Chroma 6310系列电子负载操作指导书

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胜利仪器 VICTOR 6310E 6310F回路电阻测试仪说明书

目录安全须知 (1)一.简介 (2)二.型号区别 (3)三.技术规格 (3)四.结构 (5)五.操作 (6)1.操作 (6)2.测试 (9)六.电池管理 (13)七.装箱单 (14)安全须知感谢您购买了本公司的回路电阻测试仪，为了更好地使用本产品，请一定：——详细阅读本用户手册，操作者必须完全理解手册说明并能熟练操作本仪表后才能进行实际测试。

——严格遵守本手册所列出的安全规则及注意事项。

●任何情况下，使用本仪表都应注意安全。

●出于您的安全考虑，请仅使用随设备所附带的导线和配套附件(符合IEC61010-031(2002)标准)。

●使用前应确认仪表及附件完好，仪表、测试线绝缘层无破损、无裸露、无断线才能使用。

机壳或测试线发生断裂而造成金属外露时，请停止使用。

●测试前请确保被测电阻不带电。

●测试过程中，严禁接触被测电阻及正在测试的回路。

●确认测试线与仪表及被测物之间已紧密连接。

●仪表在使用中，机壳或测试线发生断裂而造成金属外露时，请停止使用。

●不能触摸输出插孔、端口的外露金属部分，以免触电。

●注意本仪表面板及背板的标贴文字及符号。

●请勿将仪表长时间放置在高温潮湿、日光直射的环境下。

●拆卸、维修以及使用本仪表，都必须由有授权资格的人员操作。

●请勿在易燃性场所测试，火花可能引起爆炸。

●仪表必须定期保养，保持清洁，不能用腐蚀剂和粗糙物擦拭。

●仪表应放置于干燥、通风，无腐蚀性气体的室内。

●仪表长时间放置不使用，请每2个月给电池充电一次。

●仅使用生产商所提供的电源适配器或电池组，它们具有特定安全等级。

●由于本仪表原因，继续使用会带来危险时，应立即停止使用，并马上封存，由●仪表及手册上的符号是危险标志，使用者必须依照指示进行安全操作。

●安全操作。

回路电阻测试仪，是我公司精心研制的一款专门测量电阻的智能化、人机操作简洁的综合型测试仪器，具有自检、输出电流大、量程宽、抗干扰能力强等特点，还具有测量迅速、测量精度高、操作简单、体积小、重量轻、便于携带等优点。

【最新文档】电子负载作业指导书-实用word文档 (11页)

本文部分内容来自网络整理，本司不为其真实性负责，如有异议或侵权请及时联系，本司将立即删除！== 本文为word格式，下载后可方便编辑和修改！ ==电子负载作业指导书篇一：直流电子负载内校作业指导书目的：为确保检验，测量和试验所用的直流电子负载溯源至国家基础，保持其量值的准确可靠，规范内校操作，特制订本作业指导书。

1. 范围：本作业指导书规定了有关直流电子负载的规范性引用文件、术语和定义、校准条件、校准项目、校准方法和校准记录，适用于公司所有型号的直流电子负载的内部校准。

2. 职责：设备管理组：负责制定仪器年度内校计划与实施等相关工作仪校工程师：负责按照内校作业指导书进行作业3. 规范性引用文件JJF--30101-201X直流电子负载校准规范4. 术语和定义最大误差:设定值*%+最大量程*% 首次校准:从未校准过秤所进行的校准随后校准:首次校准后的校准5. 校准条件 5.1. 校准主要器具数字万用表:安捷伦34405A 直流稳压电源: 60V30A5.2. 环境要求环境温度：25℃±2℃ 环境湿度：50%RH±10%RH将它们输出负端连接一起；然后将数字万用表的正、负端分别接到无感电阻R 的两端,如图2；篇二：艾德克斯电子负载操作指导书艾德克斯电子负载操作指导书1. 目的:为了使实验仪器操作方法规范，确保实验结果正确，延长仪器使用寿命，特制定本作业指导书 2. 范围：本作业指导书适用该仪器的使用操作 3. 职责：工艺组:负责仪器定期校验实验室：负责仪器设备保养，作业指导书编写. 使用者：按照作业指导书使用仪器4. 作业内容：4.1. 仪器介绍4.1.1. 仪器主要参数输出电压:DC500V,输出功率:300W,输出电流:15A操作模式:除了4个经典模式外,还包含电池放电模式、Von Voff 、动态测试等. 定电流操作模式:不管输入电压是否改变，电子负载消耗一个恒定的电流.定电压操作模式: 电子负载将消耗足够的电流来使输入电压维持在设定的电压上.定电阻操作模式:电子负载被等效为一个恒定的电阻会随着输入电压的改变来线性改变电流定功率操作模式: 电子负载将消耗一个恒定的功率，如果输入电压升高，则输入电流将减少，功率P（=V* I ）将维持在设定功率上.4.1.2. 仪器面板介绍4.1.3. 指示灯功能描述4.2. 定电流负载模式操作步骤4.2.1. 插上仪器电源、启动仪器处于待机状态.4.2.2. 在仪器面板上按I-set键，屏幕显示CURRENT=0.000A .4.2.3. 通过数字键或者是旋钮输入所需的电流值，如CURRENT=1A按 Enter键确认. 4.2.4. 被测样品与仪器连接4.2.5. 在仪器面板上按ON/OFF 键,仪器开始输出电流.4.3. 定电压负载模式操作步骤 4.3.1. 操作步骤同4.44.4. 定电阻负载模式操作步骤 4.4.1. 操作步骤同4.44.5. 定功率负载模式操作步骤 4.5.1. 操作步骤同4.44.6. 电池放电测试操作步骤4.6.1. 定义: 使用恒流模式来进行容量测试,可编程设置关断电平,当电池电压过低时,系统确定电池达到设定阈值或非安全状态前夕,自动中断测试.在测试过程中可以观测电池的电压,放电电流,负载功率和电池已放电容量.4.6.2. 在仪器面板上按 On/Off键，使负载的输入状态为关闭，连接好待测电池.4.6.3. 按 I-set键，VFD显示CURRENT= 0.000A,设置电池的放电电流,按Enter键确认.注意：负载的放电电流必须小于电池所供给的电流,在此范围内尽量设大.4.6.4. 按Shift+ Battery（数字键8）,屏幕显示MIN OLT=0.10V,设置关断电压,按Enter键开始放电测试. 当电池电压跌落到关断电压时, 负载的输入状态自动OFF.4.6.5. 再次按hift+ Battery（数字键8）键可退出电池容量测试模式.4.6.6. 在测试过程中按上下键切换观察电池的电压,实际放电电流和负载功率,电池已放电容量. 4.7. Von Voff 操作步骤4.7.1. 定义: 当待测电源上升速度或下降速度慢时,电子负载就有可能将待测电源保护.电子负载提供了Von（带载电压）和Voff （卸载电压）功能,当待测电源电压上升且大于Von 带载电压时,负载开始带载测试.当待测电源电压下降且小于Voff 卸载电压时,负载则卸载，输入状态为OFF.4.7.2. 按 Shift + Menu 键进入菜单4.7.3. 屏幕显示MAX CURRENT SET，按下方向键▼至>VOLTAGE ON SET,按Enter键确认.4.7.4. 屏幕显示>VOLT.ON=0.00V,按数字键设置带载电压值(0.1V至最大电压值),按Enter确认. 4.7.5. 按下方向键▼至>VOLTAGE OFF SET, 按Enter键确认.4.7.6. 屏幕显示>VOLT.OFF=0.00V按数字键设置卸载电压值(0V至最大电压值) 按Enter键确认. 4.8. 动态测试操作步骤定义: 动态测试操作能够使负载在两种负载电流或电压间反复切换，此功能可以用来测试电源的动态特性.动态测试操作可以用前面板Shift + Tran键使能或失能,在动态测试操作以前,应首先设置动态测试操作的相关参数Shift +S-Tran. 这些参数包括：A值脉宽时间,B 值脉宽时4.8.1.1. 连续模式（CONTINUOUS）:在连续模式下，当动态测试操作使能后，负载会连续的在A值及B值之间切换. 4.8.1.2. 举例操作.负载电流在5A和10A之间切换,负载电流在 5A时保持2ms,在 10A时保持3ms.假设被测仪器输出电压为12V，当前在定电流模式下.4.8.1.3. 关闭负载的输入4.8.1.4. 按下Shift+ S-Tran ,设置 LEVEL A=5A,按 Enter,设置 WIDTHA=3ms,按Enter,设置 LEVER B=10A,按 Enter,设置 WIDTH B=2ms,按 Enter确认.4.8.1.5. 此时动态模式为CONTINOUS，按 Enter确认. 4.8.1.6. 按 On/Off键打开负载的输入.4.8.1.7. 按下 Shift+ Tran 开始执行动态测试操作. 4.8.1.8. 再按下Shift+ Tran 将停止动态测试操作.4.8.2. 脉冲模式（PULSE）: 在脉冲模式下,当动态测试操作使能后,每接收到一个触发信号,负载就会切换到B 值下, 在维持B脉宽时间后,会切换回A值下.4.8.2.1. 举例操作.负载电流在5A 和 10A之间切换.负载每接收到一个触发信号，就会切换到10A电流值,10ms后切换回 5A电流值.假设被测仪器输出电压为 12V,当前在定电流模式下.。

chroma6310系列电子负载操作指导书.doc

Chroma 6310系列电子负载操作指导书1前言和目的本文明了 Chroma 6310 系列子操作方法，便于的操作使用。

2适用范围适用于 Chroma 6310 系列子的使用操作。

3操作规程器介Chroma 6310 系列子6314 插框可以放下四路子，6312 可以放下两路模（ 63102、63103、 63105、 63107⋯⋯），包括一个理器，GPIB 接口、 RS-232接口、控制面板、以及示器和PASS/FAIL信号。

具有 SAVE/RECALL功能，可以存 100 份文件， 10 个程序、一个缺省默。

各路模可以各自工作在CC、CR、CV三种模式，每个模都具有一个或者两个通道（63103、 63106 当通道模， 63102、 63107双通道模），每个通道都有自己的号（1~8），可以各自独立地turn on/ turn off, 或short-circuited 。

如果一个模不可以将模并提高能力，当四路都加最大功率可达 1200W。

其中控制面板有三个都可以两个功能，将SHIFT与同按下就可以另外一个功能。

插框面板按介1．电源开关2． LCD显示器3．通道显示4．功能键CHAN：选定通道进行设置MODE：用来选择带载模式（CC、 CR、 CV）PROG：用来编辑一组带载程序或者运行一组带载程序。

CLEAR：当数字输入错误后，按该键可以清除。

RECALL：可以用来调用先前存储的负载设置。

SAVE：当你设置好一种负载后可以使用该键保存到一个程序里面（1to10 ），下次使用可以通过RECALL（ 1to10 ）调用。

存储 / 调用（ SAVE/RECALL）该系列负载可以对各路负载设定值按顺序储存在一个文件里，下次再要用到该系列负载时可以将此文件调用出来，如你要将已经设定好好的负载值储存到 1 号文件里，则只需按SAVE，然后按方向键，当显示器出现SAVE PROGRAM 1：YES2： NO 时，按键“ 1”存储，当下次要再次调用该系列负载时，只需按RECALL，1，ENTER，则所有通道的设定值都回被条用出来，然后按LOAD即可加载。

Chroma 63800系列可编程交直流电子负载

為了模擬浪湧電流，63800系列擁有浪湧電流模式，讓使用者可設定不同的浪湧電流的起始角度，如此使用者可節省下許多在量測浪湧電流時所需花費的時間。
圖 3: 實際 RLC 線路
圖 4: 模擬 RLC 模式
圖 5: 定電流模式
直流負載模擬
63800 直流負載模擬包括四種負載模式 : 定電流、定電阻、定電壓及定功率模式，如下所述。
定功率 ■ 交流負載 : 一般負載模式與整流性負載模式 ■ 類比電壓、電流監控 ■ 時間量測 : 可應用於電池、UPS、保險絲
和斷路器等測試 ■ 量測 : V, I, PF, CF, P, Q, S, F, R
Ip+/- and THDv ■ 短路模擬 ■ 保護功能 : 過功率、過電流、過電壓與過
溫度保護 ■ GPIB 及 RS-232 控制介面
Programmable AC&DC Electronic load
致茂最新的 63800 系列交/直流電子負載，主要是給不斷電系統(UPS)、離線型變流器(Off-Grid Inverters)、車用型變流器、交流電源以及其他的電力元件如開關、斷路器、保險絲和連接器等產品測試使用。
63800系列可模擬於高峰值因素下的負載情況，甚至當電壓波形失真時，能即時補償功率因素。此特性使得模擬負載的能力更加真實，亦能防止電壓過應力發生，因此可獲得更可靠及更公正的測試結果。
圖 7 : Off-Line UPS 轉換時間
自動頻寬調整 (ABA)
傳統的交流電子負載僅能操作於固定的拉載頻寬之下。若此電子負載屬於低頻寬特性，在模擬高峰值因素的負載時將會有所限制。反之，屬於高頻寬特性的，若待測物的輸出阻抗高時，則會影響電流拉載的穩定度，甚至震盪。為解決此問題，63800系列交/直流負載可藉由自動偵測待測物的輸出阻抗(註1)，動態調整其操作頻寬，以減低系統不穩定的問題。

电子负载仪的使用

電子負載儀的使用用來測試評估/直流電源供應器之規格特性，蓄電池之奪命特性等用途(電子負載模組)。

*工作模式：1> 固定電流模式(C.C Mode)電子負載所流入的負載電流是依据所設定的負載電流值，而与輸入電壓大小無關，即負載電流保持設定值不變。

LoadINPUT VOLTAGE2> 固定電阻模式(C.R Mode)例，即負載電阻保持設定值不變：LOADCurrent *NG .LED 顯示器當V 。

A 。

W 或V A 表的讀值超過1imit 設定之上限或下限此LED 顯示*Mode 鍵 CC 。

CR 之LED 指示器用MODE 鍵選擇工作模式，CC 。

CR 之LED 指示器指示設定的工作模式*REM LED 指示器亮時為外接電腦程式控制操作，此時面板手動操作全無效。

*上方的4位半顯示器1> 一般狀態電壓表：顯示負載輸入端或V sense BNC 輸入端的電壓值2> WATT ON 狀態瓦特表：顯示負載之功率值3> LIMIT ON 狀態顯示V 。

A 。

W 。

V A 表的上限值，顯示順序如下1、V “Vrms ”2、A “Arms ”3、W “W ”I VV I4、V A “V A”4>于保護狀況產生時過電壓保護時顯示“OVP”5>FREQ ON狀態顯示FREQ BAN Syne三种功能設定其顯示順序如下“1、頻率設定功能下“FREQ”2、波形庫選擇功能下“BAN”3、同步信號選擇功能下“SYNC”*下方的4位半顯示器1>PRESET OFF狀態電流表：顯示實際流入負載內的負載電流2>PRESET ON狀態顯示前面板手動操作之設定值或遙控時之設定值PRES“ON”：顯示CC。

Mode下的固定電流LEVEL A与B設定值“Arms”顯示CC。

Mode下的固定電流LEVEL A与B設定值“Ω”于保護狀況產生時，過“C”過“P”及過“T”時，分別會顯示“OCP”“OPP”及“OTP”3>LIMIT ON狀態電壓表之下限值：“Vrms”電流表之下限值：“Arms”瓦特表之下限值：“W”V A之下限值：“V A”4>REQ ONF：頻率設定功能下：顯示DC-99.9、100-999波形庫選擇功能下：顯示0-10同步信號選擇功能下：顯示“ON”或“OFF”*PRES ON/OFF鍵1>PRES按ON按OFF按ON按OFF按依此類推2>“ON”:預先設定狀況“OFF”:非預先設定狀況，而為實際負載之電壓電流狀況。

