在标称负载及电瓶充电时的能量损失.[kW / kcal /B.T.U.]0.760024001.0490036001.39120048002.1180071002.824009600允许通过的空气流速（室内装置）[立方公尺/小时] 370 557 742 1100 1400 最大漏电流 (mA) < 100 mA保护等级IP20配线箱体底部前置作业本产品出厂时附有:- 保证书- 使用手册·-Nr. 3输入电瓶保险丝，-Nr. 2 输入电瓶箱保险丝（假如内接电瓶存在时）安装环境· 避免灰尘量太大,或者空气内有其它粉尘类的物质.· 确认安装的地板可以承受UPS以及电瓶箱的重量(请参照”尺寸与重量”章节) · 请检查安装的地点有足够的空间,不会造成日后维修的困扰· UPS操作时的环境必须在0-40℃之间.本产品可以在0-40℃之间正常操作.建议最佳的UPS与电瓶操作温度是20-25℃之间.事实上,电瓶在20℃下的平均寿命是4年,而在30℃之下则寿命会减半.· 避免阳光直接照射及靠近热源.为了保持安装环境的温度如上所述,请装设适当的排热系统(请参照“规格”章节确认kcal/kW/B.T.U.参考值).你可以参考下列的做法:· 自然散热;· 强制散热:当外界温度(例如20℃比UPS的操作环境低(例如25℃);· 空调设备:当外界温度(例如30℃比UPS的操作环境高(例如25℃)安装位置对于安装位置请注意下列事项:• UPS 的前面板请留至少1公尺的空间以便日后维护方便.pag. 6 / 29• UPS后背板与墙壁间至少留下20公分的距离以保持散热风扇的排热效果;至少40公分以便维护.• 请勿放置任何物品于UPS的上方• 交流/直流输出入电源线可以从UPS的底部或者后方进入设置输出入配线保护UPS内部输出入的保护开关与保险丝如下所列(请查询方块图).更换保险丝时请依照下表所示的规格与型号.三相输出UPS开关及内部保护装置UPS型式开关保险丝[kVA] UPS输入UPS 输出 / 维护整流器输入保险丝电瓶保险丝旁路保险丝输入电流.输出电流.[A]SWIN SWOUT/SWMB FBAT FBY 最大值额定值10 32A(4P) 32A(4P) 25AgR(10x38)25A gR(10x38)25A gG(10x38) 18 14 15 32A(4P) 32A(4P) 32AgR(10x38)32A gR(10x38)32A gG(10x38) 26 2620 32A(4P) 32A(4P) 32AgR(10x38)32A gR(10x38)50A gR(14x51)32A gG(10x38) 35 3530 63A(4P) 63A(4P) 50AgR(14x51)50A gR(14x51)50A gG(14x51) 52 4440 80A(4P) 80A(4P) 63AgR(14x51)80A gR(14x51)63A gG(14x51) 70 61 UPS 输入.当安装输入保护装置时,请考量下列两种模式的最大可能电流:• 在"正常操作"模式, 由输入电源至整流器, “最大输入电流” 如上表所列.断路器在整流器输入位置, 如上表中的"SWIN".• 在"旁路操作"模式, 旁路的最大电流值由断路器"SWBY”保护.UPS 输出, 短路与选择性额定的输出入电流如上表所示.短路当 UPS的负载发生异常状况时,也就是短路,UPS将会经由限制供应的输出电流值做自我保护 (短路电流).视短路发生时的操作状况.可以分成两方面:• UPS 在正常模式下:UPS将马上切换到旁路模式,在保险丝动作前,电流值如同“旁路规格” 表所示.• UPS 在电瓶供电模式下:UPS 提供两倍的额定输出电流(0.1秒)选择性在正常操作模式下,选择性参照第二行。

迪伦技术N3 ELVIS III控制板用户指南说明书

User ManualQuanser Controls Board for NI ELVIS IIISetup and Configuration© 2018 Quanser Inc., All Rights ReservedPrinted in Markham, Ontario.This document and the software described in it are provided subject to a license agreement. LabVIEW and National Instruments are trademarks of National Instruments.All other trademarks or product names are the property of their respective owners. Additional Disclaimers: The reader assumes all risk of use of this resource and of all information, theories, and programs contained or described in it. This resource may contain technical inaccuracies, typographical errors, other errors and omissions, and out-of-date information. Neither the author nor the publisher assumes any responsibility or liability for any errors or omissions of any kind, to update any information, or for any infringement of any patent or other intellectual property right.Neither the author nor the publisher makes any warranties of any kind, including without limitation any warranty as to the sufficiency of the resource or of any information, theories, or programs contained or described in it, and any warranty that use of any information, theories, or programs contained or described in the resource will not infringe any patent or other intellectual property right. THIS RESOURCE IS PROVIDED “AS IS.” ALL WARRANTIES, EITHER EXPRESS OR IMPLIED, INCLUDING, BUT NOT LIMITED TO, ANY AND ALL IMPLIEDWARRANTIES OFMERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE, AND NON-INFRINGEMENT OF INTELLECTUAL PROPERTY RIGHTS, ARE DISCLAIMED. No right or license is granted by publisher or author under any patent or other intellectual property right, expressly, or by implication or estoppel.IN NO EVENT SHALL THE PUBLISHER OR THE AUTHOR BE LIABLE FOR ANY DIRECT, INDIRECT, SPECIAL, INCIDENTAL, COVER, ECONOMIC, OR CONSEQUENTIAL DAMAGES ARISING OUT OF THIS RESOURCE OR ANY INFORMATION, THEORIES, OR PROGRAMS CONTAINED OR DESCRIBED IN IT, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGES, AND EVEN IF CAUSED OR CONTRIBUTED TO BY THE NEGLIGENCE OF THE PUBLISHER, THE AUTHOR, OR OTHERS. Applicable law may not allow the exclusion or limitation of incidental or consequential damages, so the above limitation or exclusion may not apply to you.Safety InformationThe following symbols and definitions are interchangeably used throughout the User Manual:SymbolDescriptionCaution: consult documentation for additional information Attention: Observe precautions for handling electrostatic sensitivedevicesThe Quanser Controls BoardThe Quanser Controls board, pictured in Figure 1 is a complete platform for investigating almost all aspects of modern control theory from system modeling and PID control to stability and digital control design. The system consists of a deterministic DC motor with a high-resolution encoder, as well as a pendulum attachment for balance control. Complete courseware and software is provided for a large compliment of typical control challenges.Figure 1: The Quanser Controls boardMain Features•Direct-drive brushed DC motor•512 count encoder mounted on the motor (giving 2048 count granularity with quadrature decoding), and on the pendulum arm•Built in deterministic PWM amplifier mapped to theoretical motor models•DC motor current senseCautionThis equipment is designed to be used for educational and research purposes and is not intended for use by the general public. The user is responsible to ensure that the equipment will be used by technically qualified personnel only.System Hardware ComponentsThe major components of the application board are identified in Figure 3.Table 1: Application board hardware componentsID Component IDComponent1Inertia Load 4PCI Connector for interfacing with NIELVIS III2 DC motor and encoder 5 Pendulum encoder (optional)3Pendulum encoder connector6Pendulum encoder data cable(optional)Figure 3: Quanser mechatronic systems board components1456DC MotorThe application board includes a direct-drive brushed DC motors to drive either the inertia load or pendulum arm. The motor specifications are given in Table 2.The included motor is a Premotec CL40 Series Coreless DC Motors. The complete specification sheet for the motor is available from Allied Motion.Caution Exposed moving parts.EncoderThe encoders used to measure the angular position of the motor and pendulum are single-ended, optical shaft encoders. They output 2048 counts per revolution in quadrature mode (512 lines per revolution).The included encoders are the US Digital E8P-512-118 single-ended optical shaft encoder. The complete specification sheet of the encoders is available from US Digital. EnvironmentalThe QNET Mechatronic Systems is designed to function under the following environmental conditions:•Standard rating•Indoor use only•Temperature 5◦C to 40◦C•Altitude up to 2000 m•Maximum relative humidity of 80% up to 31◦C decreasing linearly to 50% relative humidity at 40◦C•Pollution Degree 2•Maximum transient overvoltage 2500 V•Marked degree of protection to IEC 60529: Ordinary Equipment (IPX0)System ParametersTable 2: Application board system parametersSymbol Description ValueDC MotorV nom Nominal motor voltage 18.0 V τnom Nominal motor torque 22.0 Nmm ωnom Nominal speed 3050 RPMI nom Nominal current 0.540 AR m Terminal resistance 8.4 Ωk t Torque constant 0.042 Nm/A k m Motor back-emf constant 0.042 V/(rad/s) J m Rotor inertia 4.0 x 10-6 kgm2 L m Rotor inductance 1.16 mH ϴE Encoder count angle (in quadrature) 0.176 deg m h Module attachment hub mass 0.0106 kg r h Module attachment hub radius 0.0111 m J h Module attachment moment of inertia 0.6 x 10-6 kg-m2 Inertia Discm d Disc mass 0.053 kg r d Disc radius 0.0248 m Rotary Pendulum Module (Optional)m r Rotary arm mass 0.095 kg L r Rotary arm length 0.085 m m p Pendulum link mass 0.024 kg L p Pendulum link length 0.129 m System SetupThe procedure to set up the Quanser Controls board on the NI ELVIS III module is detailed in this section.Caution If the equipment is used in a manner not specified by themanufacturer, the protection provided by the equipmentmay be impaired.ESDWarningThe electrical components on the Quanser Mechatronic Systems board are sensitive to electrostatic discharge (ESD). Before handling the board ensure that you have been properly grounded.Figure 3: Components of the NI ELVIS IIIID ComponentIDComponent 1Antenna connector 6 Connection data screen 2 Ethernet connector 7 PCI connector 3 USB C connector 8 Handle latching hooks 4 Power cable 9 Status LEDs 5Power switch10 Application board power buttonCautionDo NOT make the following connections while power issupplied to the application board!Follow these instructions to setup the application board on the NI ELVIS III:61 2 34 5109781. Power on the ELVIS III2. Connect the ELVIS III to the network or to your computer via USB C3. Ensure the LED on the application board power button is NOT lit4. Position the handle of the application board over the handle latching hooks5. Position the PCI connector on the application board so that it aligns with the PCIconnector on the ELVIS III6. Push the application board upward until the PCI connector is firmly seated7. Press the application board power button and ensure the LED on the button is lit TroubleshootingPlease review the following before contacting technical support.1. Verify the board is properly seated on the ELVIS III and that it has power.2. Verify that the ELVIS III is correctly set up as outlined in the NI productdocumentation.You are getting 'VI Missing' messagesMake sure the required LabVIEW add-ons listed in the Quick-Start Guide are installed. Verify that the correct LabVIEW version is installed (The ELVIS III is only compatible with LabVIEW 2018 or later).Board does not respondCheck that the source distribution has been deployed as outlined above.。

K3工业物流讲义.pptx

12
K3工业物流讲义
基础数据—条形码管理
＆条形码提供便捷录入单据的功能。可一品一码，一品多码；也可等同‘商品代码’，也可用解析码
＆设置条码规则，设置单据关联，在单据界面设置条码解析
13
K3工业物流讲义
基础数据—物料对应表
物料对应管理在系统中的主要应用就是在业务单据及相应序时簿处理时同步处理供应商对应物料和客户对应物料信息，以保证供应商的货物信息及时形成采购业务信息，以及销售业务信息及时传递给客户
7
K3工业物流讲义
基础数据—资料设置
＆基础资料是金蝶K/3系统进行管理所必须的各项基础数据的总称，在系统中具体包括科目、账号、币别等各种核算项目和辅助资料等。
＆核算项目包括客户、部门、职员、物料、供应商等。很多属性需求在初始化前必须设置明确，如客户是否启用信用管理，物料应该采用哪种计价方法等。
销售业务
20
K3工业物流讲义
委外加工业务
＆委外加工发出＆委外加工入库＆采购发票（委外加工类型）＆费用发票＆委外加工核销＆委外加工钩稽＆凭证处理
21
K3工业物流讲义
委外加工流程
委外加工出库核销委外加工入库钩稽加工费发票
发出
委外入库
加工费
钩稽
钩稽
费用发票
其他费用
22
K3工业物流讲义
＆ K/3工业供需链对销售价格进行了基本信息处理，保证了用户对销售价格的基本要求。
＆系统提供的价格管理包括价格、折扣信息的传递、即时获取、共享、自动更新和限价预警等多项功能。
11
K3工业物流讲义
基础数据—批号管理
批号可以按每个采用业务批次管理的物料分别设置批号编码，也可以按每组物料或全部物料统一设置批号编码。每个编码设置又可以包括多个属性的确定，如当前往来单位、当前物料、日期等，这样就可以携带单据上多种不同信息，实现了编码的自定义设置。

udk教程

原文见/bbs/viewthread.php?tid=5第一步：首先，我们从主页下载最新版（此文以UDK-2010-01版为例）安装完成后，我们找到UDK-2010-01文件夹，对其复制粘贴创建一个副本，将目录名改成你喜欢的名字，比如我创建为KingdomWorld，以后文章都以KingdomWorld为例。

(以下步骤将对其进行大量修改，创建副本的目的是为了保留原版)第二步2.1.进入KingdomWorld\Development\Src目录，找到UTGameContent文件夹将其全部删除。

2.2.进入KingdomWorld\Development\Src\UTGame目录，删除UTStats.uci以及Classes文件夹下面的所有文件，但是保留Classes文件夹。

2.3.进入KingdomWorld\Development\Src\UTGame\Classes目录，创建一个do_not_delete.uc，键入以下内容1.class do_not_delete extends object;2.defaultproperties3.{4.}复制代码创建此文件的目的是因为让UTGame目录顺利编译成UTGame.u文件，因为UDK 免费版的原因，启动编辑器和游戏他会自动寻找UTGame.u文件，所以此包无法全部删除（除非你有源代码级授权，就可以修改UTGame目录指向）第三步进入KingdomWorld\UTGame\Content目录，删除所有文件KingdomWorld\UTGame\Content\Maps\EnvyEntry.udk 文件和KingdomWorld\UTGame\Content\UI\UI_Fonts_Final.upk文件除外，这两个是系统需要的底层pak 包，字体和空场景，最好别删。

第四步由于我们已经删除了所有关于原始的UTGame的资源和代码文件，现在的文件夹已经相对于来说是非常干净的了，那么，我们需要重新制作一个类似于c++里面的main函数，因为UTGame目录已经被我们咔嚓掉了。