电子负载使用指导书

PRODIGIT目录目录第一章、概论 (3)1.1整体说明 (3)1.23310C系列电子负载之特性 (8)1.3附件 (8)1.4规格 (9)1.5系统方块图 (11)第二章、装机 (12)2.1装入及拔出3310C系列电子负载 (13)2.2电子负载模组的操作流程 (14)第三章、操作 (15)3.1操作说明 (16)3.23310C系列电子负载模组的起始设定参数 (23)3.3负载输入连接器与连接引线之考虑事项 (24)3.4负载电流粗调、微调，增量及减量调整 (25)3.5I MONITOR (输出) (27)3.6保护特性 (28)第四章、应用 (29)4.1本地电压检知连接法 (29)4.2远地电压检知连接法 (30)4.3固定电流模式(C.C. MODE)的应用 (31)4.4固定电阻模式(C.R. MODE)的应用 (33)4.5固定电压模式(C.V. MODE)的应用 (34)4.6固定功率模式(C.P. MODE)的应用 (35)4.7多组输出之电源供应器与电子负载之连接 (36)4.8并联操作 (37)目录PRODIGIT 图形图1.13310C0-60V/0-30A150W电子负载功率曲线图 (3)图1.23311C0-60V/0-60A300W电子负载功率曲线图 (3)图1.33312C0-250V/0-10A300W电子负载功率曲线图 (4)图1.43314C0-500V/0-5A200W电子负载功率曲线图 (4)图1.53315C0-60V/0-15A75W电子负载功率曲线图 (4)图1.6固定电流模式特性图 (5)图1.7固定电阻模式特性图 (5)图1.8固定电压模式特性图 (6)图1.9固定功率模式特性图 (6)图1.10动态负载模式特性图 (7)图1.113310C系列电子负载之方块图 (11)图2.1负载输入连接器与固定镙丝 (12)图2.2电子负载装入及拔出 (13)图2.33310C系列电子负载操作流程图 (14)图3.1前面板图 (15)图3.2典型的3310C系列电子负载连接方式 (21)图3.3负载电流之类比设定输入 (22)图4.1本地/远地电压检知连接图 (29)图4.2远地电压检知连接图 (30)图4.3固定电流操作模式之应用 (31)图4.4动态负载电流 (32)图4.5固定电阻操作模式之应用 (33)图4.6固定电压操作模式之应用 (34)图4.7固定功率操作模式之应用 (35)图4.8多组输出电源供应器与电子负载之连接图 (36)图4.9电子负载多组并联之连接图 (37)表格表1.13310C系列电子负载规格表 (9)表1.13310C系列电子负载规格表(续) (10)表3.13310C起始状态设定 (23)表3.23311C起始状态设定 (23)表3.33312C起始状态设定 (23)表3.43314C起始状态设定 (24)表3.53315C起始状态设定 (24)表3.6负载电流按键粗调/微调及不同档位之解析度 (266)PRODIGIT第一章概论第一章、概论1.1整体说明3310C 系列电子负载是用来测试估估直流电源供应器之规格特性，蓄电池之寿命特性以及电子元件之规格等用途。

电子负载使用说明书

目录第一章、概论 (3)1.1 整体说明 (3)1.2 3310C 系列电子负载之特性 (8)1.3 附件 (8)1.4 规格 (9)1.5 系统方块图 (11)第二章、装机 (12)2.1 装入及拔出3310C 系列电子负载 (13)2.2 电子负载模组的操作流程 (14)第三章、操作 (15)3.1 操作说明 (16)3.2 3310C 系列电子负载模组的起始设定参数 (23)3.3 负载输入连接器与连接引线之考虑事项 (24)3.4 负载电流粗调、微调，增量及减量调整 (25)3.5 Imonitor (输出) (27)3.6 保护特性 (28)第四章、应用 (29)4.1 本地电压检知连接法 (29)4.2 远地电压检知连接法 (30)4.3 固定电流模式(C.C. mode)的应用 (31)4.4 固定电阻模式(C.R. mode)的应用 (33)4.5 固定电压模式(C.V. mode)的应用 (34)4.6 固定功率模式(C.P. mode)的应用 (35)4.7 多组输出之电源供应器与电子负载之连接 (36)4.8 并联操作 (37)图形图1.1 3310C 0-60V / 0-30A 150W 电子负载功率曲线图 (3)图1.2 3311C 0-60V/0-60A 300W 电子负载功率曲线图 (3)图1.3 3312C 0-250V/0-10A 300W 电子负载功率曲线图 (4)图1.4 3314C 0-500V/0-5A 200W 电子负载功率曲线图 (4)图1.5 3315C 0-60V/0-15A 75W 电子负载功率曲线图 (4)图1.6 固定电流模式特性图 (5)图1.7 固定电阻模式特性图 (5)图1.8 固定电压模式特性图 (6)图1.9 固定功率模式特性图 (6)图1.10 动态负载模式特性图 (7)图1.11 3310C 系列电子负载之方块图 (11)图2.1 负载输入连接器与固定镙丝 (12)图2.2 电子负载装入及拔出 (13)图2.3 3310C 系列电子负载操作流程图 (14)图3.1 前面板图 (15)图3.2 典型的3310C 系列电子负载连接方式 (21)图3.3 负载电流之类比设定输入 (22)图4.1 本地/远地电压检知连接图 (29)图4.2 远地电压检知连接图 (30)图4.3 固定电流操作模式之应用 (31)图4.4 动态负载电流 (32)图4.5 固定电阻操作模式之应用 (33)图4.6 固定电压操作模式之应用 (34)图4.7 固定功率操作模式之应用 (35)图4.8 多组输出电源供应器与电子负载之连接图 (36)图4.9 电子负载多组并联之连接图 (37)表格表1.1 3310C 系列电子负载规格表 (9)表1.1 3310C 系列电子负载规格表(续) (10)表3.1 3310C 起始状态设定 (23)表3.2 3311C 起始状态设定 (23)表3.3 3312C 起始状态设定 (23)表3.4 3314C 起始状态设定 (24)表3.5 3315C 起始状态设定 (24)表3.6 负载电流按键粗调/微调及不同档位之解析度 (266)精品第一章、概论1.1 整体说明3310C 系列电子负载是用来测试估估直流电源供应器之规格特性，蓄电池之寿命特性以及电子元件之规格等用途。

査察高科 loader 6310A 系列说明书

programmable parameters include: slew rate, load level, duration and conducting voltage. In addition, up to 100 sets of system operating status can be stored in EEPROM and recalled instantly for automated testing applications.Real time measurement of voltage and current are integrated into each 6310A load module using a 16-bit precision measurement circuit. The user can perform on line voltage measurements and adjustments or simulate short circuit test using the user friendly keypad on the front panel. Additionally, the 6310A series offers an optional remote controller for automated production lines.The 6310A series has a self-diagnosis routines to maintain instrument performance. It also provides OC, OP , OT protection, and alarm indicating OV, reverse polarity to guarantee quality and reliability for even in the most demanding engineering testing and ATE applications.PROGRAMMABLE DC ELECTRONIC LOAD MODEL 6310A SERIESThe Chroma 6310A series Programmable DC Electronic Load is ideal for the test and evaluation of multi-output AC/DC power supplies, DC/DC converters, chargers and power electronic components. It is designed for applications in research and development, production, and incoming inspection. The system is con gured by plugging the user selectable load modules into the system mainframe. The user interfaces include an ergonomically designed user friendly keypad on the front panel and the following computer interfaces: RS-232C, USB or GPIB.The 6310A series offers 12 different modules with power ratings from 20 watts to 1,200 watts, current ratings from 0.5mA to 240A, and voltage ratings from 0.5mV to 600V. The loads can be operated in constant current, constant voltage, constant power and constant resistance and may be placed in parallel for increased current and power.The 6310A series can simulate a wide range of dynamic loading applications. The waveformsProgrammable DC Electronic LoadC h ro m a 6310APro gra m m a b l e E l e c t ro n i c Lo a d i nte grate s microprocessor capabilities into each load module and mainframe to provide simple and accurate parallel operation to optimize the speed and control among multiple load modules. All load modules may be configured to work synchronously, to test multiple outputs simultaneously, thus simulating real life applications.The 6310A load modules operate in constant current, constant voltage,constant power or constant resistance to satisfy a wide range of test requirements. For example, the test of a battery charger can be simulated easily by setting the load to operate in constant voltage.APPLICATION OF SPECIFIC LOAD SIMULATIONThe 6310A series load modules will be compatible with the 6310 series mainframes (6312/6314). In addition, the remote control commands will be compatible between the 6310 and the 6310A series without needing to re-writing any remote control programs.COMPATIBILITY WITH 6310 SERIESMODULE LOAD DESIGN8-channel 100W/channel load with standard front-panel inputs. This makes it ideal for testing multiple output switching power supplies and multiple DC-DC converters. There are also higher wattage modules that may be mixed and matched for an even more versatile system. Additionally, the GO/NG output port is useful for UUT's pass/fail testing on an automated production line. All modules on the 6314A/6312A mainframe share a common GPIB address to synchronize and speed up the control of the load modules and the read-back of data.The Chroma 6314A 1400W and 6312A 700W electronic load mainframes accept the user-installable 6310A series load modules for easy system configuration and will mount in a 19" instrument rack. The6314A holds up to four 63102A load modules, which will result in anEach load module is designed with state-of-the-art technology and connects all the power MOSFET devices in parallel to insure high accuracy load control with a minimum drift of less than 0.1%+0.1%F.S. of the current setting. Chroma's use of FET technology provides minimum input resistance and enables the load to sink high current even at very low voltages. For example, the model 63123A is capableof sinking 70A at 0.6V, and well-suited for testing the new 3.3V low voltage power supplies. Low voltage operation, down to zero volts, is possible at reduced current levels.The 6310A load module uses a photo coupler for isolation between the output and control sections, thus each load is isolated and floating. The user can use multiple load modules independently to test multi-output power supplies, or parallel them for high power testing applications.DYNAMIC LOADING AND CONTROLModern electronic devices operate at very high speeds and require fast dynamic operation of their power providing components. To satisfy these testing applications, the 6310A loads offer high speed, programmable dynamic load simulation and control capability. The figure aside shows the programmable parameters of the 6310A modules:The programmable slew rate makes the simulation of transient load change demanded by real life applications possible. The 6310A internal waveform generator is capable of producing a maximum slew rate at 10A/µs, and dynamic cycling up to 20kHz. It's dedicated remote load sense and control circuit guarantee minimum waveform distortion during continuous load changes.MULTI CHANNEL CONTROLThe 6310A comes with RS-232C as standard for remote control and automated testing applications. The USB and GPIB interfaces are available as options. In addition, the 6310A provides an efficient solution for testing single output AC to DC or DC to DC converters by controlling multiple loads. The 6310A provides the capability to test upto 8 UUTs at a time.UUT : AdaptorThe 6310A series of loads include a unique timing & measurement function, which allows precise time measurements in the range of 1ms to 86,400s. This feature allows the user to set the final voltage & timeout values for battery discharge testing, super capacitor discharge, and other similar applications.For example, the figure on the right shows the 6310A internal timer starting at Load ON, and ending when the battery voltage reaches the final voltage.The digital I/O interface makes the 6310A DC Load the ideal choice for automated testing requirements. Through the digital I/O, the 6310A can accept digital signals to trigger its functions (Load On/Off, OCP test, etc.) as well as current output status signals.Each 6310A load module has an integrated 16-bit precision A/D converter for voltage measurement with an accuracy of 0.025%+0.015%* of full scale. The built-in resistive load current sensing circuit is capable of measuring current with an accuracy of 0.04%+0.04%* of full scale. Apart from voltage and current measurement, 6310A also provides power measurement function and there is no need for users to spend time for power calculation. Also, short circuit can be simulated. All measurements are done using remote sensing to eliminate any error due to voltage drops along the measurement path. The user can also select from a complete set of voltage and current measurements.Note * : Only for Model 63123AModern switching power supplies are designed with over current protection (OCP) circuitry; therefore, it is important to test the OCP circuitry to make sure it is functioning within its designed specifications. The 6310A series provides an easy and fast solution for this testing.By simply choosing the channel and setting the OCP parameters (start current, end current, step current and dwell time) from the front panel, the 6310A series provides a fast and easy OCP testing solution. The 6310A series will automatically detect the OCP point, making it an ideal solution for design verification as well as production line testing.Battery Discharge Testing6314A : 4 in 1 Mainframe A631001:Remote ControllerA631000 :GPIB Interface63106A / 63108A63102A / 63107A / 63110A63101A63105A63112A63103A / 63123A /63113A / 63115A6312A : 2 in 1 Mainframe A631003 :USB InterfaceAs a constant current source, the LED power driver has an output voltage range with a constant output current. LED power drivers are usually tested in one of the following ways :1. With LEDs2. Using resistors for loading3. Using Electronic Loads in Constant Resistance (CR) mode, or Constant Voltage (CV) mode However, all these testing methods, each of them has their own disadvantages.As shown on the V-I curve in Figure 1, the LED has a forward voltage VF and a operating resistance (Rd). When using a resistor as loading, the V-I curve of the resistor is not ableto simulate the V-I curve of the LED as shown in blue on Figure 1. This may cause the LED power driver to not start up due to the difference in V-I characteristic between the resistors and the LEDs. When using Electronic Loads, the CR and CV mode settings are set for when the LED is under stable operation and therefore, is unable to simulate turn on or PWM brightness control characteristics. This may cause the LED power driver to function improperly or trigger it's protection circuits. These testing requirements can be achieved when using a LEDs as a load; however, issues regarding the LED aging as well as different LED power drivers may require different types of LEDs or a number of LEDs. This makes it inconvenient for mass production testing.Chroma has created the industries first LED Load Simulator for simulating LED loading with our 63110A load model from our 6310A series Electronic Loads. By setting the LED power driver's output voltage, and current, the Electronic Load can simulate the LED's loading characteristics. The LED's forward voltage and operating resistance can also be set to further adjust the loading current and ripple current to better simulate LED characteristics. The 63110A design also has increased bandwidth to allow for PWM dimming testing.Figure 4 shows the dimming current waveform of the LED.Figure 5 shows the dimming current waveform when using 63110A as a load.Figure 1 - LED V-I characteristicsFigure 5 - 63110A dimming test Figure 6 - LED driver turn-on waveformFigure 4 - LED dimming test Figure 3 - Simulate different characteristic of LEDsFigure 2 - Simulate different number of LEDsRear Panel18 ON/OFF key : To enable or disable the load input 19 Up/Down key : To select the next or previous displayin edit mode20 Numeric key : For data setting21 ENTER key : To confirm editing data on the instrument 22 SHIFT key : As LOCAL key when in remote mode 23 Power switch24 SHIFT + 0 key : System function 25 SHIFT + . key : Lock function26 SHIFT + 3 key : Clear the currently edited data27 Digital I/O : Used for system input/output control signals 28 RS-232C connector 29 GO/NG output port 30 GPIB or USB slot31 AC input voltage switch 32 AC input fuse33 AC input connector1 LED indicator2 SHORT key : To apply a short circuit across the input3 STATIC/DYNA key : To select static or dynamic test mode4 L/R key : To select left or right channel of input load(63102A, 63107A) A/B key : To select static A or B load (other models)5 V terminal : To measure the UUT's output voltage using remote sense6 Rotary knob : To adjust load setting continuously7 Load terminal8 LCD display9 LED indicator : To display the channel at which load is set 10 CHAN key : To select input load channel11 MODE key : To select the operation mode of CC, CR, CV or CP 12 PROG key : For program data setting13 OCP/OPP key : Over current protection/Over power protection testing 14 RECALL key : To recall the front panel input status from memory 15 SAVE key : To save the front panel input status into memory 16 SPEC key : To set up High/Low limits for GO/NG test 17 CONF key :To set the configurationLoad ModuleMainframe ControllerNOTE*2 : S (siemens) is the SI unit of conductance, equal to one reciprocal ohm. NOTE*3 : Call for availability• Continued on next page ➟NOTE*1 : Low voltage operation, under 0.8 volt, is possible at correspondingly reduced current level. Operating temperature range is 0˚C to 40˚C. All specifications apply for 25˚C 5˚C, except as notedit would cause permanent damage to the device.NOTE*4 : Please refer to user's manual for detail specifications.NOTE*5 : S (siemens) is the SI unit of conductance, equal to one reciprocal ohm. NOTE*6 : The loading current should be 0.35A at least.6310A-E-201310-2000Worldwide Distribution and Service NetworkJAPANCHROMA JAPAN CORP .472 Nippa-cho, Kouhoku-ku, Yokohama-shi, Kanagawa,223-0057 JapanTel: +81-45-542-1118Fax: +81-45-542-1080http://www.chroma.co.jp E-mail:******************U.S.A.CHROMA SYSTEMS SOLUTIONS, INC.19772 Pauling, Foothill Ranch, CA 92610Tel: +1-949-600-6400Fax: +1-949-600-6401 E-mail:*******************Developed and Manufactured by :CHROMA ATE INC.HEADQUARTERS66 Hwaya 1st Rd., Kueishan Hwaya Technology Park,Taoyuan County 33383,TaiwanTel: +886-3-327-9999Fax: +886-3-327-8898 E-mail:******************EUROPECHROMA ATE EUROPE B.V.Morsestraat 32, 6716 AH Ede,The Netherlands Tel: +31-318-648282Fax: +31-318-648288 E-mail:******************CHINACHROMA ELECTRONICS (SHENZHEN) CO., LTD.8F, No.4, Nanyou Tian An Industrial Estate, Shenzhen, China PC: 518052Tel: +86-755-2664-4598Fax: +86-755-2641-96206312A : Mainframe for 2 Load Modules 6314A : Mainframe for 4 Load Modules 63101A : Load Module 80V/40A/200W 63102A : Load Module 80V/20A/100W x 263103A : Load Module 80V/60A/300W 63105A : Load Module 500V/10A/300W 63106A : Load Module 80V/120A/600W63107A : Load Module 80V/5A & 40A/30W & 250W 63108A : Load Module 500V/20A/600W 63112A : Load Module 80V/240A/1200W 63123A : Load Module 120V/70A/350WA631000 : GPIB Interface for Model 6314A/6312A Mainframe A631001 : Remote ControllerA631003 : USB Interface for Model 6314A/6312A Mainframe A631005 : Softpanel for 6310A/6330A seriesA631006 : Rack Mounting Kit for Model 6312A Mainframe A631007 : Rack Mounting Kit for Model 6314A Mainframe A800042 : Test FixtureLED Load Simulator for LED Driver Test 63110A : Load Module 500V/2A/100W x 263113A : Load Module 300V/20A/300W * 63115A : Load Module 600V/20A/300W * Call for availabilityORDERING INFORMATIONThe 6310A loads can be operated from the front panel controls of mainframe or from available softpanels. This user friendly software includes all functions of 6310A and is easy to understand and operate. The 6310A can be controlled via GPIB and USB interfaces for remote control and automated testing applications.LED Mode Dynamic Test Battery Test Charger Test。