UDEC3.0中文手册33-63

－33－
特殊的几何参数对力学特性产生的影响可以进行定量描述。同时，在获得现场观测的节理模式情况下，采用人工模式与观测模式相匹配方法决定生成的参数。一个节理组可以通过 8 个生成参数表述： 4 个几何参数的均值和 4 个随机参数的均方差。由 JSET 命令给出的参数如下： JSET a m、a d 、t m、t d 、g m、g d 、s m、s d < x0、y 0 >< ad 0 > 在此， a －节理与 x 轴的夹角；
(K + 4 3 G max ∆z min
在式中， K 、 G －分别是体积模量和剪切模量；
－34－
理论与背景第 1.1.3 节中的 range 关键词的描述。在大部分情况下，通过 jregion n 关键词定义各种区域，在此 n 是指定 JREGION 命令的参考序号 id。 JREGION 定义了一个凸多边形区域来限制节理组的生成范围。该命令参数如下： JREGION id n x1 y1 x2 y2 x3 y3 x4 y4 <delete> 每一个节理区域是通过 id 序号识别。区域的坐标按顺时针方向定义了节理产生的边界。如果给出选择的关键词 delete ，在此之前由 JSET、VORONOI 或 CRACK 命令生成的节理将全部被删除。这可避免当指定多个节理区域情况下，被相邻区域产生的节理所切割。其他相对于 JSET 命令（即 mat n ）的关键词 range 也能用来限制块体被切割。如果对 JSET 命令没有指定范围，将产生遍及整个区域的节理。 JSET 生成器也可能通过设定很大的 t m 和 s m 值用来产生贯穿 UDEC 块体的一条节理。请记住， JSET 能够产生不连续节理。不连续节理完全处在块体里边不能看见。当一个变形块体开始生成单元或当一个刚体模型开始运行时，所有的节理段将被删除。 3.2.2.2 VORONOI 多边形生成器 VORONOI 生成器产生随机大小的多边形块体。 UDEC 模型中的一个或多个块体能够在细分成任意大小的 Voronoi 子块。该节理生成器对模拟裂缝扩展是有用的。当 Voronoi 块体间的节理强度被超过时将发生断裂。 VORONOI 命令具有下列形式： VORONOI edge l < iterations n> <round v> < range … > 对于 Voronoi 多边形指定平均棱长。多边形具有随机尺寸，但具有平均棱长 l 。 Voronoi 块体的大小尺寸能够通过增加迭代次数变得均匀缺省值 n=5 。也能指定圆角长度。圆角长度， v 必须至少小于块体棱长 l 的 20 倍。当应用 VORONOI 命令时，多边形区域应当略大于被细分的块体区域。这将抑制边界影响。Range 关键词在产生 Voronoi 块体区域的用法，与 JSET 命令具有相同的方式。 Voronoi 算法根据随机分布点从多边形区域开始。然后允许内部点移动。迭代过程运动到这些点。迭代步越高，点间距越均匀。接下来，所有点产生三角形。最后，通过做具有公共边所有三角形的垂直平分线，生成 Voronoi 多边形。多边形在所指定区域被其边界所截取。 3.2.2.3 例子为了说明节理的生成过程，下面给出了产生节理的几个例子。例 3.3 四组规则节理组 new ro 0.01 blo 0 0 0 20 20 20 20 0

K3操作手册解析

版本号：1.0密级：中级K/3项目操作手册信息科技有限公司2012年07月文档更新记录文档审核记录文档去向记录目录一、基础资料 (4)1、计量单位 (4)2、物料 (4)3、仓库 (8)4、仓位 (8)5、客户 (9)6、供应商： (10)7、部门和职员 (11)8、科目 (12)二、供应链业务 (14)1、采购管理 (14)2、销售管理 (17)3、仓库管理 (24)三、MPS及MRP计算 (26)1、 MPS计算 (26)2、 MRP计算 (32)四、MPS和MRP计划订单维护 (32)1、 MPS计划订单 (32)2、 MRP计划订单 (33)五、生产任务管理 (33)1、生产投料变更 (33)2、生产物料报废/补料 (34)3、任务单汇报/请检 (34)六、操作技巧 (35)一、基础资料1、计量单位新增计量单位“个”在K/3主界面点击【系统设置】——【基础资料】——【公共资料】——【计量单位】，点左边【计量单位】——【新增】打开计量单位组的新增界面，输入组名“个”，如图1.1.1图1.1.1然后点击【确定】，再点击右边空白后点击【新增】打开计量单位新增界面，输入代码“001”，名称“个”后点击确定。

图1.1.22、物料新增物料类别：一级类别产成品，二级类别 ODM，三级类别系列，四级类别炉头数1）、新增一级类别：【系统设置】——【基础资料】——【公共资料】——【物料】，点“新增”打开物料-新增界面，点【上级组】在代码输入‘C’，名称输入‘产成品’，如图1.2.1，然后【保存】；图1.2.1新增二级类别：点“C(产成品)”，点“新增”打开物料-新增界面，点【上级组】在代码输入‘C.D’，名称输入‘ODM’，如图1.2.2，然后【保存】；图1.2.2新增三级类别：点“D(ODM)”，点“新增”打开物料-新增界面，点【上级组】在代码输入‘C.D.81’，名称输入‘单炉、拉伸上、下盖低档炉’，如图1.2.3，然后【保存】；图1.2.3新增四级类别：点“81(单炉、拉伸上、下盖低档炉)”，点“新增”打开物料-新增界面，点【上级组】在代码输入‘C.D.81.1’，名称输入‘单炉头’，如图1.2.4，然后【保存】；图1.2.4新增物料：C.D.81.1.001，属性为配置类，使用的计量单位为台，放在二楼仓库-成品区，使用加权平均法计价，存货科目为1243，收入科目为5101成本科目为5401；在K/3主界面点击【系统设置】——【基础资料】——【公共资料】——【物料】，点【新增】打开物料新增界面，输入相应资料，如图1.2.5，图1.2.5在“物流资料”标签选择物料计价方法和相应的核算、收入、成本科目，如图1.2.6，图1.2.6在“计划资料”标签选择相应的计划策略、计划模式、订货策略，如图1.2.7，然后【保存】。

起亚k3用户手册+K3V10.3主生产计划管理系统用户手册

起亚k3用户手册 K3V10.3主生产计划管理系统用户手册导读：就爱阅读网友为您分享以下“K3V10。

3主生产计划管理系统用户手册”的资讯，希望对您有所帮助，感谢您对的支持！金蝶K/3 V10。

3主生产计划系统用户手册第3章主生产计划管理专题？？排序原则:1、按物料代码+日期排序：投放的采购申请单分录，先按物料代码升序排序,相同物料代码下，再按到货日期的升序排序.2、按供应商+物料代码排序：投放的采购申请单分录,先按供应商代码的升序排序，相同供应商代码下，再按物料代码1的升序排序.3、按日期+物料代码排序：投放的采购申请单分录，先按到货日期的升序排序，相同到货日期下，再按物料代码的升序排序.3。

4。

5仓库参数本部分参数是对MPS/MRP运算的仓库参数进行设置，这些参数将影响哪些仓库作为期初库存参加MPS/MRP计算.计划人员可以根据实际生产管理情况设置这些参数。

当计算参数中的‘考虑现有库存’参数选中时，本页签允许维护。

在‘本次计算MPS/MRP可用仓’列中打勾，勾选的这行仓库将参加现有库存的计算。

系统默认将仓库属性中“是否MPS/MRP可用仓"为是的仓库进行了勾选。

3.4。

6其他参数本部分参数是对MPS/MRP运算日志参数以及其他的一参数进行设置,这些参数将影响按哪些内容产生MPS/MRP日2志.同时本页签还包含一些不属于前面的参数分类的其他参数，这些参数对MPS/MRP计算有一定影响。

计划人员可以根据实际生产管理情况设置这些参数。

9 记录数据有效性检查描述:选中此参数后,在MPS/MRP日志中将记录进行BOM的嵌套检查、完整性检查、低位码维护的结论信息。

9 记录计算方案参数描述:选中此参数后，在MPS/MRP日志中将记录本次计算的方案参数信息。

9 记录需求单据信息:选中此参数后，在MPS/MRP日志中，将记录本次参与计算的销售订单或预测单的信息。

9 记录预计量单据信息:选中此参数后，在MPS/MRP日志中，将记录本次参与计算3的预计入/已分配业务的信息。

UDEC3.0中文手册1-32

目录1 引言 (1)1.1 总论 (1)1.2 与其他方法的比较 (2)1.3 一般特性 (2)1.4 应用领域 (3)2 开始启动 (4)2.1 安装和启动程序 (4)2.1.7 内存赋值 (4)2.1.9 运行UDEC (5)2.1.10 安装测试程序 (5)2.2 简单演示－通用命令的应用 (5)2.3 概念与术语 (6)2.4 UDEC模型：初始块体的划分 (8)2.5 命令语法 (9)2.6 UDEC应用基础 (10)2.6.1 块体划分 (10)2.6.2 指定材料模型 (16)2.6.2.1 块体模型 (16)2.6.2.2 节理模型 (17)2.6.3 施加边界条件和初始条件 (19)2.6.4 迭代为初始平衡 (21)2.6.5 进行改变和分析 (24)2.6.6 保存或恢复计算状态 (25)2.6.7 简单分析的总结 (25)2.8 系统单位 (26)3 用UDEC求解问题 (27)3.1 一般性研究 (27)3.1.1 第1步：定义分析模型的对象 (28)3.1.2 第2步：产生物理系统的概念图形 (28)3.1.3 第3步：建造和运行简单的理想模型 (28)3.1.4 第4步：综合特定问题的数据 (29)3.1.5 第5步：准备一系列详细的运行模型 (29)3.1.6 第6步：进行模型计算 (29)3.1.7 第7步：提供结果和解释 (30)3.2 产生模型 (30)3.2.1 确定UDEC模型合适的计算范围 (30)3.2.2 产生节理 (32)3.2.2.1 统计节理组生成器 (32)3.2.2.2 VORONOI多边形生成器 (34)3.2.2.3 例子 (34)3.2.3 产生内部边界形状 (35)3.3 变形块体和刚体的选择 (38)3.4 边界条件 (42)3.4.1 应力边界 (42)3.4.1.1 施加应力梯度 (43)3.4.1.2 改变边界应力 (44)3.4.1.3 打印和绘图 (44)3.4.1.4 提示和建议 (45)3.4.2 位移边界 (46)3.4.3 真实边界－选择合理类型 (46)3.4.4 人工边界 (46)3.4.4.1 对称轴 (46)3.4.4.2 截取边界 (46)3.4.4.3 边界元边界 (49)3.5 初始条件 (50)3.5.1 在均匀介质中的均匀应力：无重力 (50)3.5.2 无节理介质中具有梯度变化的应力：均匀材料 (51)3.5.3 无节理介质中具有梯度变化的应力：非均匀材料 (51)3.5.4 具有非均匀单元的密实模型 (52)3.5.5 随模型变化的初始应力 (53)3.5.6 节理化介质的应力 (54)3.5.7 绘制应力等值线图 (55)3.6 加载与施工模拟 (57)3.7 选择本构模型 (62)3.7.1 变形块体材料模型 (63)3.7.2 节理材料模型 (64)3.7.3 合理模型的选择 (65)3.8 材料性质 (71)3.8.1 岩块性质 (71)3.8.1.1 质量密度 (71)3.8.1.2 基本变形性质 (71)3.8.1.3 基本强度性质 (72)3.8.1.4 峰后效应 (73)3.8.1.5 现场性质参数的外延 (77)3.8.2 节理性质 (80)3.9 提示和建议 (81)3.9.1 节理几何形状的选择 (81)3.9.2 设计模型 (81)3.9.3 检查模型运行时间 (82)3.9.4 对允许时间的影响 (82)3.9.5 单元密度的考虑 (83)3.9.6 检查模型响应 (83)3.9.7 检查块体接触 (83)3.9.8 应用体积模量和剪切模量 (83)3.9.9 选择阻尼 (84)3.9.10 给块体和节理模型指定模型和赋值 (84)3.9.11 避免圆角误差 (85)3.9.12 接触嵌入 (85)3.9.13 非联结块体 (86)3.9.14 初始化变量 (86)3.9.15 确定坍塌荷载 (86)3.9.16 确定安全系数 (86)3.10 解释 (88)3.10.1 不平衡力 (88)3.10.2 块体/网格结点的速度 (88)3.10.3 块体破坏的塑性指标 (89)3.11 模拟方法 (89)3.11.1 有限数据系统模拟 (89)3.11.2 混沌系统的模拟 (90)3.11.3 局部化、物理的不稳定性和应力路径 (91)1 引言1.1 总论通用离散元程序（UDEC，Universal Distinct Element Code）是一个处理不连续介质的二维离散元程序。

UDK引擎命令行参数

虚幻引擎3命令行参数概述命令行参数是一连串的关键字字符串，当运行可执行文件时可以通过命令行或者可执行文件的快捷方式将其传入。

它们的目的是自定义引擎运行的方式，以便符合开发人员或用户的需要。

这可以像使得运行编辑器而不运行游戏那么简单;或它也可以更加复杂，比如使用某个特定的地图在指定的分辨率和帧频率下启动游戏，同时把每帧转存到一个单独的图像文件中。

模式--------------------------------------------------------------------------------这些参数强制使得主要的可执行命令以某种模式而不是正常的游戏模式运行，或者强制执行众多命令行开关中的一个，它们是一些执行和开发人员的相关的常见任务的较小的专用的应用程序。

它们紧跟在可执行文件名称的后面比那可以立即地被传入到可执行命令中，不需要额外的语法。

这些命令是大小写不敏感的。

示例:UDK.exe editor• Editor:启动编辑器• Server: 将游戏作为服务器运行地图/服务器/编辑器的URL 参数--------------------------------------------------------------------------------URLs可以传入到可执行命令中来强制游戏在启动时加载特定的地图。

这些参数也可以和SERVER或EDITOR模式结合使用来使用特定的地图运行编辑器或服务器。

传入URL参数是可选的，但是该参数必须紧跟在可执行命令名称的后面或者如果存在任何模式开关则紧跟在该模式开关的后面。

URL由两部分组成：地图名称或服务器IP地址以及一系列的可选的附加参数。

地图名称可以是使放在Maps目录中的任何地图的名称。

这里是否包含文件扩展名（也就是.udk 或.ut3）是可选的。

要想加载在Maps目录中不能找到的地图，那么可以使用来自于Maps目录的绝对路径或相对路径。

K3基础培训

如果只收到部分存货，但发票对方全额开具时，发票数量大于外购入库单数量，钩稽前需要在发票序时簿先将该发票进行拆分处理。同样，如果存货全部入库，但只收到部分采购发票，发票数量小于外购入库单数量，钩稽前需要在外购入库单序时簿先将外购入库单进行拆分处理。已经钩稽的发票可以通过反钩稽取消钩稽操作。
业务处理
虚拟件
虚拟形式的成套件
不控制
不能作为最明细级子项
不核算成本
BOM单的设置
功能—设置企业的BOM单（物料结构清单）注意要点：
– 主要运用于生产计划、生产成本管理系统。在供需链系统中，BOM主要用于虚拟件销售
– 会同有关部门共同确定 – 属性设置留有余地！便于扩充！
采购管理
采购管理
采购系统的功用：用以处理材料或商品的采购业
数量属性、往来属性、调汇、计息、辅助核算
注意要点：
科目编码留有余地！属性慎重对待！业务核算科目应与业务协调！
仓库的设置
功能—设置存放物料的仓库
注意要点：
最好按照性质建立仓库如：原材料仓库、半成品仓库、成品仓库。
仓库类型及含义
• 实仓：企业中有实物形态的，存储物料的仓库 • 虚仓: 指不具有仓库实体形态，但是代行仓库部分功
每个仓位组的所有仓位中可以有一个默认的仓位，该仓位是最明细的仓位，可以更换。
仓位不属于核算项目，只是仓库核算项目的附属属性，不能被会计科目等基础资料下挂，也不能按仓位进行存货核算。
客户资料设置
功能——设置客户档案、资料注意要点：
客户资料可以分级设置，用户可以从第一级到最明细级逐级设置。
案例：1月5日与LG公司签定采购合约，采购鼠标键盘50个，约定不含税单价为50 元。