Keithley 63200A高功率电子负载产品介绍说明书

GPIBEthernet USBChroma's 63200A series high power electronic loads with digital signal microprocessor (200MHz) built in have the optimal speed and control performance. The ultra high density power (6kW@4U) not only saves room, its super high voltage (0.015%+0.015%F.S.) and current (0.04%+0.04%F.S.) measurement accuracy ensures the fidelity of results. In addition, the entire series can either be operated by hand or controlled remotely. For higher power demands, master/slave control can be used to parallel multiple units for operation. These electronic loads also have synchronous loading capabilities to simulate the actual loading status.Data Center Server PowerHigh Voltage UPSTelecom PowerBattery PackSolar Panel Energy Storage System On Board ChargerEV Charger StationThe iconic function selections make it easier for users to control/operate the 63200A series. The basic and advance functions are iconized, users can select the functions via the rotary or arrow keys. The abbreviations are shown in the icons and the full descriptions are shown on the VFD display for users to easily operate without the need for an operation manual.ICONIC FUNCTION SELECTIONSThe world leading ultra high power density design overturns the concept of oversize and difficult moving high power electronic load. It saves plenty of room space and solves the space issue when upgrading the electronic load in an automated test system. Moreover, the 63200A provides 4 sets of user-defined hot keys that enable the user to enter the operation mode quickly.The 63200A series electronic loads operate in constant voltage, current, resistance, or power modes to satisfy a wide range of test requirements. For instance, the CC and CR modes ensure that the UUT voltage outputs remain stable when the load varies. For battery chargers or charging stations, CV mode can change their output voltage to ensure the precision of the charging current. When the UUT is a battery, the electronic load changes to simulate device loading behavior. Many battery discharge applications and power consumption profiles can be simulated for analysis, making the CP mode the best choice for simulating electronic device loads.APPLICATION OF BASIC LOADSCC Mode CR Mode CV Mode CP Mode The 63200A series is equipped with flippable front panel for 7U, 10U & 13U height models with maximum flippable angles 70˚. This design allowsconvenient access to controls from any height.MASTER/SLAVE PARALLEL CONTROLWhen the need is for increased power, two or more loads can be run in parallel to achieve the desired load current. The 63200A provides the user with smart Master/ Slave mode controls which enables the user to program the load currents of the Master and have them automatically calculated and downloaded to the slave loads. Using several loads in parallel to emulate a single load dramatically simplifies the operation. All models of the series can be integrated into a 41U standard rack to save space. The 63200A can be controlled and reconfigured with automatedtesting applications via standard USB or optional Ethernet and GPIB interfaces.Model 63200A Series Load63224A-150-2000The 63200A series has a unique sine wave loading function which allows setting of a current bias (I_DC), a loading sine wave (I_AC) and sine wave frequency. The sine wave loading must be greater or equal to zero ampere. This function can be used for D/D, server power supplies and fuel cells for DCIR testing.The dynamic mode provides a unique simulation capability allowing users to set the number of times each cycle repeats from 1~65535. This feature is very suitable for testing D/D converter and instant large withstand current of batteries.Modern electronic devices operate at very high speeds and demand rapid transient response characteristics. To address these applications, the 63200A series offers high speed, programmable dynamic loading (CCD: Dynamic Current Loading & CRD: Dynamic Resistance Loading) and sweep simulation for testing. The figure shown below exhibits the programmable parameters such as current high/low level, T1/T2, rise/fall rate and execution times. When the load current changes continuously, the internal monitoring mechanism and line circuit can minimize the current waveform distortion. The current rise minimum response time for model150V is 10µs and the dynamic change is up to 50kHz.There are many capacitors on the mainboard of PC. To prevent the inrush current from occurring and trigger the over current protection of server power (since the server power charges the capacitors on the mainboard). It is necessary to test the capacitive loading when turning on the power supply. Therefore, the 63200A series provides the CZ mode for this test.The unique CZ mode designed in 63200A series can improve the loading behavior of CC & CP mode and makes the simulatedloading current more realistic.The 63200A also offers a unique dynamic frequency sweep (as shown on the right) with variable frequencies up to 50kHz. This capability is ideal for determining worst case voltage peaks. Measurement of the Vpeak (+/-) can be achieved using this function with a sampling rate of 500kHz. The dynamic loading mode can simulate different loading conditions for most test requirements. Dedicated remote load sensors and control circuits guarantee minimum waveform distortion during dynamic loading.In addition to common CC, CV, CP and CR loading modes of conventional loads, the 63200A accepts digital data from DAQ cards or analog data from function generators to allow for complex waveforms to be created as depicted below.OCP TestThe 63200A also provides an enhanced feature, User Defined Waveform (UDW), to simulate the actual current profiles and waveforms. To reconstruct the actual current waveform, the user can upload captured waveform data into any load via a Chroma softpanel. Each load is capable of storing up to 10 sets of waveforms with each comprising up to 1.5 millions data points to meet the more strenuous test requirements.In addition, 63200A series also provides voltage peak measurement during actual loading conditions. Avoiding the need for using an oscilloscope to capture the voltage peak, saving time and costs.Function GeneratorTo ensure user safety and minimize power supply failure rates, overcurrent and overpower protections have to be taken into consideration during design. The 63200A enables the user to set current and power orders to test overcurrent and overpower protections, also to judge the test result as Pass or Fail on electronic load. The maximum power (Pmax) during testing can be captured and showed on the display without using an oscilloscope to verify the correctness of designed overcurrent and overpower . It can save a lot of testing time for the user.The 63200A series provides three operating and measuring ranges. Take 63206A-150-600 for example, three voltage ranges of 16V/80V/150V which can meet the requirements of server power or telecom power (12V, 48V, 54V) testing; three current ranges of 60A/300A/600A which can provide different applications of current operating and can minimize the measurement error by selecting the suitable range. Besides, a built-in highly precision A/D converter, achieving 0.015%+0.015%F.S., 0.04%+0.04%F.S. and 0.1%+0.1%F.S. accuracy for voltage, current and power measurement espectively. Precise measurements like these are ideal for testing power efficiency and other critical parameters of the UUT's.DAQTrig. V OCP/OPPDwell timeDIGITIZING FUNCTIONThe 63200A series electronic load has built in 255 programmable timings for various loading conditions simulation. Following lists the applications of common programmed timings.The 63200A series offers a digitizing function convenient for the recording of transients in both voltage and current waveforms. The following are the specifications for setting the parameters:Sampling time : 2µs ~ 40ms / resolution: 2µs (Setting the interval of sampling time)Sampling point : 1 ~ 15,000 (Setting the total sampling points)1. Battery discharge & other applications (NPC, electric car and electric locomotive) to simulate various dynamic loading current waveform, that is to provide two levels above dynamic current simulation or one shot loading simulation.2. Server/ Telecom power supply mixed load modulation. (For multi channels output UUT.)Battery Discharge TestingThe 63200A has three discharge modes: CC, CR and CP . The electronic load can set cut off voltage and time (1~100,000 sec.) to stop loading correctly and make sure the battery is not damaged due to over discharge. In addition it can measure the battery discharge power (WH, AH) and total discharge time. For example, when Load ON is pressed, the 63200A internal clock will start counting until the battery voltage is dropped to cut off voltage or Load OFF ispressed. The battery discharge testing can also apply to super capacitor for discharge time testing and so on.This mode automatically switches among CV, CR, CC and CP modes. It is suitable for lithium ion battery charger testing to get a complete V-I charging curve. Moreover, the auto mode can avoid damaging the UUT when the protection circuit is damaged.The 63200A series loads can be operated from the front panel controls or from available softpanel. This user friendly software includes all functions of the 63200A series loads and is easy to understand and operate. The 63200A loads can be controlled via GPIB, USB and Ethernet interfaces for remote control and automated testing applications.MainBattery DischargeOver Current Protection Sine WaveProgramUser Defined WaveformNew complex operating modes include CR+CC, CV+CR and CV+CC modes. The CR+CC mode is suitable for power on testing and the CV+CR mode canreplace Von setting while the CV+CC mode can be used for battery discharge testing.I/V Curve I/V Curve I/V Curve CR+CC ModeCV+CR ModeCV+CC Mode9. Load Positive/Negative Terminal 10. Remote Sense Connections11. Analog Outputs : Proportional voltage and current waveforms 12. System BUS : For master/slave system data transmission 13. System I/O : For system input/output signal control 14. GPIB & Ethernet Card Slot 15. USB Port16. AC Input Connector1. Power Switch : Electronic load AC power switch2. Vacuum Fluorescent Display : Setup information display3. Shortcut Keys : Loading mode switch4. Function Keys : Including A/B key, RANGE, MODE, EXTEND, LOCK, COFIG./LOCAL, EDIT, SPEC, SHORT, RECALL, ADVA, SAVE & CLEAR5. ENTRY Keys : Numerical keys and ENTER key6. Arrow Keys : Changing and selecting menu7. Push-on Knob : Editing parameter setup page, push the knob again to confirm the input value when the setting is done 8. USB Host (not ready yet): For user defined waveform and programmed sequence data download as well as firmware upgrade• Continued on next page ➟• Continued on next page➟• Continued on next page ➟ORDERING INFORMATION1. The specifications are guaranteed to meet specified performance at temperature range of 25 5˚C.2. If the operating voltage exceeds the rated voltage for 1.05 times, it would cause permanent damage to the device.3. The power rating specifications at ambient temperature = 25˚C.4. If the operating current is below range 0.2%, the accuracy specification is 0.1% F.S.5. Power F.S. = Vrange F.S.x Irang F.S.6. The specification is valid only for loading current > 4% F.S.7. The short circuit function simulates full power loading and thus it cannot perform mechanical short circuit.63200A-E-201605-pdfJAPANCHROMA JAPAN CORP .888 Nippa-cho, Kouhoku-ku, Yokohama-shi, Kanagawa,223-0057 Japan T +81-45-542-1118F +81-45-542-1080www.chroma.co.jp **************.jpU.S.A.CHROMA SYSTEMS SOLUTIONS, INC.19772 Pauling, Foothill Ranch, CA 92610T +1-949-600-6400F + *******************EUROPECHROMA ATE EUROPE B.V.Morsestraat 32, 6716 AH Ede,The Netherlands T +31-318-648282F + ******************CHINACHROMA ELECTRONICS (SHENZHEN) CO., LTD.8F, No.4, Nanyou Tian An Industrial Estate, Shenzhen, China PC: 518052T +86-755-2664-4598F +86-755-2641-9620 ******************SOUTHEAST ASIA QUANTEL PTE LTD.(A Company of Chroma Group)46 Lorong 17 Geylang # 05-02 Enterprise Industrial Building,Singapore 388568T +65-6745-3200F +65-6745-9764 ***********************.comHEADQUARTERS CHROMA ATE INC.66 Huaya 1st Road,Guishan, Taoyuan 33383, TaiwanT +886-3-327-9999F + ******************63204A-150-400 : High Power DC Electronic Load 150V / 400A/ 4kW 63205A-150-500 : High Power DC Electronic Load 150V / 500A / 5kW 63206A-150-600 : High Power DC Electronic Load 150V / 600A / 6kW 63224A-150-2000 : High Power DC Electronic Load 150V / 2000A / 24kW 63204A-600-280 : High Power DC Electronic Load 600V / 280A / 4kW 63205A-600-350 : High Power DC Electronic Load 600V / 350A / 5kW 63206A-600-420 : High Power DC Electronic Load 600V / 420A / 6kW 63224A-600-1680 : High Power DC Electronic Load 600V / 1680A / 24kW 63204A-1200-160 : High Power DC Electronic Load 1,200V / 160A / 4kW 63205A-1200-200 : High Power DC Electronic Load 1,200V / 200A / 5kW 63206A-1200-240 : High Power DC Electronic Load 1,200V / 240A / 6kW 63224A-1200-960 : High Power DC Electronic Load 1,200V / 960A / 24kW A600009 : GPIB cable (200cm)A600010 : GPIB cable (60cm)A632000 : Softpanel for 63200A SeriesA632006 : NI USB-6211 Bus-Powered Multifunction DAQ A636000 : GPIB interface A636010 : Ethernet interface。

嘉拓电子负载超强功能

1. 可编程电流上升率目前市面上的大部分电子负载（非模组式）都没有此项功能。

此项功能是动态测试的基本要求。

嘉拓JT63系列电子负载创新具有此功能。

2. 最小满量程电流上升时间这项功能是电子负载的核心指标，直接反应电子负载的速度。

就如电脑的CPU，直接影响电脑的速度。

目前市面上最快的最小满量程电流上升时间为25uS，如chroma 6310/6330系列，艾德克斯IT85系列为40uS。

速度而嘉拓JT63系列电子负载此项指标仅为10uS。

反应速度极快。

3. 纹波量测，大部分负载都不能测量纹波，需要测量纹波的客户只能买示波器来满足此项要求。

多花钱买一样产品不说，示波器操作专业化程度高，操作繁杂，测试时间长，且对个人主观依赖大，不够客观。

嘉拓电子JT63系列电子负载借助500kHz同步采样技术，可以摆脱示波器，实现纹波量测。

4.Vp+/Vp- 电压峰值、谷值测量此项指标是测试开关电源瞬态测试的必测内容。

嘉拓电子负载创新的支持Vpp/Ipp实时显示，直接观察PARD或震荡幅度。

Vp+/Vp-/Ip+/Ip-实时显示，直接观察电压过冲与跌落、电流浪涌 Vp+/Vp-实时显示，动态模式下，直接观察电压过冲与跌落，判定电不良。

5.时序测试此项功能可测试多路电源开机时序，电源启动/保持/建立时间，电流通断时间等。

大部分负载都没有此项功能，需要借助时序测量卡来完成。

嘉拓JT63系列电子负载创新支持时序测量功能。

6.OCP测试及动态频率扫描大多数负载没有这项功能，致使测试起来效率很低。

嘉拓电子JT63系列电子负载借助DSP技术，可执行自动OCP测试、自动负载效应测试、自动动态变频扫描测试，提高测试效率。

7. OVP 测试大多数负载没有此项功能，需借助示波器来完成。

嘉拓电子JT63系列电子负载创新的支持过压保护点自动捕捉和uS级OVP响应时间量测。

8.数字化波形攫取嘉拓电子JT63系列电子负载创新支持500Khz，4096点，16位精度数字化波形输出电压电流同步采样多种触发方法支持9. 多机同步时序控制嘉拓电子JT63系列电子负载创新支持多达16台负载的同步动态带载，满足多路输出电源交叉影响测试；主机可以是任意一台负载，无需机框，实现低成本模组应用；通过一台主机的程序控制，即可实现16台负载的程序控制。