U Genius3 用户手册说明书

Contents Page Contents PageChapter One-Introduction.......................................................................................1.1Applications supported....................................................................................1.2Hardware.........................................................................................................1.2.1Specification..........................................................................................1.2.2System Components............................................................................1.2.2.1UV transilluminator........................................................................1.2.2.2Filter draw......................................................................................1.2.2.3LCD Touch screen.........................................................................1.2.2.4USB Flash Drive............................................................................1.2.3Accessories...............................................................................................1.2.3.1Visible Light converter....................................................................1.2.3.2Blue LED transilluminator...............................................................1.2.3.3Thermal Printer...............................................................................1.2.3.4Analysis software..........................................................................1.2.4Set-up....................................................................................................... Chapter Two-Image Acquisition............................................................................2.1Capturing an image of an agarose EtBr or similar gel...................................2.2Capturing an image of a protein gel(coomassie,silver stained)or otherwhite light image(colony plate,autorad,microtitre plate etc)...................... Chapter Three-Saving/Opening and Printing Images..................................3.1Saving Images.............................................................................................3.2Opening Images...........................................................................................3.3Printing Images............................................................................................ Chapter Four-Image Enhancement................................................................4.1Image Enhancement...................................................................................4.2Annotate......................................................................................................4.3Digital Zoom................................................................................................ Chapter Five-User Preferences.......................................................................5.1Neutral Fielding...........................................................................................5.2Extended Dynamic Range(EDR).................................................................5.3External Keyboard........................................................................................5.4Regional Power Frequency Settings............................................................ Chapter Six-Troubleshooting and Contact Information..............................6.1Troubleshooting..........................................................................................6.2Contact Syngene........................................................................................1 1 1 1 2 3 3 3 3 3 3 3 4 4 4 5 5 7 9 9 9 9 10 11 12 13 14 14 15 15 16 16 16Chapter One-IntroductionThe U:Genius3system has been designed to make your gel imaging simple,quick and easy.This system is the perfect choice for a low budget gel imaging system and features a compact darkroom which has a sliding front door and internal LED white light.The U:Genius3system supports multiple applications including DNA/RNA gel imaging such as EtBr,SYBR Green and visible stained gels i.e.coomassie blue and silver stain.1.1Applications supportedTransilluminatorUV Visible LightConverterBlue LEDTransilluminatorEthidium Bromide SYBR Green SYBR Gold SYBR SafeGel GreenGel RedSYPRO Ruby Coomassie blue stainCopper stainZinc stainSilver stainSYBR GoldSYBR GreenSYBR SafeUltraSafe blue1.2Hardware1.2.1SpecificationCamera12/16bitCCD1/3inchZoom Manual zoom6.5-39,F1.4,aperture andfocusDisplay8”colour touch screenFilter Draw Yes UV filter as standardMax gel size20x20cmData types TIFF and JPEGCCD resolution3M pixelsImage storage USBImage enhancements Rotation and inversion,sharpen,smoothand many moreIllumination Slide in and out UV transilluminator,visiblelight converter and blue LED transilluminator(Ultra-Slim),Epi white LED1.2.2System Components1.2.2.1DarkroomThe darkroom has a sliding door.The darkroom features:∙Slide out mid wave302nm UV transilluminator∙Internal white light LED∙Safety switch to protect from accidental UV exposure1.2.2.3UV TransilluminatorThe UV transilluminator will excite many fluorescent stains such as Ethidium bromide,SYBR™stains,Gel Red™.The standard wavelength is302nm.To protect users from accidental exposure,the UV light is automatically shut off if the door is opened.The transilluminator can be slid easily in and out of the cabinet.1.2.2.4Filter DrawerInterchange a range of filters for extensive choice of fluorescent applications.1.2.2.5LCD Touch ScreenA built-in8inch VGA colour LCD touch-screen allows users to preview, capture,print and save images,as well as to select various processing functions,without the connection of an external keyboard or mouse.1.2.2.6USB Flash DriveThe USB flash drive on the front of the U:Genius3for the easy storage of images.1.2.3Accessories1.2.3.1Visible light converterSyngene offers a visible light converter that can beplaced on top of the UV transilluminator for imagingcoomassie and silver stained gels.1.2.3.2Blue LED transilluminatorThe UltraSlim blue LED transilluminator is ideal for safelyimaging gels stained with SYBR Safe,Gold and Green,GelGreen and UltraSafe blue.1.2.3.3Thermal printerYou may attach a thermal printer,either Mitsubishi P93D or Sony UPD897. When you first attach the printer you will see the following windowSelect‘No,not this time’and press Next buttonThe drivers will automatically install.1.2.3.4Analysis softwareThe U:Genius3system is supplied with a copy of GeneTools analysis software from Syngene.This may be loaded on a PC of your choice.Please see the loading instructions within the CD cover.1.2.4Set-upPlease refer to the Installation quick guide on how to set up the camera and darkroom.Chapter Two-Image Acquisition2.1Capturing an image of an agarose EtBr or similar gel(For rapid capture see Quick Guide-Capture)Step OnePosition the sample on the centre of the transilluminator,close the door, ensure the UV filter has been placed in the filter draw and then manually turn UV on by pressing the‘UV On’switch on the front of the unit.Then press the ‘Live’button icon.Figure1-LIVE view iconStep TwoManually adjust the camera settings such as the aperture,zoom and focus. Adjust the aperture,zoom and focus settings until a suitable image is displayed,preferably with the sample filling the screen for maximum resolution.Please note that opening the aperture too far may result in areas of the sample being saturated.Figure2-Lens controlStep ThreeThe exposure time can either be set manually or automatically.Adjusting the exposure time will alter the brightness of the image.To manually increase or decrease the exposure time use the following icons.Figure3-Manual Exposure controlsThe auto-exposure function sets the exposure time to a level that ensures no saturation of the image occurs.To use the auto-exposure function select the following icon.Figure4-Auto Expose iconStep FourTo capture the image press the Capture button.If you have selected auto-expose then you will not need to press the Capture button..Figure5-Capture button2.2Capturing an image of a protein gel(coomassie,silver stained)orother white light image(Colony plate,autorad,microtitre plate etc) Step OneMake sure that you place the visible light converter on top of the transilluminator.Position your sample on the centre of the visible light converter and close the door.Manually turn on UV by pressing the‘UV On’switch.Step TwoManually adjust the camera settings such as the aperture,zoom and focus. Adjust the aperture,zoom and focus settings until a suitable image is displayed,preferably with the sample filling the screen for maximum resolution.Please note that opening the aperture too far may result in areas of the sample being saturated.Figure6-Lens controlStep ThreeThe exposure time can either be set manually or automatically.Adjusting the exposure time will alter the brightness of the image.To manually increase or decrease the exposure time use the following icons.Figure7-Manual Exposure controlsThe auto-exposure function sets the exposure time to a level that ensures no saturation of the image occurs.To use the auto-exposure function select the following icon.Figure8-Auto Expose iconStep FourTo capture the image press the Capture button.If you have selected auto expose then you will not need to press the Capture button..Figure9-Capture button3.Saving/Opening and Printing Images Chapter Three-Saving/Opening and Printing Images3.1Saving imagesTo save a captured image press the‘Save’button.N.B.You can only save an image to a USB device or your local area network(LAN).Images can be saved in the following formats TIFF and JPEG.Figure10-Save Button3.2Opening ImagesFrom the front screen select‘Open Image’to browse captured images.Figure11-Open Images Icon3.3Printing ImagesIf you have a thermal printer attached to your U:Genius3press the following button.Figure12-Print buttonChapter Four-Image EnhancementThe U:Genius3system offers a variety of functions ranging from image enhancement to annotation.4.1Image enhancementTo access the enhance functions select the Enhance button via the Edit Menu button.From this menu you can select to smooth,sharpen,invert or rotate your image.Figure13-Enhance iconClick on this icon to apply a smoothing filter.This is usefulwhen the image has specks of dust or bubbles present.However,this will make bands appear less sharp.Click on this icon to apply a sharpening filter to yourimage.When this filter has been applied band edgesshould become more pronounced but you may alsoobserve an increase in the graininess of the image.The Invert icon will reverse the image to give black bandson a white background or vice versa.This icon isparticularly useful when trying to see faint bands.To freely rotate your images press the Rotate icon.Press the Undo button to remove any enhancement thatyou may have performed.Use the Back button to navigate between the menus.4.2AnnotateTo access the annotation functions select the Annotate button via the Edit Menu button.From this menu you can add text,change the font,select to have your text horizontal or vertical or remove text.Figure14-Annotate buttonUse this icon to add text to your image.Press or placethe mouse cursor on your image and type your text.To change the font style press this icon.If you wish to have your text displayed horizontally selectthis button.If you wish to have your text displayed vertically selectthis button.To remove any annotation select this button.Use the Back button to navigate between menus.4.3Digital ZoomTo zoom in or out on your image select the Zoom button from the screen once you have captured your image.Figure15-Zoom buttonDigitally zoom in on your image to see faint bands.Digitally zoom out on your sample.Zoom settings can reset at any time.Use the Back button to navigate between the menus.Chapter Five-User PreferencesTo access U:Genius3settings and set user preferences for neutral fielding, EDR,to view external keyboard and to set regional power frequency settings.Figure16-Preferences iconYou will be directed to a new screen(Figure17).Figure17-Preferences screen5.1Neutral fieldingThe neutral field function is based on powerful algorithms which corrects for uneven illumination.This results in an image with a flat,even background whilst maintaining GLP compliance.To neutral field check the box(Figure18) then follow the on-screen instructions(Figure19)Figure18-Neutral fielding buttonFigure19-Neutral fielding on-screen instructions5.2Extended Dynamic Range(EDR)Many gels contain areas that are too bright or too dark to be successfully captured.Closing the iris to cut down the light may prevent the viewing of dark or faint bands,whilst opening it may lead to saturation.EDR solves this problem by automatically capturing a series of images of different exposure times.The content of each image is assessed and those areas that are within the dynamic range of the camera are combined.The result is an image with a large dynamic range(up to65536grey levels)that encompasses all the brightness ranges existing within the sample without saturation.Figure20-EDR button5.3External KeyboardIf you wish to connect an external keyboard to the U:Genius3system select this button.Figure21-External Keyboard button5.4Regional Power Frequency SettingsSelect your regional power frequency settings-choose between50Hz or 60Hz.Figure22-Regional Power Frequency Settings buttons6.Troubleshooting and Contact Information Chapter Six-Troubleshooting and Contact Information6.1TroubleshootingNo power to the darkroom∙Check connection of main power cord to main power port on the rear of the U:Genius3.∙Try another power socket within lab.Transilluminator will not turn on∙Check power cord by sliding transilluminator fully out from cabinet.If loose push back in.∙If still not on,remove power cord and attach another one plugged in elsewhere.If transilluminator comes on there is an electrical supply problem within the U:Genius3.If it still does not come on it is likely the transilluminator has failed.Contact Syngene.6.2Contact SyngeneEUROPE:USA:BEACON HOUSE5108PEGASUS COURT,SUITE M NUFFIELD ROAD FREDERICKCAMBRIDGE MD21704CB41TFTel:+441223727123Tel:8006864407/130******** Fax:+441223727101Fax:3016313977Email:*****************Email:*******************。