Chroma 63200 系列可编程直流电子负载说明书

Key Features:Power Rating:2600W,5200W,6500W,10400W,14500W, 15600WVoltage range: 1-80V/ 2.5-500VCurrent range: Up to 1000ACC, CR, CVMaster/Slave paralleling control mode, allow synchronous load control under static and dynamic loading modeDynamic loading: Up to 20KHzOnly need 1V to draw rated currentProgrammable slew rate, up to 41A/uS Measurement: Voltage / CurrentPower/ ResistanceLarge LED/LCD displayExternal loading waveform simulationShort circuit simulation and shortcircuit current measurementFull protection: OPreverse protectionVersatile remote controllerGPIB& RS-232C; RS-485 interfaceSurge load capabilityBattery discharge timerand therefore can test if the battery charger has correct charging current corresponding to its own out-put, or more precisely, the battery voltage. If the UUT is battery, the electronic load is able to simulate the behavior of the device that uses the battery. For most of the electronic and electrical devices, their power consumption patterns are more likely constant power devices.Consequently, CP mode simulation will be essential for a battery discharge load.2. LOW VOLTAGE OPERATING CHARACTERISTICSdirectly.1000A at only 1V input.3. MEASUREMENTSChroma 63200 series are built in the15-bits precision A/D converter, thus can achieve 0.05%F .S., 0.1%F .S. and 0.3%F .S. accuracy for voltage,current and power measurement respectively. And they can be shown simultaneously on three big LED displays for user's convenience. In additional to standard measurements, they also provide voltage and current monitor outputs, which are useful when user needs to monitor the voltage and current waveform via scope.4. DYNAMIC LOADING AND CONTROLparameters of the 63200 load modules. The programmable slew rate makes the simulation of transient load change demanded by the require-ment of real life application possible. The internal waveform generator of 63200 is capable of producing maximum slew rate at 25A/uS (63208),and dynamic cycling up to 20KHz. Its dedicated remote load senses and controls circuit guarantee the minimum waveform distortion during continuous load changes.5. MASTER / SLAVE PARALLEL CONTROLWhen higher power is required,it is common to parallel two elec-tronic loads together to draw higher current. 63200 series high power loads have smart Master / Slave control mode. When the loads are set to Master / Slave mode, users can program the load-ing (CC mode only) on master unit. The loading current values ofthe slave units will be calculated and downloaded by master unit automatically. In short, unlike the traditional design, users may consider several load units that work under Master / Slave mode as a single load unit. It simplifies the user operation dramatically.SIMULATIONThe CC and CR mode loading simula-tion is helpful to test whether the output voltage of the UUT remains stable or regulated under different loading cur-rent or resistance conditions. For bat-tery chargers, CV mode may help tochange the output voltage of a charger 1. APPLICATION SPECIFIC LOAD SIMULATIONChroma electronic loads 63200 series provide constant current, constant resistance, constant voltage and constant power modes for various application requirements.V I V I V I VIConstant current Constant resistance Constant voltage Constant power8. SURGE LOAD CAPABILITYChroma’s 63200 Series D C Loads provide a unique surge load simulation capability which allows users to overdrive the loads up to 2.7 times their rated power for short periods. This feature is ideal when the average power require by the UUT is low compared to short-term peak power demands. Plasma Display Panel (PDPs) testing is one typical applica-tion, others include battery 3C discharge, breaker & fuse over rating (300% to 1000%) tests, car engine startup simu-lation and DC motor startup simulation.The amount of surge loading available using the 63200 loads is related to the initial loading conditions. Figures 1 and 2 show the relationship of initial state (Load_Low under D ynamic mode) and the maximum acceptable overdrive power. Under this operation, the load will display an Over Power Protection Alarm (OPP) and will disable the load cur-rent if the user violates the maximum surge load capability showed in the figures.Note 1 :The Initial state under Static Mode should last at least 1 second. Note 2 :This surge load capability will be regulated by the temperature de-rat-ing characteristics. (Refer to Note 1 in Specifications)Note 3 :Examples below assume the use of the Model 63201 load with a con-tinuous rating of 2600W/300A/1-80VDC9. TIMER FUNCTION FOR BATTERY DISCHARGE TESTINGThe 63200 Loads include unique timing & measurement function allowing for precision time settings and measure-ments in the range of 1s to 99999s. This feature allows users to set a final voltage & timeout value for battery dis-charge testing and similar applications.For Example, Figure 3 below shows that the 63200’s internal timer can be initiated automatically when the battery voltage falls below a preset value. The timer will continue countinguntil the second preset voltage value is reached.Example 1: STATIC LOADINGThe Model 63201 can be overdriven to approximately 5200W (200% of its rated con-tinuous power rating) for 6.0 ms seconds when the starting power is 650W (25% of its rated power). This is represented by DOT on the blue curve in Figure 1.Example 2: DYNAMIC LOADINGThe Model 63201 is capable of a zero – to- 6500W (250%) pulse at a duty cycle of 5%. This is represented by the DOT on the purple curve in Figure 2.7. SHORT CIRCUIT SIMULATION63200 series electronic loads can also simulate short circuit condition. Owing to this capability, it can short DC power source or any power sup-plies that have built in current limit function, and measure their short circuit currents. So that users can verify if the UUT current limit is functional.APPLICATIONSof testing all sorts of DC output power supplies directly or via rectifier, they can also be used to test the AC output power supplies.CC & CR ModeA/ D Power supplyD/ D ConverterBattery chargerUPS/AVR4. SYSTEM INTEGRATIONChroma 63200 series electronic loads provide GPIB, RS-232C and RS-485 PC controllable interfaces. The external waveform simulation and voltage / current monitoring capability make Chroma 63200 family ideal for automatic system integration.Discharge by CR modeDischarge by CP mode1. Power Switch2. LED Display:Voltage read back.3. LED Display:Current/ ohm read back.4. LED Display:Power read back.5. LCD Display:For setting and editing.6. Rotary knob:T o adjust the loading and parameter setting.7. Numeric key:For data setting.8. Function key:T o select load mode, control mode, and define thereading specification.9. System key:For system config and data store, recall.10. Load terminal11. Voltage sense terminal12. RS-485 connector13. GPIB connector14. RS-232C connector15. Voltage monitor output:Analog output which indicates the voltage waveform.16. Current monitor output:Analog output which indicates the current waveform.17. External V reference:External programming voltage input.246351Model: 63203, 63204PANEL DESCRIPTIONModel 63208 / 63209 / 63210Model 63206 / 63207Model 63203 / 63204Model63201 / 63202Model 63205SPECIFICATIONSSPECIFICATIONSSe riesAll specifications are subject to change without notice.Note*1: The power rating specifications at ambient temperature=25. And see the diagram below for power derating. (Derate power by 1.53perfrom 25to 40)Note*2: The Vin is greater than min. operating voltage of each model.Note*3: The Vin is greater than 7V of each model.Note*4: Setting error will be 1% for R<0.005Ωat CRL range.SPECIFICATIONSV-I Curve:Model 63201/ 63203/ 63205/ 63206/ 63207/ 63208/ 63209Low Voltage Operating:Low Voltage & V-I Curve Operating Characteristics (Typical) of 63200 SeriesNote: All specifications are measured at load input terminals. (Ambient temperature of +25)Distributed by:Worldwide Distribution and Service Network63200-200607-PDFCHINACHROMA ELECTRONICS (SHENZHEN) CO., LTD.8F , No.4, Nanyou Tian An Industrial Estate, Shenzhen,China PC: 518054T el: +86-755-2664-4598Fax: +86-755-2641-9620EUROPECHROMA ATE EUROPE B.V.Max Planckstraat 4, 6716 BE Ede, The Netherlands T el: +31-318-648282Fax: +31-318-648288U.S.A.CHROMA ATE INC. (U.S.A.)7 Chrysler Irvine, CA 92618T el: +1-949-421-0355Fax: +1-949-421-0353T oll Free: +1-800-478-2026CHROMA ATE INC.HEADQUARTERS66, Hwa-Y a 1st Rd., Hwa-Y a T echnology Park, Kuei-Shan Hsiang, Taoyuan Hsien 333,TaiwanT el: +886-3-327-9999 Fax: +886-3-327-8898E-mail:*****************.twDeveloped and Manufactured by :63207 : DC Electronic Load 10.4KW/ 300A/ 80V 63208 : DC Electronic Load 15.6KW/ 600A/ 80V 63209 : DC Electronic Load 15.6KW/ 1000A/ 80V 63210 : DC Electronic Load 14.5KW/ 150A/ 500V A600009 : GPIB Cable (200 cm)A600010 : GPIB Cable (60 cm)A632001 :Remote Controller63201 : DC Electronic Load 2.6KW/ 300A/ 80V 63202 : DC Electronic Load 2.6KW/ 50A/ 500V 63203 : DC Electronic Load 5.2KW/ 600A/ 80V 63204 : DC Electronic Load 5.2KW/ 100A/ 500V 63205 : DC Electronic Load 6.5KW/ 180A/ 80V 63206 : DC Electronic Load 10.4KW/ 600A/ 80VA632001ORDERING INFORMATION15A 30A 45A 60A 75A 90A 105A 120A 135A 150A15A30A 45A60A 75A 90A 105A 120A 135A 150A。

chroma63103a图文说明书

chroma63103a图文说明书产品概述：Chroma 6310A系列可编程直流电子负载主要应用于多路或单路输出的AC/DC电源、多路或单路的 DC/DC输出变换器、充电器及电源类电子元件性能测试，对工程师在设计研发、生产线测试及品保的产品检测作业上提供快速有效的测试方案。

6310A系列采模组化设计，使用者可将选购之不同负载功率的模组放进系统主机框，透过前控制板的键盘、RS232、USB与GPIB标准介面来控制。

6310A系列电子负载目前提供8款负载模组，功率从30W到1200W不等；电流可从0.5mA 到 240A；电压量测可从0.5mV到500V。

每个模组采隔离与地浮接方式，避免造成短路回路，每一负载模组均具有两段式电流和电压量测档，主 /从介面的设计可同步执行多组电子负载模组拉载的应用，此负载可在定电流、定电压、定功率与定电阻工作模式下操作。

6310A系列可模拟各种动态负载状态，使用者透过编辑负载电压、负载电流、负载的上升/下降率、电流准位、持续时间等参数来编辑负载波形，测试参数及状态的储存功能多达100组，系统可根据自动测试需求，随时从仪器内的储存单元EEPROM中呼叫出来使用。

6310A系列中每一负载模组皆采多段式16-bit高精密电压电流量测线路，使用者可透过前控制板简易操作的键盘测量及调整在线电压或模拟短路测试。

此外，6310A系列也专为自动化生产线设计可选购配件的遥控器。

6310A系列具有自我诊断系统设计，可自行维护仪器的日常使用，6310A系列还具有过功率、过电流、过温度保护及过电压、正负极反向告警功能，可大幅提高产品可靠性，是工程测试及自动测试系统整合得以信赖的产品。

主要特色：•可根据测试参数设定规格高/低限制， 30W & 250W，300W，600W，1200W•电压操作范围 : 0 ~ 500V•与6310具备高度兼容性•同一机框可达8通道,适合多输出开关式电源供应器测试•高达1200W的负载模块可满足大电流、大功率应用需求•可同步执行多组电子负载模块的应用•定电流、定电阻、定电压及定功率操作模式•动态负载操作频率可达20kHz•高速负载电流变化率,负载上升/下降变化率0.32mA/μs ~ 10A/μs•低输入阻抗,低电压时亦具有大电流带载能力•可仿真电源负载瞬时反应并实时量测输出•使用者可透过前面板编辑100组测试参数及状态储存•可根据测试参数设定规格高/低限制,自动判定测试结果是否有超出设定规格•数字I/O控制•多段式16-bit高精密电压、电流量测线路•过电流（OCP）测试功能•遥控测试功能•短路测试•开机自我检测功能•保护功能 : 过功率、过电流、过温度保护及过电压、正负极反向告警•RS-232、USB（选购）、GPIB（选购）控制接口负载模拟应用6310A的负载模组可以在定电流、定电压、定功率及定电阻的工作模式下操作，因此可以满足各种不同研发及生产测试应用，例如：将负载模组设定在定电压模式下，可很容易地模拟电池之充放电测试的应用。

Chroma LED电源专用负载 63110A 说明书

LED curve I Io Rd
電流放大檢視
Vo
V
以 LED為負載
Working on Better Solutions
設定高頻電阻模擬Ripple Current
Rr：高頻電阻
按CONF.鍵，再按鍵選擇Rr，然後按ENTER鍵進入設定。 Rr的設定有二：1. Default。2.Set。 Rr範圍：5Ω ~ 250Ω。
Working on Better Solutions
Vo & Io 設定與實際輸出
1. 63110A根據使用者設定Vo、Io及Rd Coeff.，來計算並模擬出 LED 特性，如圖，所以Vo、Io 並非實際拉載值。
I LED curve
Vo V F I o R d
Io
Rd
VF Vo
V
使用儀器 AC Source Power Meter 63110A E-load 63110A E-load
AC Source + Power Meter
Working on Better Solutions
為何不用LED當負載來測試
• LED driver的規格會有一適用的電壓範圍，測試時需串聯不同數量的LED，會相當不方便。 • LED的光衰特性會隨時間改變，測試無法得到一致結果。 • 不同款的LED，VF、Rd皆不盡相同，使用者需準備各種不同的LED，確保LED driver都能運作，有其困難度。 • 測試過程中，若串接的LED bar有一顆LED損壞，往往無法馬上察覺，造成錯誤測試數據。
Rr是用來調整漣波電流(ripple current)用的內部阻抗，在LED driver開機時，建議設定為OFF，避免LED driver產生OCP保護。因此Rr的預設值設定為OFF。只有當使用者需要測試LED driver的漣波電流時，再自行將Rr設定為ON。