MAX6313UK33D4中文资料

General DescriptionThe MAX6305–MAX6313 CMOS microprocessor (µP)supervisory circuits are designed to monitor more than one power supply. Ideal for monitoring both 5V and 3.3V in personal computer systems, these devices assert a system reset if any of the monitored supplies falls outside the programmed threshold. Low supply current (15µA) and a small package suit them for portable applications. The MAX6305–MAX6313 are specifically designed to ignore fast transients on any monitored supply.These devices are available in a SOT23-5 package,have factory-programmed reset thresholds from 2.5V to 5.0V (in 100mV increments), and feature four power-on reset timeout periods. Ten standard versions are avail-able. Contact the factory for availability of non standard versions.ApplicationsPortable Computers Computers ControllersIntelligent InstrumentsPortable/Battery-Powered Equipment Multivoltage Systems: 3V/5V, 5V/12V, 5V/24V Embedded Control SystemsFeatureso Small 5-Pin SOT23 Packageo Precision Factory-Set V CC Reset Thresholds;Available in 0.1V Increments from 2.5V to 5V o Immune to Short V CC Transientso Guaranteed RESET Valid to V CC = 1V o Guaranteed Over Temperature o 8µA Supply Currento Factory-Set Reset Timeout Delay from 1ms (min) to 1120ms (min)o No External Components o Manual Reset Inputo Under/Overvoltage Supply MonitoringMAX6305–MAX63135-Pin, Multiple-Input,Programmable Reset ICs________________________________________________________________Maxim Integrated Products119-1145; Rev 5; 4/08†The MAX6306/MAX6307/MAX6309/MAX6310/MAX6312/MAX6313 are available with factory-set V CC reset thresholds from 2.5V to 5V, in 0.1V increments. Insert the desired nominal reset threshold (from Table 1) into the blanks following the letters UK.All parts also offer factory-programmed reset timeout periods.Insert the number corresponding to the desired nominal timeout period index following the “D” in the part number (D1 = 1ms min,D2 = 20ms min, D3 = 140ms min, and D4 = 1120ms min). There are 10 standard versions with a required order increment of 2,500pieces. Sample stock is generally held on the standard versions only (see Standard Versions table). Required order increment is 10,000 pieces for non-standard versions. Contact factory for availability of non-standard versions. All devices available in tape-and-reel only.Devices are available in both leaded and lead-free packaging.Specify lead-free by replacing “-T” with “+T” when ordering.Pin Configurations and Typical Operating Circuit appear atend of data sheet.Ordering Information continued at end of data sheet.Standard Versions Table appears at end of data sheet._______________________________________________________________Selector TableFor pricing, delivery, and ordering information, please contact Maxim Direct at 1-888-629-4642,or visit Maxim’s website at .M A X 6305–M A X 63135-Pin, Multiple-Input, Programmable Reset ICsABSOLUTE MAXIMUM RATINGSELECTRICAL CHARACTERISTICSV CC = +2.5V to +5.5V for the MAX6305/MAX6308/MAX6311, V CC = (V TH + 2.5%) to +5.5V for the MAX6306/MAX6307/MAX6309/Stresses beyond those listed under “Absolute Maximum Ratings” may cause permanent damage to the device. These are stress ratings only, and functional operation of the device at these or any other conditions beyond those indicated in the operational sections of the specifications is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability.V CC ...........................................................................-0.3V to +6V All Other Pins..............................................-0.3V to (V CC + 0.3V)Input/Output Current, All Pins.............................................20mA Rate of Rise, V CC ............................................................100V/µs Continuous Power Dissipation (T A = +70°C)SOT23-5 (derate 7.1mW/°C above +70°C).................571mWOperating Temperature RangeMAX63_ _UK _ _D_-T.........................................0°C to +70°C MAX63_ _EUK _ _D_-T...................................-40°C to +85°C Storage Temperature Range.............................-65°C to +160°C Lead Temperature (soldering, 10sec).............................+300°CMAX6305–MAX63135-Pin, Multiple-Input, Programmable Reset ICs_______________________________________________________________________________________3ELECTRICAL CHARACTERISTICS (continued)V CC = +2.5V to +5.5V for the MAX6305/MAX6308/MAX6311, V CC = (V TH + 2.5%) to +5.5V for the MAX6306/MAX6307/MAX6309/Note 2: The MAX6305/MAX6308/MAX6311 switch from undervoltage reset to normal operation between 1.5V < V CC < 2.5V.Note 3: The MAX6306/MAX6307/MAX6309/MAX6310/MAX6312/MAX6313 monitor V CC through an internal factory-trimmed voltagedivider, which programs the nominal reset threshold. Factory-trimmed reset thresholds are available in approximately 100mV increments from 2.5V to 5V (Table 1).Note 4:Guaranteed by design.M A X 6305–M A X 63135-Pin, Multiple-Input, Programmable Reset ICs 4_________________________________________________________________________________________________________________________________Typical Operating Characteristics(V CC = +5V, T A = +25°C, unless otherwise noted.)5.05.56.06.57.07.58.08.59.09.5-60-40-2020406080100SUPPLY CURRENT vs. TEMPERATURETEMPERATURE (°C)S U P P L Y C U R R E N T (μA )01020304050607080-60-40-2020406080100V CC FALLING PROPAGATION DELAYvs. TEMPERATURETEMPERATURE (°C)P R O P A G A T I O N D E L A Y (n s )010203040506070-60-40-20020406080100OVRST IN RISING PROPAGATION DELAY vs. TEMPERATURE (OVERVOLTAGE RESET INPUT)TEMPERATURE (°C)P R O P A G A T I O N D E L A Y (n s )020406080100120-60-40-2020406080100RST IN_ FALLING PROPAGATION DELAY vs. TEMPERATURETEMPERATURE (°C)R S T I N _ P R O P A G A T I O N D E L A Y (n s )104001200800MAXIMUM TRANSIENT DURATION vs.VCC RESET THRESHOLD OVERDRIVE10OVERDRIVE, V TH - V CC (mV)T R A N S I E N T D U R A T I O N (μs )100100010,0000.900.920.940.960.981.001.021.041.061.081.10-60-40-20020406080100RESET TIMEOUT vs. TEMPERATURE6305 T O C 05TEMPERATURE (°C)N O R M A L I Z E D R E S E T T I M E O U T0.9900.9920.9940.9960.9981.0001.0021.0041.0061.0081.010-60-40-2020406080100RESET THRESHOLD vs. TEMPERATURE6305 T O C 06TEMPERATURE (°C)N O R M A L I Z E D R E S E T T H R E S H O L D (V /V )104001200800MAXIMUM TRANSIENT DURATION vs.OVRST IN THRESHOLD OVERDRIVE10OVERDRIVE, V OVRST IN - V REF (mV)T R A N S I E N T D U R A T I O N (μs )100100010,000104001200800MAXIMUM TRANSIENT DURATION vs.RST IN_ THRESHOLD OVERDRIVE10OVERDRIVE, V REF - V RST IN (mV)T R A N S I E N T D U R A T I O N (μs )100100010,000_______________Detailed DescriptionThe MAX6305–MAX6313 CMOS microprocessor (µP)supervisory circuits are designed to monitor more than one power supply and issue a system reset when any monitored supply falls out of regulation. The MAX6305/MAX6308/MAX6311 have two adjustable undervoltage reset inputs (RST IN1 and RST IN2). The MAX6306/MAX6307/MAX6309/MAX6310/MAX6312/MAX6313 mon-itor V CC through an internal, factory-trimmed voltage divider. The MAX6306/MAX6309/MAX6312 have, in addition, an adjustable undervoltage reset input and a manual-reset input. The internal voltage divider sets the reset threshold as specified in the device part number (Table 1). The MAX6307/MAX6310/ MAX6313 feature an adjustable undervoltage reset input (RST IN) and an adjustable overvoltage reset input (OVRST IN) in addition to the factory-trimmed reset threshold on the V CC moni-tor. Program the adjustable reset inputs with an external resistor divider (see Adjustable Reset Inputs section).Reset OutputsA µP’s reset input starts the µP in a known state. These µP supervisory circuits assert reset to prevent code-execution errors during power-up, power-down, or brownout conditions.RESET (MAX6305–MAX6310) and RESET (MAX6311/MAX6312/MAX6313) are guaranteed to be asserted at a valid logic level for V CC > 1V (see Electrical Characteristics ). Once all monitored voltages exceed their programmed reset thresholds, an internal timer keeps reset asserted for the reset timeout period (t RP );after this interval, reset deasserts.If a brownout condition occurs (any or all monitored volt-ages dip outside their programmed reset threshold),reset asserts (RESET goes high; RESET goes low). Any time any of the monitored voltages dip below their reset threshold, the internal timer resets to zero and reset asserts. The internal timer starts when all of the moni-tored voltages return above their reset thresholds, and reset remains asserted for a reset timeout period. The MAX6305/MAX6306/MAX6307 feature an active-low,MAX6305–MAX63135-Pin, Multiple-Input, Programmable Reset ICs_______________________________________________________________________________________5______________________________________________________________Pin DescriptionM A X 6305–M A X 