chroma 可编程直流电阻负载 6300 系列说明书

ױᒳ࿓ऴੌሽ՗૤ሉ6300 ߓ٨ᖙ܂֫םठء1.32007ڣ3ִ֫םறᇆ A11 000011ऄ৳ࠃႈᜢࣔʳءࠌش֫םփ୲ڕڶ᧢ޓΔஏլ׼۩ຏवΖءֆ׹ࠀլኙءࠌش֫םհᔞഇࢤΕᔞٽ܂ਬጟ௽௘شຜհࠌشࢨࠡהٚ۶ࠃႈ܂ٚ۶ࣔقΕᄆقࢨࠡהݮڤհঅᢞࢨᖜঅΖਚءֆ׹ലլኙ֫םփ୲հᙑᎄΔࢨڂᏺ྇Ε୶قࢨאࠡהֱऄࠌشء֫םࢬທګհऴ൷Εၴ൷Εડ࿇ࢤࢨᤉᥛࢤհჾ୭૤ٚ۶ຂٚΖી૊ሽ՗ैٝڶૻֆ׹؀᨜ઊ௒Ⴜᗼᚋ՞ၢဎࠅઝݾႼ೴ဎࠅԫሁ66ᇆठᦞᜢࣔΚထ܂Գѧી૊ሽ՗ैٝڶૻֆ׹ѧ۫ց2003-2007ڣΔठᦞࢬڶΔ៬ٱؘߒΖآᆖءֆ׹ٵრࢨࠉထ܂ᦞऄհ๵ࡳ଱๺Δլ൓ૹ፹Εᆏᙕࢨ៬᤟ءࠌش֫םհٚ۶փ୲Ζiiঅᢞ஼ી૊ሽ՗ैٝڶૻֆ׹ऺ਍Ϛ঴ᔆรԫਢຂٚΔড়֪የრਢዊᥩϛհॾ࢚Δኙࢬ፹ທ֗ᔭഇհข঴۞ٌຄֲದԫڣփΔঅᢞإൄࠌشՀขسਚᎽࢨჾᡏΔ૤ຂ܍၄ଥ༚ΖঅᢞཚၴփΔኙ࣍Հ٨ൣݮհԫृΔءֆ׹լ૤܍၄ଥ༚ຂٚΔءֆ׹࣍ଥ༚৵ࠉፂଥൣउ಼گ၄شΚ1. ॺءֆ׹ࢨءֆ׹إڤ඄ᦞז෻೸ऴ൷ᔭഇհข঴Ζ2. ڂլױݼࢴհ߀᧢Δࢨױូຂ࣍ࠌشृآᙅᅃᖙ܂֫ם๵ࡳࠌشࢨࠌشԳհመ؈Δڕᖙ܂լᅝࢨࠡה๠ᆜທګਚᎽࢨჾᡏΖ3. ॺᆖءֆ׹ٵრΔᖐ۞ࣈ࠵ଥ෻ࢨ۞۩ޏᇘࢨףᇘॵ᥆঴ΔທګਚᎽࢨჾᡏΖঅᢞཚၴփΔਚᎽࢨჾᡏհፂଥ঴Δࠌشृᚨ૤ຂሎಬࠩءֆ׹ࢨءֆ׹ਐࡳհچរΔࠡಬሒհ၄شطࠌشृ૤ᖜΖଥ༚ݙฅ৵ሎٌࠌشृ(ૻ؀᨜چ೴)ࢨࠡਐࡳچរ(ૻ؀᨜چ೴)հ၄شطءֆ׹૤ᖜΖሎಬཚၴհঅᙠطࠌشृ۞۩ٻঅᙠֆ׹ދঅΖી૊ሽ՗ैٝڶૻֆ׹௒Ⴜᗼʳ333 ᚋ՞ၢဎࠅઝݾႼ೴ဎࠅԫሁ66ᇆʳሽᇩΚ(03)327-9999ႚటΚ(03)327-2886ጻܿΚiii๻ໂ֗ޗறۆ਩൳ࠫᜢࣔءข঴հڶ੅ڶ୭ढᔆࢨցై।Κڶ੅ڶ୭ढᔆࢨցైሩޤ᠟ք᪔Ꮀڍᄽᜤ૖ڍᄽᜤ૖ੈຝٙټጠPb Hg Cd Cr6+ PBB PBDE PCBA °ϤϤϤϤϤᖲ °ϤϤϤϤϤᑑᄷ಻ٙ°ϤϤϤϤϤץᇘޗறϤϤϤϤϤϤϤΚ।قᇠڶ੅ڶ୭ढᔆڇᇠຝٙࢬڶ݁ᔆޗறխऱܶၦڇSJ/T 11363-2006ፖEU 2005/618/EC๵ࡳऱૻၦ૞ޣאՀΖ°Κ।قᇠڶ੅ڶ୭ढᔆ۟֟ڇᇠຝٙऱਬԫ݁ᔆޗறխऱܶၦ၌נSJ/T 11363-2006ፖEU 2005/618/EC๵ࡳऱૻၦ૞ޣΖ1. Chromaࡸآ٤૿ݙګྤሩ෬ᙔፖޗற᠏ངΔਚຝ঴ܶሩၦآ٤૿ฤٽૻၦ૞ޣΖ2. ข঴ڇࠌش֫םࢬࡳᆠհࠌشᛩቼයٙՀΔױᒔঅࠡᛩঅࠌشཚૻΖ๠ᆜ֊֎ലء๻ໂ๠෻੡آ։ᣊऱᐒඵढΔء๻ໂᏁ೚։ᣊڃگΖڶᣂᐒඵढگႃߓอऱಛஒΔᓮᜤ࿮၆ֆ׹ࢬڇچऱઌᣂਙࢌᖲᣂΖ೗ૉലሽ՗ሽᕴ๻ໂٚრهඵ࣍ࡑ݃ൽୖچࢨࡑ݃໱Δڶ୭ऱढᔆᄎዶዥၞچՀֽࠀၞԵଇढᢸΔലᄎჾ୭೜ൈΖᅝޓང៱ᇘᆜழΔሿഇ೸ڇऄ৳Ղڶᆠ೭૞܍၄ڃگ׊๠෻៱ᇘᆜΖivठءଥૡધᙕՀ૿٨قء֫ם࣍ޢڻठءଥૡழᄅᏺΕܔ྇֗ޓᄅऱີᆏΖֲཚठءଥૡհີᆏ2003ڣ3ִ 1.0 ݙګء֫םΖ2003ڣ12ִ 1.1 ᄅᏺ“௹౗کനϿ໺Ꮴਔ໔”ԫᆏΖ2005ڣ6ִ 1.2 ޓޏી૊ሽ՗հچܿ֗ሽᇩΖ2007ڣ3ִ 1.3 ᄅᏺ“೛ഢϷ׷਑Ԧࢉ௓ڋᖂܴ”Ζvױᒳ࿓ሽ՗૤ሉ6300ߓ٨ᖙ܂֫םؾ ᙕ1.ᄗᓵ.................................................................................................................................1-1 1.1 ១տ.........................................................................................................................1-1 1.2 ׌૞௽ۥᄗᨠ.........................................................................................................1-2 1.3 ๵௑.........................................................................................................................1-32. ڜᇘ.................................................................................................................................2-1 2.1 ᛀ਷.........................................................................................................................2-1 2.2 ࣈೈᎅࣔ.................................................................................................................2-1 2.3 ༺Եڤ૤ሉᑓิ.....................................................................................................2-2 2.4 ޏ᧢ሽᄭሽᚘऱ๻ࡳ.............................................................................................2-2 2.5 ၲᖲ۞ݺྒྷᇢ.........................................................................................................2-2 2.6 ᚨشழհຑ൷ֱڤ.................................................................................................2-32.6.1 ԫ౳૤ሉऱຑ൷.............................................................................................2-3 2.6.2 ሽᚘ᎟ྒྷऱຑ൷.............................................................................................2-3 2.6.3 ᠧಛၦྒྷऱຑ൷.............................................................................................2-4 2.6.4 ࠀᜤڤຑ൷.....................................................................................................2-4 2.6.5 ڍૹิٽؓ؀ຑ൷.........................................................................................2-4 2.7 GP I B ׬ऱڜᇘ.......................................................................................................2-53. ᖙ܂.................................................................................................................................3-1 3.1 ១տ.........................................................................................................................3-1 3.2 ছ૿ࣨፖ৵હࣨ.....................................................................................................3-1 3.2.1 ছ૿ࣨ.............................................................................................................3-1 3.2.2 ৵હࣨ.............................................................................................................3-5 3.3 ߓอ಻ᆜ೶ᑇ.........................................................................................................3-6 3.4 ᖙ܂ᑓڤ...............................................................................................................3-14 3.4.1 ࡳሽੌ(CC)ᑓڤ...........................................................................................3-14 3.4.2 ࡳሽॴ(CR)ᑓڤ...........................................................................................3-15 3.4.3 ࡳሽᚘ(CV)ᑓڤ...........................................................................................3-15 3.4.4 ࡳפ෷(CP)ᑓڤ...........................................................................................3-16 3.5 ૤ሉᖙ܂...............................................................................................................3-16 3.5.1 ᙩኪ૤ሉ.......................................................................................................3-16 3.5.2 ೯ኪ૤ሉ.......................................................................................................3-17 3.6 ڍิ૤ሉᖙ܂.......................................................................................................3-18 4.