6313open-drain, N-channel output. The MAX6308/MAX6309/MAX6310 feature an active-low, complementary output structure that both sinks and sources current, and the MAX6311/MAX6312/MAX6313 have an active-high com-plementary reset output.The MAX6305/MAX6308/MAX6311 switch from under-voltage lockout operation to normal operation between 1.5V < V CC < 2.5V. Below 1.5V, V CC undervoltage-lockout mode asserts RESET . Above 2.5V, V CC normal-operation mode asserts reset if RST IN_ falls below the RST IN_ threshold.Manual-Reset Input(MAX6306/MAX6309/MAX6312)Many µP-based products require manual-reset capability,allowing an operator or external logic circuitry to initiate a reset. A logic low on MR asserts reset. Reset remains asserted while MR is low, and for a reset active timeout period (t RP ) after MR returns high. This input has an inter-nal 63.5k Ωpull-up resistor, so it can be left open if it is not used. MR can be driven with TTL-logic levels in 5V sys-tems, with CMOS-logic levels in 3V systems, or with open-drain/collector output devices. Connect a normally open momentary switch from MR to GND to create a manual-reset function; external debounce circuitry is not required.If MR is driven from long cables or if the device is used in a noisy environment, connecting a 0.1µF capacitor from MR to ground provides additional noise immunity.The MR pin has internal ESD-protection circuitry that may be forward biased under certain conditions, drawing excessive current. For example, assume the circuitry driv-ing MR uses a +5V supply other than V CC . If V CC drops or browns out lower than +4.7V, MR ’s absolute maximum rat-ing is violated (-0.3V to (V CC + 0.3V)), and undesirable current flows through the ESD structure from MR to V CC .To avoid this, it is recommended that the supply for the MR pin be the same as the supply monitored by V CC . In this way, the voltage at MR will not exceed V CC .Adjustable Reset InputsThe MAX6305–MAX6313 each have one or more reset inputs (RST IN_ /OVRST IN). These inputs are com-pared to the internal reference voltage (F igure 1).Connect a resistor voltage divider to RST IN_ such that V RST IN_falls below V RSTH (1.23V) when the monitored voltage (V IN ) falls below the desired reset threshold (V TH ) (F igure 2). Calculate the desired reset voltage with the following formula:R1 + R2V TH = ________x VRSTHR25-Pin, Multiple-Input, Programmable Reset ICs 6_______________________________________________________________________________________Figure 1. Functional DiagramMAX6305–MAX63135-Pin, Multiple-Input, Programmable Reset ICs_______________________________________________________________________________________7The ±25nA max input leakage current allows resistors on the order of megohms. Choose the pull-up resistor in the divider to minimize the error due to the input leakage cur-rent. The error term in the calculated threshold is simply:±25nA x R1If you choose R1 to be 1M Ω, the resulting error is ±25 x 10-9x 1 x 106= ±25mV.Like the V CC voltage monitors on the MAX6306/MAX6307/MAX6309/MAX6310/MAX6312/MAX6313, the RST IN_inputs (when used with a voltage divider) are designed to ignore fast voltage transients. Increase the noise immunity by connecting a capacitor on the order of 0.1µF between RST IN and GND (Figure 2). This creates a single-pole lowpass filter with a corner frequency given by:f = (1/2π) / (R1 + R2)(R1 x R2 x C)For example, if R1 = 1M Ωand R2 = 1.6M Ω, adding a 0.1µF capacitor from RST IN_ to ground results in a lowpass corner frequency of f = 2.59Hz. Note that adding capacitance to RST IN slows the circuit’s overall response time.__________Applications InformationInterfacing to µPs with Bidirectional Reset PinsSince the RESET output on the MAX6305/MAX6306/MAX6307 is open drain, these devices interface easily with µPs that have bidirectional reset pins, such as the Motorola 68HC11. Connecting the µP supervisor’s RESET output directly to the microcontroller’s RESET pin with a single pull-up resistor allows either device to assert reset (Figure 3).Negative-Going V CC TransientsIn addition to issuing a reset to the µP during power-up,power-down, and brownout conditions, these devices are relatively immune to short-duration, negative-going V CC transients (glitches).The Typical Operating Characteristics show the Maximum Transient Duration vs. V CC Reset Threshold Overdrive, for which reset pulses are not generated.The graph was produced using negative-going pulses,starting at V TH max, and ending below the pro-grammed reset threshold by the magnitude indicated (reset threshold overdrive). The graph shows the maxi-mum pulse width that a negative-going V CC transient may typically have without causing a reset pulse to be issued. As the amplitude of the transient increases (i.e.,goes farther below the reset threshold), the maximum allowable pulse width decreases.RST IN_/OVRST IN are also immune to negative/positive-going transients (see Typical Operating Characteristics ).A 0.1µF bypass capacitor mounted close to the RST IN_,OVRST IN, and/or the V CC pin provides additional tran-sient immunity.Ensuring a Valid RESET /RESETOutput Down to V CC = 0VWhen V CC falls below 1V, push/pull structured RESET /RESET current sinking (or sourcing) capabilities decrease drastically. High-impedance CMOS-logic inputs connected to RESET can drift to undetermined voltages. This presents no problem in most applica-tions, since most µPs and other circuitry do not operate with V CC below 1V. In those applications where RESET must be valid down to 0V, adding a pull-down resistor between RESET and ground sinks any stray leakageFigure 2. Increasing Noise ImmunityFigure 3. Interfacing to µPs with Bidirectional Reset I/Ocurrents, holding RESET low (Figure 4). The pull-down resistor’s value is not critical; 100k Ωis large enough not to load RESET and small enough to pull RESET to ground. For applications where RESET must be valid to V CC , a 100k Ωpull-up resistor between RESET and V CC will hold RESET high when V CC falls below 1V (Figure 5).Since the MAX6305/MAX6306/MAX6307 have open-drain, active-low outputs, they typically use a pull-up resistor. With these devices and under these conditions (V CC < 1V), RESET will most likely not maintain an active condition, but will drift toward a nonactive level due to the pull-up resistor and the RESET output’s reduction in sinking capability. These devices are not recommended for applications that require a valid RESET output below 1V.* Factory-trimmed reset thresholds are available in approximately 100mV increments with a ±1.5% room-temperature variance.M A X 6305–M A X 63135-Pin, Multiple-Input, Programmable Reset ICs 8_______________________________________________________________________________________Figure 4. Ensuring RESET Valid to V CC = 0VFigure 5. Ensuring RESET Valid to V CC = 0VTable 1. Factory-Trimmed Reset Thresholds*MAX6305–MAX63135-Pin, Multiple-Input, Programmable Reset ICs_______________________________________________________________________________________9Chip InformationTRANSISTOR COUNT: 800Typical Operating Circuit†The MAX6306/MAX6307/MAX6309/MAX6310/MAX6312/MAX6313 are available with factory-set V CC reset thresholds from 2.5V to 5V, in 0.1V increments. Insert the desired nominal reset threshold (from Table 1) into the blanks following the letters UK.All parts also offer factory-programmed reset timeout periods.Insert the number corresponding to the desired nominal timeout period index following the “D” in the part number (D1 = 1ms min,D2 = 20ms min, D3 = 140ms min, and D4 = 1120ms min). There are 10 standard versions with a required order increment of 2,500pieces. Sample stock is generally held on the standard versions only (see Standard Versions table). Required order increment is 10,000 pieces for non-standard versions. Contact factory for avail-ability of non-standard versions. All devices available in tape-and-reel only.Devices are available in both leaded and lead-free packaging.Specify lead-free by replacing “-T” with “+T” when ordering.M A X 6305–M A X 63135-Pin, Multiple-Input, Programmable Reset ICs 10______________________________________________________________________________________Pin ConfigurationsPackage InformationFor the latest package outline information, go to /packages .Maxim cannot assume responsibility for use of any circuitry other than circuitry entirely embodied in a Maxim product. No circuit patent licenses are implied. Maxim reserves the right to change the circuitry and specifications without notice at any time.Maxim Integrated Products, 120 San Gabriel Drive, Sunnyvale, CA 94086 408-737-7600 ____________________11©2008 Maxim Integrated Productsis a registered trademark of Maxim Integrated Products, Inc.MAX6305–MAX6313 5-Pin, Multiple-Input, Programmable Reset ICs元器件交易网。