໢ᖲᖙ܂.........................................................................................................................4-1 4.1 ១տ.........................................................................................................................4-1 4.2 ૤ሉणኪऱ๻ࡳ.....................................................................................................4-1 4.2.1 ᙩኪ૤ሉ.........................................................................................................4-1 4.2.2 ೯ኪ૤ሉ.........................................................................................................4-3 4.3 ๵௑ྒྷᇢऱ๻ࡳ.....................................................................................................4-6 4.4 ᚏژፖ׻נ.............................................................................................................4-9 4.5 ၦྒྷ.........................................................................................................................4-9viiױᒳ࿓ሽ՗૤ሉ6300ߓ٨ᖙ܂֫ם4.5.1 ሽᚘΕሽੌऱၦྒྷ.......................................................................................4-114.5.2 פ෷ऱၦྒྷ...................................................................................................4-124.5.3 ሽᚘᠧಛऱၦྒྷ...........................................................................................4-12 4.6 ࿍ሁྒྷᇢ...............................................................................................................4-12 4.7 ؆ຝंݮऱ൳ࠫ...................................................................................................4-13 4.8 ඙෷ࡉ່֟ႚᖄழၴ...........................................................................................4-13 viiiᮂᓵ1. ᄗᓵ1.1 ១տChroma 6300ཕᐝীሽ՗૤ሉץܶ6304Ε6301ิٽؓ؀(Mainframe)Δא֗63006Ε63010Ε63025Ε63030ሽ՗૤ሉᑓิ(Module)Ζ6304ፖ6301։ܑױ୲౏4ଡ֗1ଡ૤ሉᑓิΖ೶ߠቹ1-1֗1-2 (ڇՀԫ଄)Ζ6304ץਔԫଡ๠෻ᕴΕGPIB׬(ᙇᖗ಻ໂ)Εছ૿ࣨਊ᝶Εಖᖋ᧯ิܑ᧩قᕴΔא֗ࠡהሽ՗ᑓิ൳ࠫऱሽሁΖ6301୲౏໢ԫ૤ሉᑓิΔ܀ਢլࠠໂGPIB׬Ζ༺Եٚ۶ᑓิ࣍ิٽؓ؀խࢬዌګऱሽ՗૤ሉΔڇࠌشՂ༼ࠎԱᗑمڤऱᖙ܂ᑓڤΖڼ؆Δ៶ထሽᆰΔຘመGPIBႪੌඈΔױ൳ࠫ6304ิٽؓ؀(೶ߠChroma 6300 Programming Guide)Ζࢨ៶ထRC63᎟൳ᕴΔᆖطRS232കΔٍױ൳ࠫ6304ิٽؓ؀(೶ߠChroma 6300 Operation Manual via RC63)ΖࢨृڇATEऱߓอխΔ6304ิٽؓ؀ױᅝ܂ԫଡᑓิΔش࣍۞೯ྒྷᇢ֗ၦྒྷ(೶ߠChroma 6000E ATS Operation Manual)ΖChroma 6300ߓ٨ข঴ٍ༼ࠎᙇᖗࢤऱᑓิڕ6305ழݧ։࣫ᑓิΕ6307OVPᤉሽᕴ൳ࠫᑓิΕ6308ၦྒྷᑓิΖᣂ࣍6305Ε6307֗6308ऱփ୲Δࠌشृױ೶ە6000Eࠌش֫םΖ6305Ε6307֗6308ڇছ૿ࣨՂڶٺ۞ऱᙁԵጤ՗Δٍڶٺ۞ऱຏಛႪੌඈא൷ຏิٽؓ؀Ζ6300ሽ՗૤ሉߓอش࣍ऴੌሽᄭࠎᚨᕴΕ೓ሽۃΕሽԺሿิٙऱ๻ૠΕ፹ທא֗ྒྷᇢေ۷࿛ֱ૿Ζءີץਔሽ՗૤ሉᑓิऱ๵௑।Δא֗ڶᣂᚨشֱ૿ऱጟጟ௽ۥΖࠡਲऱີᆏঞᝑ૪ሽ՗૤ሉऱڜᇘፖᖙ܂Ζ1-1ױᒳ࿓ሽ՗૤ሉ6300ߓ٨ᖙ܂֫םቹ1-2 6301ิٽؓ؀(ױ୲౏1ଡ૤ሉᑓิ)1.2 ׌૞௽ۥᄗᨠ1. ิګzኙิٽؓ؀ආ༺Եڤ૤ሉᑓิֱڤΔױ೚ᏅࠠᐘࢤऱิٽΖz໢ԫᑓิᆖطছ૿ࣨਊ᝶ܛױሒګ٤פ౨ྒྷᇢΖ1-2ᮂᓵzຘመGPIBऱሽᆰ൳ࠫΔא֗ᆖطRS-232տ૿ऱ᎟൳ᕴ(RC63)Ζzܓش٠ᓀٽᕴऱሶᠦΔࠌޢଡ૤ሉᑓิၴݙ٤࿪ᒴΖzመሽᚘΕመሽੌΕመפ෷Εመᄵ৫Δא֗֘ઌᙁԵሽᚘऱঅᥨΖ2. ૤ሉz CCΔCRΔCV ֗CPऱᖙ܂ᑓڤΖzױ࿓ڤ᧢೯෷Ε૤ሉՕ՛Ε૤ሉၜཚΔא֗ࢮሉሽᚘ (Von)Ζzຒ෷ሒࠩ20KHz ऱױ࿓ڤ೯ኪ૤ሉΖz່՛ᙁԵሽॴΔױࠌ૤ሉڇ܅ሽᚘ (lV) ऱൣउՀࢮሉ೏ሽੌΖz៶طᣊֺሽᚘᙁԵሒګऱ؆ຝ൳ࠫΖzױᙇᖗऱሽᚘ֗ሽੌᒤ໮Ζz᎟ྒྷ౨ԺΖzطࠌشृ۞۩๻ࡳᛩቼΔא֗ၲᖲ۞೯٦ࡅ׻Ζz 100ิಖᖋ᧯ࠎᚏژ֗٦ࡅ׻ࠌشृ۞۩๻ࡳऱᛩቼΖ3. ၦྒྷzࠠڶતᒔၦྒྷࢤ౨ऱ15ۯցA/D᠏ངᕴΖzሽᚘΕሽੌΕᠧಛVppא֗פ෷ऱܛழၦྒྷᑓڤΖz᙮ᐈ੡1KΔ10KΔ100KΔ1M֗20MHzऱᠧಛၦྒྷΖz࿍ሁᑓᚵΖz᎖ܗሽᚘᓳᖞऱᒵࢤၦྒྷࠥ৫᧩قΖzᒔࡳৱྒྷढਢܡ๠࣍๵௑փऱ۞೯GO/NGᛀ਷Ζ1.3 ๵௑Model 63006 63010 63025 63030Power20W 60W 20W 100W 250W 30W 300W 60W Current0~0.6A 0~6A 0~2A 0~20A 0~10A 0~6A 0~60A 0~12A Voltage2~64V (2~60V in CR ) 2~64V (2~60V in CR ) 2~256V (2~250V in CR ) 2~64V (2~60V in CR ) Minimum Operation Voltage0.9V at 0.6A 1.0V at 6A0.9V at 2A 1.0V at 20A 1.5V at 10A0.8V at 6A 1.0V at 60A 0.8V at 12A Constant Current Mode0~0.6A 0~6A 0~2A 0~20A 0~10A 0~6A 0~60A 0~12A Resolution 0.15mA 1.5mA 0.5mA 5mA 2.5mA 1.5mA 15mA 3mAPrecision 0.1нЀ0.1нF.S 0.1нЀ0.2нF.S0.1нЀ0.1нF.S0.1нЀ0.2нF.S0.1нЀ0.2нF.S0.1нЀ0.1нF.S0.1нЀ0.2нF.S0.1нЀ0.1нF.SConstant Resistance Mode10Ө~40kӨ(60W) 0.25~1kӨ(60W)3Ө~12kӨ(100W)0.075~300Ө(100W)0.25Ө~1kӨ(250W)1Ө~4kӨ(300W)0.025Ө~100Ө(300Wα2Ө~2kӨ(600W)Resolution 12 bits 12 bits 12 bits 12 bits 12 bits 12 bits 12 bits 12 bitsPrecision 0.1 (0.25~100Ө)0.01 (100Ө~1kӨ)0.1 (0.075~50Ө)0.01 (50Ө~500Ө)0.1 (0.25Ө~100Ө)0.01 (100Ө~1kӨ)0.1 (0.1Ө~100Ө)0.01 (100Ө~1000Ө)Constant Voltage Mode1~64V 1~64V 1.5~256V 1~64V Resolution 16mV 16mV 64mV 16mV Precision 0.05нЀ0.1нF.S 0.05н̈́.0.1нF.S 0.05нЀ0.1нF.S 0.05нЀ0.1нF.SConstant Power Mode 0.003~20W 0.03~60W0.01~20W 0.1~100W0.6~250W0.03~30W 0.3~300W 0.06~60W Resolution 0.3mW 3mW 1mW 10mW 20mW 3mW 30mW 6mW Precision 2нF.S 3нF.S 2нF.S 3нF.S 3нF.S 2нF.S 3нF.S 2нF.S1-3ױᒳ࿓ሽ՗૤ሉ6300ߓ٨ᖙ܂֫םDYNAMIC LOAD SIMULATIONMODE C.C. & C.R. C.C. ϟ C.R. C.C. ϟ C.R. C.C. ϟ C.R.Period (T1ϟT2) 0.025ms~50ms 1ms~10s0.025ms~50ms1ms~10s1ms~10s0.025ms~50ms1ms~10s0.025ms~50msResolution 1Ӵs 1ms 1Ӵs 1ms 1ms 1Ӵs 1ms 1Ӵs Precision 2нF.S 2нF.S 2нF.S 2нF.SSlew Rate 0.1~25mA/Ӵs 1.0~250mA/Ӵs 0.32~80mA/Ӵs3.2~800mA/Ӵs1.6~400mA/Ӵs0.001~0.25A/Ӵs0.01~2.5A/Ӵs0.002~0.5A/ӴsResolution 0.1mA/Ӵs 1.0mA/Ӵs0.32mA/Ӵs 3.2mA/Ӵs 1.6mA/Ӵs0.001A/Ӵs 0.01A/Ӵs 0.002A/ӴsPrecision 10н̈́20Ӵs 10н̈́20Ӵs 10н̈́20Ӵs 10н̈́20ӴsCurrent Level0~0.6A 0~6A 0~2A 0~20A 0~10A 0~6A 0~60A 0~12A Resolution 0.15mA 1.5mA 0.5mA 5mA 2.5mA 1.5mA 15mA 3mAPrecision 0.3нF.S 0.3нF.S 0.3нF.S 0.3нF.SEXT ERNAL WAVEFORM CONT ROLCurrent Level0~0.6A 0~6A 0~2A 0~20A 0~10A 0~6A 0~60A 0~12A Voltage Level 0~10V 0~10V 0~10V 0~10V Precision0.2нF.S 0.25нF.S0.2нF.S 0.25нF.S0.25нF.S0.2нF.S 0.25нF.S 0.2нF.SSHORT CIRCUIT T ESTInput Impedance 0.08Ө(MAX) 0.04Ө(MAX) 0.025Ө(MAX) 0.016Ө(MAX)Maximum Current6A 20A 10A 60A Input Impedance (LOAD OFF) 100kӨ(MIN) at 60V 100kӨ(MIN) at 60V 300kӨ(MIN) at 250V 100kӨ(MIN) at 60V Temperature Coefficient 100PPM/к (typical) C.C 100PPM/к (typical) C.C 100PPM/к (typical) C.C 100PPM/к (typical) C.CMEASUREMENTVoltage Range0~16V 16~64V 0~16V 16~64V25.6~256V0~16V 16~64V 0~16VResolution 0.5mV 2mV 0.5mV 2mV 8mV 0.5mV 2mV 0.5mV Precision 0.02нЀ0.1нF.S 0.02нЀ0.1нF.S 0.02нЀ0.1нF.S 0.02нЀ0.1нF.SCurrent Range0~0.6A 0~6A 0~2A 0~20A 0~10A 0~6A 0~60A 0~12A Resolution 0.0187mA 0.1875mA0.0625mA 0.625mA0.312mA0.1875mA 1.875mA 0.375mAPrecision 0.1нЀ0.1нF.S 0.1нЀ0.1нF.S 0.1нЀ0.1нF.S 0.1нЀ0.1нF.SPower Range0~20W 20~60W 0~20W 20~100W25~250W0~30W 30~300W 0~60W Resolution 0.0375mW 0.375mW0.125mW 1.25mW 2.5mW 0.375mW 3.75mW 0.75mWPrecision 0.5нF.S 0.5нF.S 0.5нF.S 0.5нF.SRemote Sense Current Range0~0.6A 0~6A 0~2A 0~20A 0~10A 0~6A 0~60A 0~12A Remote Sense Voltage Output0~10V 0~10V 0~10V 0~10V 0~10V 0~10V 0~10V 0~10V Precision 0.5нF.S 0.5нF.S 0.5нF.S 0.5нF.SPROT ECT ION CIRCUITOver PowerЍ20.8W Ѝ62.4W Ѝ20.8W Ѝ104W Ѝ260W Ѝ31.2W Ѝ312W Ѝ62.4WOver CurrentЍ0.612A Ѝ6.12A Ѝ2.04A Ѝ20.4A Ѝ10.2A Ѝ6.12A Ѝ61.2A Ѝ12.24Over VoltageЍ65V Ѝ65V Ѝ260V Ѝ65VOver TemperatureЍ85кЍ85кЍ85кЍ85кReverse PolarityЍ6A (during 1 min) Ѝ20A (during 1 min) Ѝ10A (during 1 min) Ѝ60A (during 1 min)OTHERSInput Power Supply from 6304 Mainframe Supply from 6304 Mainframe Supply from 6304 Mainframe Supply from 6304 MainframeSize (cmͪcmͪcm)104(W)ͪ143(H)ͪ470(D) 104(W)ͪ143(H)ͪ470(D) 104(W)ͪ143(H)ͪ470(D) 104(W)ͪ143(H)ͪ470(D)Weight5ц5ц5ц5цڜᇘ2. ڜᇘ2.1 ᛀ਷ءᏚᕴԫ؟