K3编码原则指导说明书

翔宇电力编码原则指导说明书金蝶软件有限公司客户服务部二00六年二月编码原则说明：以物料的编码为主线讲解编码的原则，但所讲编码原则同样适用于K3系统的客户编码、供应商编码、职员编码、部门编码、单位编码、仓库编码、各种类别编码和其他需要编码的任何项目等。

第一节物料编码的意义物料编码是以简短的文字、符号或数字、号码来代表物料、品名、规格或类别及其他有关事项的一种管理工具。

在物料极为单纯、物料种类极少的工厂或许有没有物料编码都无关紧要，但在物料多到数百种或数千、数万种以上的工厂，物料编码就显得格外重要了。

此时，物料的领发、验收，请购、跟催、盘点、储存等工作极为频紧，而藉着物料编码，使各部门提高效率，各种物料资料传递迅速、意见沟通更加容易。

物料编码之功能如下：增强物料资料的正确性物料的领发、验收、请购、跟催、盘点、储存、记录等一切物料之活动均有物料编码可以查核，因此物料数据更加正确。

至于一物多名，一名多物或物名错乱之现象不致于发生。

提高物料管理的工作效率物料既有系统的排列，以物料编码代替文字的记述，物料管理简便省事，效率因此提高。

利于电脑的管理物料管理在物料编码推行彻底之后，方能进一步利用电脑作更有效的处理，以达到物料管理之效果。

降低物料库存、降低成本物料编码利于物料库存量的控制，同时利于呆料的防止，并提高物料管理工作的效率，因此可减轻资金的积压，降低成本。

防止物料舞弊事件之发生物料一经编码后，物料记录正确而迅速，物料储存井然有序，可以减少舞弊事件之发生。

便于物料之领用库存物料均有正确的统一的名称及规格予以编码。

对用料部门的领用以及物料仓库的发料都十分方便。

第二节物料编码的原则物料编码必须合乎物料编码的原则，合理的物料编码，必须具备下列基本原则：●简单性●分类展开性●完整性●单一性●一贯性●可伸缩性●组织性●适应电脑管理●充足性●易记性一、简单性编码的目的在于将物料化繁为简，便于物料的管理，如果编码过于繁杂，则违反了编码之目的。

K3内表

方案名称表
方案名称表
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10010 t_GLsortBalItem
排序表
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汇总表
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10012 t_ItemDetailV
核算项目使用详情纵表
核算项目使用详情纵表
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10013 t_LastContactDate
往来初始化日期表
往来初始化日期表
万能报表字段描述表
万能报表字段描述
1
0
0
47 t_SonCompany
分支机构
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48 t_VoucherTplType
凭证事务表
凭证事务表
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49 t_LedgerPageSetup
Ldg页面设置表
Ldg页面设置表
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50 t_Organization
客户表
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所得税税率表
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工资系统预留一表
工资系统预留一表
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工资配款表
工资配款表
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20023 t_PACyPlotRef
工资配款参考表
工资配款参考表
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