ၲ৞Δ٣ᛀ਷ሎᙁխױ౨ᖄીऱٚ۶ᄤჾΖലࢬڶץᇘޗறگದࠐΔאໂᆄԫءข঴ႊሎڃ๠෻ழױشΖૉڶ࿇෼ٚ۶ᄤჾΔᓮمܛٻሎຄृ༼נᓽᚍ૞ޣΖ֎آᆖࠃ٣ٵრܛലءข঴ሎڃՠᐗΖ2.2 ࣈೈᎅࣔࣈೈءᏚᕴழᓮ೶ᅃቹ2-1Ζࠌشছ٣ࣈೈঅᥨࣨΔ٦༺ԵሽᄭᒵΖࣈೈႉݧڕՀࢬ૪Κ1. ᝅ࿭ಽ2. ጤ՗3. অᥨࣨױᒳ࿓ሽ՗૤ሉ6300ߓ٨ᖙ܂֫ם2.3 ༺Եڤ૤ሉᑓิലᑓิڜᇘࠩิٽؓ؀ՂլᏁٚ۶௽௘ՠࠠΖ6304ิٽؓ؀ڶߩജऱ़ၴΔױ୲౏4ଡ໢ԫᐈ৫ऱᑓิΔڕChroma 63030Ζۖ6301ิٽؓ؀ঞႛ౨୲౏1ଡ໢ԫᐈ৫ऱᑓิΖຍࠟଡิٽؓ؀ऱᑓิڜᇘ࿓ݧਢઌٵऱΖ٣ലิٽؓ؀ሽᄭᣂൾΔ٦ലሽ՗૤ሉᑓิ༺Եิٽؓ؀ऱᑒ֞ᄚΔऴࠩ᠙߂੡ַΖ඿ࢸנ૤ሉᑓิΔঞ༼ದඝ᠏ၨՀֱऱ׬ዐΔش૤ሉຑ൷ᕴΔലᑓิ۞ิٽؓ؀խࢮנΖ2.4 ޏ᧢ሽᄭሽᚘऱ๻ࡳቹ2-2᧩قิٽؓ؀ࢍᐋऱࠟଡሽᄭሽᚘᙇᖗၲᣂSW1֗SW2Ζሽ՗૤ሉऱሽᄭሽᚘᙁԵױ๻੡100Δ115Δ200ࢨ230VacΖڕ࣠נᐗ๻ࡳլฤٽ܃ऱᑑጠሽᄭሽᚘΔঞڇᣂൾิٽؓ؀Δ׊֊ឰሽᄭᒵऱൣउՀޓޏၲᣂΖቹ2-2 ሽᄭሽᚘ๻ࡳشऱਐᐸၲᣂ2.5 ၲᖲ۞ݺྒྷᇢലۯ࣍ิٽؓ؀ছ૿ࣨऱሽᄭၲᣂؚၲΖၲᖲ৵ሽ՗૤ሉمܛၞ۩۞ݺྒྷᇢΔࢬڶLCD ऱฤᇆ֗ᑇۯઃၲࡨሎ܂Ζԫઞᤪհ৵ΔڇLCDऱᘛ٠ኟՂ᧩ق “SYS CHECK”Ζ൷ထ᧩قᖲীᇆᒘ֗ႇ᧯ठءᇆᒘΔࠏڕ “63030” ֗ “3.02-C”Ζ່৵LCDೖַ᧢֏Δࠀ᧩ق“0.0000V and 0.000A”Δ।ق૤ሉբຏመ۞ݺྒྷᇢΔ׊ᄷໂሎ܂Ζૉྤऄᖙ܂Δঞല׌ᖲࢨᑓิሎڃChromaऱፂଥխ֨๠෻Ζڜᇘ2.6 ᚨشழհຑ൷ֱڤ2.6.1 ԫ౳૤ሉऱຑ൷ቹ2-3ࢬقԯਢ૤ሉᑓิຑ൷ࠩৱྒྷढऱࠢীڜᇘֱڤΖ૤ሉᑓิၦྒྷ૤ሉຑ൷ጤ՗ՂհሽᚘΔڂڼຍጟຑ൷ਢش࣍ᅝຑ൷ሽᒵՂऱሽᚘ૾ॺൄ܅ழΖࣹრΚڇ૤ሉऱྒྷᇢխΔᓮش֫ലຑ൷ࠩছጤऱྒྷᇢጤ՗ᚳጹΖ֊֎ࠌشٚ۶ᕴࠠΔא܍ჾᡏྒྷᇢጤ՗Ζ2.6.2 ሽᚘ᎟ྒྷऱຑ൷ፖՂ૪ઌ֘Δሽᚘ᎟ྒྷਢ៶ထኙৱྒྷढऱᙁנጤ՗೚ၦྒྷΖຍጟֱڤ௽ܑش࣍Ꮑ૞९ऱຑ൷ሽᒵΔࢨՕऱሽੌࢮሉழΖڕቹ2-4ࢬقΔ૤ሉᑓิ༼ࠎሽᚘၦྒྷጤ՗אၞ۩ሽᚘ᎟ྒྷΖױᒳ࿓ሽ՗૤ሉ6300ߓ٨ᖙ܂֫ם2.6.3 ᠧಛၦྒྷऱຑ൷ቹ2-5ࢬقԯਢܓشᑓิၦྒྷᠧಛऱڜᇘֱڤΖᠧಛၦྒྷऱጤ՗ਢຑ൷ࠩሽᄭࠎᚨᕴऱᙁנጤΖ2.6.4 ࠀᜤڤຑ൷ቹ2-6ࢬقԯਢലᑓิࠀᜤאᏺף૤ሉ୲ၦऱࠌشֱڤΖᑓิڇCCΔCRࢨCPᑓڤխױऴ൷ࠀᜤΔ܀ڇCVᑓڤխঞլױΔೈॺהଚ๻ࡳऱሽᚘਢઌٵऱΖࠀᜤᑓิڇᑇؾՂࢬ࠹ऱૻࠫΔႛݝૻ࣍ڍૹิٽؓ؀ᛩቼխױشऱ٤ຝᑓิᑇ(ߠ2.6.5ᆏ)Ζ2.6.5 ڍૹิٽؓ؀ຑ൷ሽ՗૤ሉߓอऱڍૹิٽؓ؀ٵޡ֏ຑ൷່ڍױ൷4ຝิٽؓ؀Ζࠌشृױຑ൷1ຝิٽؓ؀৵હࣨՂऱߓอ1ࢨߓอ2കΔᅝ܂ءิٽؓ؀ऱᙁԵകΔྥ৵٦ܓشໍਲऱകΔᙁנ۟Հԫຝิٽؓ؀Ζഗ࣍ߓอऱิګΔڇڼ৬ᤜࠌشृലԫຝิٽؓ؀Ղऱߓอ1കΔຑ൷ࠩ׼ԫຝิٽؓ؀ऱߓอ2കΖቹ2-7 (ڇՀԫ଄) ࢬقԯਢຑ൷ิٽؓ؀1Εิٽؓ؀2ࠩิٽؓ؀3Ζ2.7 GPIB׬ऱڜᇘ6304ิٽؓ؀׼ױຘመGPIBႪੌඈሒګ᎛ጤ൳ࠫΖGPIB׬ऱڜᇘΕGPIBۯܿऱ᧢ޓΔא֗GPIBऱᖙ܂ڇChroma 6300 Programming Guideխ݁։ܑڶᎅࣔΖ3. ᖙ܂3.1 ១տޢԫଡᑓิຟױଡܑ๻ࡳ੡CCΔCRΔCVࢨCPᖙ܂ᑓڤΔ࣍լٵऱሽ՗૤ሉՂᑓᚵᚨشΔࠀ׊ױٵழၦྒྷሽੌΕሽᚘΕפ෷ࡉᠧಛሽᚘ(ᙇᖗ಻ໂ)Ζࠌشृױڇլຑᒵ(load off)ऱൣउՀΔᒳᙀ૤ሉऱሎ܂೶ᑇΖڼ؆ڇٚ۶ԫጟᖙ܂ᑓڤխΔױ࣍ຑᒵ(load on)ழ೯ኪޓޏ૤ሉऱࢮሉणኪΔڂڼ࣐࣍ሒګ່ࠋྒྷᇢய࣠ΔࠀױᚏژᑇଖאࠎՀڻᖙ܂ழࠌشΖڼᑓิױᨃࠌشृࠉլٵऱᖙ܂ᑓڤΔᙁԵৱྒྷढऱሽᚘࢨሽੌ๵௑Δ೚੡GO/NGܒࡳࠌشΖ׼؆Δޓ࣍LCD᧩قኟՂ༼ࠎᒵࢤၦྒྷऱࠥ৫᧩قֱڤΔאঁࠌشृ೚੡೯ኪᓳᖞࠌشΖءີץਔছ૿ࣨΕ৵હࣨऱפ౨ࡉሎ܂ழ೶ᑇ಻ᆜࠌشΔא֗CCΔCRΔCVࡉCPᖙ܂ᑓڤΔࡉᙩኪፖ೯ኪ૤ሉऱᖙ܂ֱڤհᎅࣔΖ3.2 ছ૿ࣨፖ৵હࣨ3.2.1 ছ૿ࣨױᒳ࿓ሽ՗૤ሉ6300ߓ٨ᖙ܂֫םႈؾ ټጠᎅࣔ1 Save ᝶ Save ᝶חࠌشृലٺᑓิᖙ܂೶ᑇٵழژԵಖᖋ᧯ิܑ խΔิܑ᧩ق࣍LED ՂΖ2 Recall ᝶ Recall ᝶חࠌشृലٺᑓิᖙ܂೶ᑇٵழ۞ಖᖋ᧯ิܑխ ׻נΔิܑ᧩ق࣍LED ՂΖ3 Local ᝶ Local ᝶חࠌشृڇ૤ሉᑓิ๠࣍᎟൳ᑓڤՀΔ਀༚ٺᑓ ิ੡ءᖲ൳ࠫᑓڤΖ4 ሽᄭၲᣂ ሽᄭၲᣂΖ5ಖᖋ᧯ิܑ ਐقᕴ ڇ૤ሉᑓิփ৬ڶ100ิಖᖋ᧯Δאᚏژሽ՗૤ሉऱᖙ܂೶ᑇΖࠌشृױൕ00۟99ऱቃ٣๻ࡳհಖᖋ᧯խΔژԵࢨ׻נٚ۶ಖᖋ᧯ิܑΖ6ϧፖϰ᝶ϧፖϰ᝶חࠌشृޏ᧢ಖᖋ᧯ิܑऱᇆᒘΖz LCD ऱ᧩قฤᇆᖙ܂z ছ૿ࣨਊ᝶(૤ሉᑓิ)ױᒳ࿓ሽ՗૤ሉ6300ߓ٨ᖙ܂֫םz ছ૿ࣨຑ൷ᕴຑ൷ᕴࡳᆠV TERMINAL ءຑ൷ᕴش࣍᎟ྒྷৱྒྷढऱጤ՗Δױװೈຑ൷ሽᨱՂऱٚ۶ሽᚘ૾Ζڕ࣠آຑ൷Δءၦྒྷጤ՗ᄎ۞೯֊ངࠩLOADຑ൷ᕴΖNOISE TERMINAL ءຑ൷ᕴش࣍ᠧಛሽᚘၦྒྷΖI.M. TERMINAL ءຑ൷ᕴਢଡBNCຑ൷ᕴΔش࣍጑൳૤ሉሽੌΖLOAD TERMINAL ءᙁԵຑ൷ᕴش࣍ຑ൷ሽ՗૤ሉፖৱྒྷढΖદۥऱਢإᄕΔۖ႕ۥऱঞਢ૤ᄕΖ3.2.2 ৵હࣨႈؾࡳᆠ1GPIB Interface: GPIBտ૿ش࣍ຑ൷ࠌشሽᆰऱ᎟൳ᕴΖ2Remote: RS232കش࣍ຑ൷᎟൳ᕴRC63Ζ3System1 & System2: আګڍૹิٽؓ؀ٵޡᖙ܂ऱຑ൷ᕴΖ4Ext. Wave In: ءຑ൷ᕴױࠌ؆ຝ࿓ڤ֏ᣊֺಛᇆᚨش࣍CCᑓڤխΔא൳ࠫ૤ሉᑓิΖಛᇆਢऴ൷ຑ൷ࠩᑓิΔլᆖሶᠦΖ5Fuse: ش࣍অᥨመሉणኪΖ6AC Line: ءACሽᄭຑ൷ᕴࠎሽ࿯׌ᖲխऱࢬڶᑓิΖ7Cooling Fan: ءཋᑷଅ஛ऱຒ෷ᙟထٺ૤ሉᑓิփᄵ৫ऱ֒૾ۖ۞೯ᏺ྇Ζ3-53.3 ߓอ಻ᆜ೶ᑇءሽ՗૤ሉࠠڶԫࠄڶشऱ௽រڕVon ൳ࠫΕCV ᑓڤխऱૻሽੌΕփຝ/؆ຝंݮᑓᚵΕٵޡ൳ࠫ࿛Ζࠌشຍࠄ௽រհছΔࠌشृؘႊ௅ᖕߓอิګՂऱᚨشᏁޣΔ๻ࡳઌᣂऱ೶ᑇΖڼԫޡᨏႛڇ່ॣऱྒྷᇢՂᄎشࠩΖٺႈ௽ࡳᚨشऱߓอ಻ᆜ೶ᑇ໢ᗑژԵಖᖋ᧯ิܑΔڕՀࢬ૪Ζ඿ၞԵߓอ಻ᆜ೶ᑇᑓڤΔࠌشृؘႊٵழਊၞԵءߓอΔհ৵٦ਊᅃאՀऱޡᨏ৬مڶᣂऱ೶ᑇΖz Von(ࢮሉሽੌ)រΚਊLCD ᧩قڕՀΚڼޡᨏش࣍๻ࡳVon ऱ೶ᑇΖᅝৱྒྷढऱᙁנሒࠩVon ሽᚘழΔሽ՗૤ሉၲࡨࢮሉሽੌΔۖڼழᇠVon ೶ᑇܛਢၲࡨࢮሉऱሽᚘሽۯΖwpmubhfujnfujnfdvssfouWpoቹ3-63-6ࠌشृױ᠏೯ඝ᠏ၨऴࠩLCD᧩قנࢬუ૞ऱଖΔྥ৵Հԫଡ๻ࡳΖု1Κڇࢬڶᖙ܂ՂຟؘႊਊՀΔܡঞଖᄎፂ਍ڇ٣ছᚏژऱ߷ԫଡΖု2Κڕ࣠ࠌشृլუଥޏ೶ᑇΔױਊ᧢ࠩছԫଡࢨՀԫଡ๻ࡳΖz ๻ࡳ۞೯ၲᖲΚਊऴࠩ LCD᧩قڕՀΚૉ๻ࡳ੡ONΔሽ՗૤ሉᄎڇՀڻၲᖲழΔࠉհছᣂᖲழऱणኪ๻ګLOAD ON ࢨLOAD OFFΖૉ๻ࡳ੡ OFFΔሽ՗૤ሉڇՀڻၲᖲழᄎঅ਍੡ LOAD OFFΖz ܅࣍Vonऱ൳ࠫ๻ࡳΚਊऴࠩ LCD᧩قڕՀΚڼ๻ࡳ।قڇLOAD ON հ৵Δႊၦྒྷ܅࣍ Von ሽᚘរڍ֟ڻሽ՗૤ሉթ᠏ګLOAD OFFΔࠡ๻ࡳଖ੡0ࠩ 20Ζૉ๻ࡳଖ੡0Δঞڇ܅࣍ Von ሽᚘរྤ LOADOFFΖ๻ࡳଖ੡1ழΚ।قڇሽᚘ܅࣍ Vonհ৵࢏ᙈપ3mSթ᠏ګ LOAD OFFΖ๻ࡳଖ੡ 20 ழΚ।ق࢏ᙈપ60mSթ᠏ګLOAD OFFΖz ሽۃ࣋ሽழၴऱၦྒྷΚਊאᙇᖗႈؾΖLCD᧩قڕՀ:ᙇᖗ “ON”ࢨ“OFF”Δאঁެࡳڼפ౨ਢၲඔENTER᝶ΔঞLCDᄎၞԵሽᚘរऱ๻ࡳΔڇᇠ๠ሽۃ࣋ሽழၴၦྒྷܛೖַΖࡻழࠌشृױެࡳਢܡᙇᖗ೚LOAD OFFऱ೯܂Ζ᠏೯ඝ᠏ၨࠀݙګ๻ࡳ৵ਊENTER᝶Ζڇၦྒྷऱᖙ܂ᑓڤխΔLOAD ONհ৵Δࠌشृױٵழਊ!DATA ᝶אᨠኘሽۃ࣋ሽၦྒྷऱழၴΖ!z ሽᚘ֗ሽੌၦྒྷؓ݁ڻᑇऱᙇᖗΚਊ!ࢨ᝶אᙇᖗႈؾΖLCD᧩قڕՀ:Ζz ೯ኪ૤ሉ๵௑ၦྒྷհ࢏ᙈழၴऱᙇᖗΚਊ᝶אᙇᖗႈؾΖLCD᧩قڕՀ:᠏೯ඝ᠏ၨࠀݙګ๻ࡳ৵ΖڇLOAD ON հ৵Δ೯ኪ૤ሉၦྒྷVpk ֗Vpk ႊ࢏ᙈڼ๻ࡳழၴΔᒤ໮੡50ශઞ۟16ઞΖz CV ᑓڤऱૻሽੌΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD ᧩قڕՀ:ڼ੡๻ࡳCV ᑓڤխऱࢮሉૻࡳሽੌΖԫ؟๻ࡳړঁਢ૤ሉᑓิ࣍CV ᑓڤխࢬ౨ࢮሉऱ່ՕሽੌΖwpmubhfdvssfou dvssfou!mjnjubujpoٺᑓิऱ່ՕૻሽੌڕՀࢬقΚ63006 63010 63025 63030 6A20A10A60Az փຝंݮᑓᚵΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD ᧩قڕՀ:ڇCC ᑓڤऱᖙ܂հՀΔױല૤ሉᑓิ๻ࡳ੡փຝंݮᑓᚵΔࢨല؆ຝऱᦀ೯ሽੌᅝंݮขسᕴࠌشΖ3-9شඝ᠏ၨᙇᖗ“YES”א।قփຝΔ“NO”।ق؆ຝΔאᒔࡳΖz ሽᚘၦྒྷऱᄕࢤΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD᧩قڕՀ:ױ๻ࡳ૤ሉᑓิࠌࠡ᧩قנ૤ऱሽᚘၦྒྷଖΔࢨإऱሽᚘၦྒྷଖΖᜰࠏڕՀΚ3Vױ᧩قڕ3V (ᙇᖗPLUSழ)֗3V (ᙇᖗMINUSழ)شඝ᠏ၨᙇᖗ“MINUS”א᧩ق૤ᇆΔࢨᙇᖗ“PLUS”ႛ᧩قଖΔאᒔࡳΖz ሽᚘ๵௑๻ࡳֱڤΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD᧩قڕՀ:ሽᚘ๵௑๻ࡳױ๻੡ۍ։ֱֺڤࢨᑇଖֱڤΖᜰࠏڕՀΚ10V r 0.5V (ᙇᖗVALUEழ)10V r5% (ᙇᖗPCEntழ)شඝ᠏ၨᙇᖗ“VALUE”੡ᑇଖֱڤΔࢨᙇᖗ“PCEnt”੡ۍ։ֱֺڤΔאᒔࡳΖz ሽੌ๵௑๻ࡳֱڤΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD᧩قڕՀ:3-10ሽੌ๵௑๻ࡳױ๻੡ۍ։ֱֺڤࢨᑇଖֱڤΖشඝ᠏ၨᙇᖗ“VALUE”੡ᑇଖֱڤΔࢨᙇᖗ“PCEnt”੡ۍ։ֱֺڤΔאᒔࡳΖz ᠧಛሽᚘ๵௑๻ࡳֱڤΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD᧩قڕՀ:ሽᚘ๵௑๻ࡳױ๻੡ۍ։ֱֺڤࢨᑇଖֱڤΖشඝ᠏ၨᙇᖗ“VALUE”੡ᑇଖֱڤΔࢨᙇᖗ“PCEnt”੡ۍ։ֱֺڤΔאᒔࡳΖz ON/OFFٵޡ֏Κ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊऴࠩLCD᧩قڕՀ:૤ሉᑓิױ๻ࡳګڇٵޡ֏ऱᑓڤխፖࠡהᑓิԫᏘሎ܂Ζٵޡ֏ױڇઌٵऱิٽؓ؀ᄚΔࢨլٵऱิٽؓ؀ᄚᚨشࠩᑓิՂΖشඝ᠏ၨᙇᖗ“ON”੡ٵޡ֏Δࢨᙇᖗ“OFF”੡ॺٵޡ֏ሎ܂ΔאᒔࡳΖz ׌൳/ൕ᥆Κ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD᧩قڕՀ:3-11ڇٵޡ֏൳ᑓิࢨൕ᥆ᑓิΖૉڇ׌൳ᑓิՂਊٚ۶ԫଡ᝶Δڼ᝶ലٵழᤛ࿇ࠡהऱ૤ሉᑓิΔڂۖࠡהऱ૤ሉᑓิՈᄎሎ܂Δ༉ړቝழଢ๯ਊՀԫᑌΖ!شඝ᠏ၨᙇᖗ“ON”੡׌൳Δࢨᙇᖗ“OFF”੡ൕ᥆ΔאᒔࡳΖz ቷቷᜢऱON/OFFΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD᧩قڕՀ:૤ሉᑓิױ๻ࡳ੡ᅝԫଡ᝶๯ਊՀΔࢨඝ᠏ၨ๯᠏೯ழ࿇נቷቷشඝ᠏ၨᙇᖗ“ON”੡࿇נᜢଃΔࢨᙇᖗ“OFF”੡լ࿇נᜢଃΔאᒔࡳΖz ׻נΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD᧩قڕՀ:૤ሉᑓิױൕ00ࠩ99ऱ100ิಖᖋ᧯ิܑխऱٚ۶ԫิ׻נԫႈᚏژመऱ೶ᑇΖشඝ᠏ၨ᠏ང۟ࢬ૞ऱิܑᇆᒘΔאᒔࡳΖz ᚏژΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD᧩قڕՀ:3-12૤ሉᑓิױലؾছऱڜᇘژԵൕ00ࠩ99ऱ100ิಖᖋ᧯ิܑխऱٚ۶ԫิאࠎՀڻࠌشΖشඝ᠏ၨ᠏ང۟ࢬ૞ऱิܑᇆᒘΔאᒔࡳΖz ீإΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD᧩قڕՀ:ႛঅఎࠎՠᐗீإ֗ፂଥشΖڇإൄൣउՀΔࠌشृ઎ࠩ“no”ऱᙇႈΔ࣍ڼԫޡᨏխྤႊޓޏٚ۶ࣟ۫Ζz ۞ݺྒྷᇢΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD᧩قڕՀ:ႛঅఎࠎՠᐗྒྷᇢ֗ፂଥشΖڇإൄൣउՀΔࠌشृ઎ࠩ“no”ऱᙇႈΔ࣍ڼԫޡᨏխྤႊޓޏٚ۶ࣟ۫Ζz ᖲীፖႇ᧯ठءᇆᒘΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD᧩قڕՀ:3-13ႛঅఎࠎፂଥشΖࠌشृڇڼԫޡᨏխྤႊޓޏٚ۶ࣟ۫Ζz ߓอ಻ᆜ೶ᑇऱ࿨ޔΚ۞Ղԫޡᨏ࢏ᥛՀࠐΔࢨਊ᝶ऴࠩLCD ᧩قڕՀ:ਊא࿨ޔิګऱڜᇘΖုΚࠌشृױൕՂ૪ٚԫڜᇘޡᨏխΔਊא࿨ޔߓอ಻ᆜ೶ᑇऱ๻ࡳΖԫ؟࿨ޔΔࠡਲऱ೶ᑇലፂ਍଺णΖ3.4 ᖙ܂ᑓڤሽ՗૤ሉױ๻ࡳ੡ڇࡳሽੌ(CC)Εࡳሽॴ(CR)Εࡳሽᚘ(CV)ࢨࡳפ෷(CP)ऱᑓڤխᖙ܂Ζ3.4.1 ࡳሽੌ(CC)ᑓڤڇڼᑓڤխΔᑓิᄎ௅ᖕ๻ࡳऱሽੌଖࢮሉሽੌΔۖլጥᙁԵሽᚘऱ᧢֏Ζߠቹ3-8ΖInput VoltageCurrent SettingLoad Currentቹ3-8඿ၞԵCC ᑓڤऴࠩLCD ᧩قڕՀΚCC3-14ᖙ܂3.4.2 ࡳሽॴ(CR)ᑓڤڇڼᑓڤխΔΖߠቹ3-9ΖLoadCurrentቹ3-9඿ၞԵCR ᑓڤऴࠩLCD ᧩قڕՀΚCR3.4.3 ࡳሽᚘ(CV)ᑓڤڇڼᑓڤխΔᑓิᄎࢮሉሽੌאࠌᙁԵሽᚘࡉ๻ࡳऱሽᚘଖԫીΖߠቹ3-10ΖڇCV ᑓڤխሎ܂ழΔᑓิਢᅝګ։ੌሽᚘᓳᆏᕴڇ೯܂ΖInput Voltage Load CurrentVoltage Settingቹ3-10඿ၞԵCV ᑓڤऴࠩLCD ᧩قڕՀΚCVױᒳ࿓ሽ՗૤ሉ6300ߓ٨ᖙ܂֫ם3.4.4 ࡳפ෷(CP)ᑓڤڇڼᑓڤխΔሽ՗૤ሉᄎ௅ᖕ๻ࡳऱפ෷ଖࢮሉሽੌΔڂڼפ෷௣౛ലڇࢮሉխঅ਍ਁࡳΖߠቹ3-11LoadCurrentቹ3-11඿ၞԵCPᑓڤऴࠩLCD᧩قڕՀΚCP3.5 ૤ሉᖙ܂3.5.1 ᙩኪ૤ሉᙩኪחࠌشृലሽੌऱ૤ሉ๻ࡳ੡A֗BࠟጟլٵऱሽۯΖױش૿ࣨՂAፖBࠟጟणኪհၴ೚֊ངΖױല૤ሉऱᚾۯ๻ࡳ๻ګ೏ᚾۯࢨ܅ᚾۯΖAፖBࠟጟणኪ݁ࠌشઌٵऱᚾۯΖ܅ᚾۯڇ܅ሽੌऱ๻ࡳխڶለࠋऱᇞ࣫৫Ζሽੌ඙෷ެࡳ૤ሉሽۯطԫጟ૤ሉणኪ᠏᧢੡׼ԫጟणኪऱֺ෷ΖאCCᑓڤ੡ࠏΔA ፖBࠟጟणኪڶထլٵऱࢮሉሽੌ֗ሽੌ඙෷Ζߠቹ3-12Ζ๻State A4AΔState B2AΔRise0.2A/P SΔFall0.08A/P SΔঞױ൓ࠩڕՀቹऱ૤ሉݮڤΚᖙ܂UjnfDvssfousjtf!tmfx!sbufgbmm!tmfx!sbufTubuf!B Tubuf!C5B 3B21vT36vTqsftt!lfz!#B0C#ቹ3-123.5.2 ೯ኪ૤ሉ೯ኪ૤ሉऱᖙ܂חࠌشृױ๻ࡳࠟଡ૤ሉሽۯ(Load1֗Load2)Ε૤ሉၜཚ(T1֗T2)Δא֗ሽੌ඙෷(Rise ֗Fall)Ζᖙ܂መ࿓խΔ૤ሉଖ௅ᖕࠌشृࢬՀऱ೶ᑇΔڇ߷ࠟଡ૤ሉሽۯխ೚֊ངΖ೯ኪ૤ሉຏൄਢش࣍ྒྷᇢڇ೏ຒ෷Εᛳၴ૤ሉՀৱྒྷढऱய౨।෼Ζൕ૤ሉሽۯΕሽੌ඙෷֗૤ሉၜཚ๻ࡳऱݾ؏խױ᎘࣐ขسֱݮΕ౧ᓢΕᙏᕡ֗Կߡ࿛ऱ૤ሉݮڤΖᜰࠏڕՀΚc ๻Load1=4A Δ Load2=2A ΔRise=1A/ӴS ΔFall=1A/ӴS Δ T1=10mS ΔT2=10mS Δঞױ൓ࠩڕՀቹऱֱݮ૤ሉݮڤΚUjnfDvssfouMpbe2mpbe321nT 21nT 21nT 21nT 5B3BU2U3U2U3ቹ3-13d ڇՂࠏխലT2྇੡1mS Δঞױ൓ࠩڕՀቹऱ౧ᓢ૤ሉݮڤΚױᒳ࿓ሽ՗૤ሉ6300ߓ٨ᖙ܂֫םUjnfDvssfouMpbe2mpbe321nT 21nT 21nT 5B3BU2U3U2U3U3U22nT2nT 2nTቹ3-14e ๻Load1=11A Δ Load2=1A ΔRise=0.005A/ӴS Δ Fall=0.005A/ӴS ΔT1 2mS Δ T2 2mS Δঞױ൓ࠩڕՀቹऱԿߡ૤ሉݮڤΚUjnfDvssfouMpbe2mpbe33nT 3nT 3nT 3nT 22B2BU2U3U2U3ቹ3-15f ലT2྇੡10 P S ΔRise ᏺ੡1A/P S Δঞױ൓ࠩڕՀቹऱᙏᕡ૤ሉݮڤΚUjnfDvssfouMpbe2mpbe33nT 3nT3nT 22B2BU2U3U2U3U221vT 21vTቹ3-163.6 ڍิ૤ሉᖙ܂ኙ࣍ྒྷᇢڍิᙁנऱৱྒྷढۖߢΔڍิ૤ሉऱิګ༼ࠎԱ່ࠋऱᇞެຜஉΖৱྒྷढऱޢԫႈᙁנઃױຑ൷ࠩԫຝ૤ሉᑓิՂΔࠀ׊ࢬڶऱ૤ሉᑓิઃױຘመ૤ሉิٽؓ؀Ղऱᖙ܂փຝႪੌඈሒࠩ׌൳/ൕ᥆հٵޡ֏Ζڂڼԫຝิٽؓ؀(ڕ6304) ൓אྒྷᇢԫଡڍሒ4ႈᙁנऱৱྒྷढΖڕ࣠ԫଡৱྒྷढڶ4ႈאՂऱᙁנΔࠌشृױࠉᅃ2.6.5ᆏψڍૹิٽؓ؀ڤຑ൷ωऱਐقຑ൷ࠟଡࢨࠟଡאՂऱ׌ᖲΖڕڼԫࠐΔޢଡ૤ሉᑓิਝױڇઌٵऱิٽؓ؀ᄚΔՈױڇլٵऱิٽؓ؀խፖࠡהᑓิٵޡሎ܂Ζ඿ၞ۩׌൳/ൕ᥆ऱٵޡ֏ྒྷᇢΔঞޢଡ૤ሉઃႊࠃ٣ࡳᆠՀ٨ࠟႈ೶ᑇΚ1. ലٵޡᙇᖗࡳᆠ੡“ON”Ζ2. ௅ᖕྒྷᇢᏁޣۖᙇᖗ“MASTER”(׌൳)ࢨ“SLAVE”(ൕ᥆)Ζᣂ࣍Ղ૪೶ᑇ๻ࡳऱᇡาޡᨏᓮ೶ە3.3ᆏऱߓอ಻ᆜ೶ᑇΖຍᏖԫࠐΔࠌشृঁױ៶ထ᝶ᒌٻ׌൳ᑓิ࿇ߢΖྥ৵ࢨՀழΔ׌൳ᑓิܛױ൳ࠫࠡהᑓิΖ໢ᖲᖙ܂4. ໢ᖲᖙ܂4.1 ១տءີലտฯڕ۶طছ૿ࣨᖙ܂ሽ՗૤ሉΖᣂ࣍ਊ᝶ፖLCD᧩قᕴΔᓮ೶ߠ3.2.1ᆏऱ।3-2֗।3-3Ζz ׌૞ᖙ܂ੌ࿓ΚၲᖲÈᖙ܂ᑓڤ๻ࡳ(ᣂ࣍CC, CR, CV, CPᑓڤ೶ߠ3.4ᆏ)È೏/܅ᚾۯ๻ࡳÈᙩኪ/೯ኪᖙ܂๻ࡳ(ᣂ࣍ᙩኪ֗೯ኪ૤ሉ೶ߠ3.5ᆏ)Èࢮሉ೶ᑇ๻ࡳ(೶ߠאՀऱ4.2ᆏ)Èྒྷᇢ๵௑๻ࡳÈᚏژ๻ࡳ೶ᑇࢨച۩ڶᣂᙩኪ૤ሉΕ೯ኪ૤ሉΕ๵௑ᒳᙀΕᚏژ/׻נΕၦྒྷ࿛ᖙ܂݁ᄎڇאՀٺᆏאኔࠏ೚ᎅࣔΖ4.2 ૤ሉणኪऱ๻ࡳ4.2.1 ᙩኪ૤ሉz ᖙ܂ੌ࿓Κױᒳ࿓ሽ՗૤ሉ6300ߓ٨ᖙ܂֫םÈ๻ࡳࢮሉ೶ᑇڇCCᑓڤՀ๻ᙩኪ૤ሉයٙ੡State A1A, State B3A, Rise0.02A/ P S, Fall0.2 A/ P S (אChroma 63030੡ࠏ)Κ1. ਊऴࠩLCDऱMODE᧩قڕՀΚCC2. ਊᚾۯΖᏁ૞ለࠋऱᇞ࣫৫ழױࠌش܅ᚾۯΔֱऱLED “L”ᄎॽದࠐΖုΚૉ૤ሉሽۯ೏࣍܅ᚾۯऱૻࠫΔߓอᄎ۞೯֊ངࠩ೏ᚾۯΖ3. ਊאၞԵᒳᙀᑓڤΖ4. ਊאᙇᖗणኪAΔֱऱLED “A”ᄎॽದࠐΖ᠏೯ඝ᠏ၨല᧩قଖޏ੡1.0005AΔאᒔࡳΖု1Κࠌشृױ៶ထ᝶ലཾᑑۯᆜޏ੡լٵऱ໢ۯᑇଖΔ٦᠏೯ඝ᠏ၨΔঞאᇠ໢ۯᑇଖ೚ᏺףࢨᎠ྇ऱ᧢֏ၦΖ໢ᖲᖙ܂ڕ࣠ࠌشृآ៶ထ᝶א᧩قཾᑑۯᆜΔঞᑇଖऱᇞ࣫৫ലࠉᖕඝ᠏ၨऱ᠏೯ຒ෷ۖڶࢬլٵΖု2Κ๻ࡳᑇଖհᇞ࣫৫ਢࠉᖲী֗ࢬᙇᚾۯۖࡳΖߠՀ।Κ63006 63010 63025 63030Low 0.15 mA 0.5 mA 0.25 mA 1.5 mAHigh 1.5 mA 5 mA 2.5 mA 15 mA5. ਊאᙇᖗणኪBΔֱऱLED “B”ᄎॽದࠐΖ᠏೯ඝ᠏ၨല᧩قଖޏ੡3.0000AΔאᒔࡳΖ6. ਊא๻ࡳՂ֒ऱሽੌ඙෷ΔঞLCD᧩قڕՀΚ᠏೯ඝ᠏ၨല᧩قଖޏ੡0.02A/ P SΔאᒔࡳΖٵழലሽੌ඙෷ऱ๻ࡳޏ੡Հ૾Ζ7. ঞLCD෼ڇ᧩قڕՀΚ᠏೯ඝ᠏ၨല᧩قଖޏ੡0.2A/ P SΔאᒔࡳΖ8. ਊᒳᙀᑓڤΖ4.2.2 ೯ኪ૤ሉz ᖙ܂ੌ࿓ΚÈױᒳ࿓ሽ՗૤ሉ6300ߓ٨ᖙ܂֫םڇCCᑓڤՀ๻ࡳ೯ኪྒྷᇢ೶ᑇ੡Load140A, Load240A, T110mS, T21mS,Rise1A/ P S, Fall1A/ P S (אChroma 63030੡ࠏ)Κ1. ૹᓤਊऴࠩLCDऱMODE᧩قڕՀΚCC2. ਊᚾۯΔֱऱLED “H”ᄎॽದࠐΖုΚ່Օऱࢮሉሽੌਢࠉᖲী֗ࢬᙇᖗऱᚾۯۖࡳΖߠՀ।Κ63006 63010 63025 63030Low 0.6 A 2 A 1 A 6 AHigh 6 A 20 A 10 A 60 A3. ਊאၞԵᒳᙀᑓڤΖ4. ਊאᙇᖗ೯ኪ૤ሉΔֱऱLEDᄎॽದࠐΔ׊LCD Dynamic೶ᑇຝ։᧩قڕՀΚDYNAࡉ᠏೯ඝ᠏ၨല᧩قଖޏ੡Load1ऱ40.005AΔאᒔࡳΖፖڼٵழ೶ᑇᄎޏ᧢۟Load2ऱ૤ሉሽۯհ๻ࡳΖ໢ᖲᖙ܂ ု1Κᣂ࣍ᙁԵֱ૿ױ೶ߠ๻ࡳޡᨏ4հုᤩ1Ζု2Κݙګᇷறᒳᙀ৵Δ೭ؘਊΔܡঞᄅऱᇷறࠀྤऄᐊԵփຝಖᖋ᧯Δ೶ᑇଖᄎࠉ៱অఎΖ5. LCD Dynamic೶ᑇຝ։᧩قڕՀΚ᠏೯ඝ᠏ၨല᧩قଖޏ੡Load2ऱ19.995AΔאᒔࡳΖፖڼٵழ೶ᑇᄎޏ᧢۟Load1ऱT1ၜཚհ๻ࡳΖုΚLoad1ፖLoad2ऱಖᇆ։ܑLoad1֗Load2ऱଖፖڼԲृհၴ೏܅ଖྤᣂΖ6. LCD Dynamic೶ᑇຝ։᧩قڕՀΚ᠏೯ඝ᠏ၨല᧩قଖޏ੡10.000 mSΔאᒔࡳΖፖڼٵழ೶ᑇᄎޏ᧢۟T2ၜཚհ๻ࡳΖု1ΚૉT1ፖT2ၜཚհԫՕ࣍50 mSΔঞၜཚᚾۯᄎط܅֊ངࠩ೏Δ׊ᇞ࣫৫ᄎ۞೯֊ངࠩ1 mSΖု2Κᣂ࣍ၜཚᒤ໮֗ᇞ࣫৫ױߠՀ।:Period ResolutionLow 0.025 mS a 50 mS 1 P SHigh 1 mS a 10 S 1 mS7. LCD Dynamic೶ᑇຝ։᧩قڕՀΚ᠏೯ඝ᠏ၨല᧩قଖޏ੡01.000 mSΔאᒔࡳΖፖڼٵழ೶ᑇᄎޏ᧢۟rise ऱሽੌ඙෷հ๻ࡳΖ8. LCD Dynamic೶ᑇຝ։᧩قڕՀΚ᠏೯ඝ᠏ၨല᧩قଖޏ੡1.000A/ P S ΔאᒔࡳΖፖڼٵழ೶ᑇᄎޏ᧢۟fallऱሽੌ඙෷հ๻ࡳΖ9. LCD Dynamic೶ᑇຝ։᧩قڕՀΚ᠏೯ඝ᠏ၨല᧩قଖޏ੡1.000A/ P S ΔאᒔࡳΖုΚᣂ࣍ሽੌ඙෷ᚾۯ֗ᇞ࣫৫ױߠՀ।:Slew Rate Resolution63006 LowHigh 0.1-25 mA/ P S1.0-250 mA/ P S0.1 mA/ P S1.0 mA/ P S63010 LowHigh 0.32-80 mA/ P S3.2-800 mA/ P S0.32 mA/ P S3.2 mA/ P S63025 LowHigh 0.16-40 mA/ P S1.6-400 mA/ P S0.16 mA/ P S1.6 mA/ P S63030 LowHigh 0.001-0.25A/ P S0.01-2.5A/ P S0.001A/ P S0.01A/ P S4.3 ๵௑ྒྷᇢऱ๻ࡳሽ՗૤ሉױᨃࠌشृ๻ࡳৱྒྷढऱ๵௑ΔאࠎGO/NGऱྒྷᇢΖڇྒྷᇢխΔሽ՗૤ሉၦྒྷৱྒྷढΔࠀലհፖ๻ࡳ๵௑೚ֺለΖሽ՗૤ሉᨃࠌشृ๻ࡳሽᚘ(ڇCC, CR, CPᑓڤխ)Εሽੌ(ڇCVᑓڤխ)א֗ሽᚘᠧಛVpp(ڇࢬڶᑓڤխ)๵௑Ζz ᖙ܂ੌ࿓ΚৱྒྷढऱၦྒྷଖᙁԵ๵௑໢ۯᙇᖗڶ̈́x%(percent)ࢨ̈́y(value)ࠟጟֱڤΖ๻ࡳֱڤऱᙇᖗױ೶ە3.3ᆏऱߓอ಻ᆜ೶ᑇΖՀ૿ऱࠏ՗ᎅࣔڕ۶ᒳᙀྒྷᇢ๵௑ΖA. ڇCVᑓڤխ๻ࡳሽੌ๵௑੡I=12A ̈́3% (೗๻ሽੌ๵௑א%ֱڤ।قΖ඿ޏ᧢ᙁԵ๵௑໢ۯऱֱڤΔᓮ೶ە3.3ᆏ)Ζ1. ਊᒳᙀᑓڤΖֱऱLEDᄎॽದࠐΖ2. ਊΔLCD᧩قנٌյೂᡩऱ“PASS”ڕՀΚ᝶ࠐ᠏೯ඝ᠏ၨΔല᧩قଖޏ੡12.000AΔאᒔࡳΖڼଖԯਢᅝ܂๵௑๻ࡳऱխၴଖΖፖڼٵழΔ᧩قޏ᧢۟Ղૻऱ๻ࡳΖ3. LCD᧩قנٌյೂᡩऱ“H”ڕՀΚ᝶ࠐ᠏೯ඝ᠏ၨΔല᧩قଖޏ੡003.0ΔאᒔࡳΖፖڼٵழΔ᧩قޏ᧢۟Հૻऱ๻ࡳΖ4. LCD᧩قנೂᡩլࡳऱ“L”ڕՀΚ᝶ࠐ᠏೯ඝ᠏ၨΔല᧩قଖޏ੡003.0ΔאᒔࡳΖ ုΚڇՂࠏխᅝߓอ಻ᆜ೶ᑇऱ๻ࡳطۍ։ֺ᠏੡ᑇଖழΔ12A ̈́3% ല᠏᧢੡12A ̈́0.36AΖᅝ๵௑ऱ๻ࡳֱڤڇߓอ಻ᆜ೶ᑇऱ๻ࡳխطۍ։ֺ᠏੡ᑇଖழΔߓอᄎലᇷற۞೯᠏ངΔ֘հٍྥΖ5. ਊᒳᙀᑓڤΖB. ๻ࡳሽᚘᠧಛ(Vpp)ऱ๵௑੡15mV+0.2mV ֗15mV 0.3mV(ڇ᙮ᐈ੡20MHzհՀ)Ζ1. ਊᒳᙀᑓڤΖֱऱLEDᄎॽದࠐΖ2. ਊא๻ࡳ᙮ᐈΔLCD᧩قڕՀΚ᠏೯ඝ᠏ၨല᧩قଖޏ੡20000 KHzΔאᒔࡳΖုΚࠌشृױᙇᖗ܅ຏᠧಛៀंᕴऱ᙮ᐈ੡1Ε10Ε100Ε1000 ࢨKHzΖլٵ᙮ᐈऱᙇᖗਢࠉሽሁ๻ૠ֗ྒྷᇢ૞ޣۖࡳΖኙ20000࣍܅᙮෷౧೯ऱၦྒྷۖߢΔ᙮ᐈױᙇ੡1 KHzΖ3. ਊΔLCD᧩ق᝶ࠐ᠏೯ඝ᠏ၨΔല᧩قଖޏ੡015.00 mVΔאᒔࡳΖፖڼٵழΔ᧩قᄎޏ᧢۟Ղૻऱ๻ࡳΖ4. LCD᧩قנٌյೂᡩऱ“H”ڕՀΚ᝶ࠐ᠏೯ඝ᠏ၨΔല᧩قଖޏ੡015.20 mVΔאᒔࡳΖፖڼٵழΔ᧩قᄎޏ᧢۟Հૻऱ๻ࡳΖ5. LCD᧩قנٌյೂᡩऱ“L”ڕՀΚ᝶ࠐ᠏೯ඝ᠏ၨΔല᧩قଖޏ੡014.70 mVΔאᒔࡳΖုΚڇ໢ᖲᖙ܂ՀΔ0.4V֗4Vऱሽᚘᚾۯᄎ۞೯֊ངΖ6. ਊᒳᙀᑓڤΖ೯ኪ૤ሉၦྒྷխऱ๵௑ྒྷᇢਢΔࢮሉ৵࢏ᙈߓอ಻ᆜ೶ᑇխऱ೯ኪ࢏ᙈழၴၲࡨၦྒྷΔྥ৵ၲࡨಖᙕ๯ၦྒྷሽᚘऱ່Օଖ(Vpk )່֗՛ଖ(Vpk )ΖVpk ֗Vpk ๯ီ੡ਢ๵௑ྒྷᇢऱଖΖ4.4 ᚏژፖ׻נޢԫଡ૤ሉᑓิ݁ڶ100ଡಖᖋ᧯ิܑ(ൕ00ࠩ99)אᚏژՂ૿༼ࠩऱྒྷᇢ೶ᑇΖຍࠄ೶ᑇઃױڇֲ৵ٚ۶ழࠥ๯׻נࠌشΖڼԫֱڤ១֏Աૹᓤլٵऱᑇଖ๻ࡳΖࠌش3.3ᆏ๻ࡳࢬඖ૪ऱޡᨏΔױڇ໢ԫ૤ሉᑓิխᚏژ֗׻נྒྷᇢ೶ᑇΖڼ؆Δิٽؓ؀Ո౨ᚏژࢨ׻נٵழژڇ࣍ࢬڶ૤ሉᑓิխऱ٤ຝྒྷᇢ೶ᑇΖᖙ܂ޡᨏڕՀࢬ૪ΚA. ല೶ᑇژԵร4ᇆಖᖋ᧯ิܑΚ1. ਊՀิٽؓ؀Ղऱϧࢨϰ᝶(ؘ૞ழױᚘᑇڻ)Δऴࠩຍࠟଡਊ᝶லऱLED ᧩قנڕՀऱร4ᇆಖᖋิܑΚ042. ਊՀSave᝶ΖB. ല೶ᑇൕร18ᇆಖᖋ᧯ิܑ׻נΚ1. ਊՀิٽؓ؀Ղऱϧࢨϰ᝶(ؘ૞ழױᚘᑇڻ)Δऴࠩຍࠟଡਊ᝶லऱLED ᧩قנڕՀऱร18ᇆಖᖋิܑΚ182. ਊՀRecall᝶Ζ4.5 ၦྒྷݙګ૤ሉणኪऱ๻ࡳ৵(ᇡߠ4.3ᆏ)ΔਊࠌৱྒྷढၲࡨࢮሉሽੌΖၦྒྷऱᖙ܂ੌ࿓ڕՀࢬقΚطಖᖋิܑ׻נྒྷᇢ೶ᑇࢨ๻ࡳᄅऱ೶ᑇЦࢮሉ೶ᑇ๻ࡳࢨ๵௑๻ࡳ Ц࿨ޔሽ՗૤ሉࢮሉழױၦྒྷৱྒྷढऱሽᚘΕሽੌΕפ෷֗ሽᚘᠧಛ(Vpp)Ζࠌشृױᙇᖗլٵऱၦྒྷפ౨א᧩قၦྒྷऱᦰᑇΖၦྒྷऱᦰᑇਢڇLCD Ղ᧩قנΖՀ।।قڇٺᖙ܂ᑓڤՀࠌشृࢬ౨ᛧ൓ऱሽᚘΕሽੌΕر௽(Watt)ࢨሽᚘᠧಛ(Noise)ၦྒྷհ࿨࣠ΖုΚྒྷᇢመ࿓խࢬ᧩قऱᦰᑇਢܛழऱၦྒྷଖΔۖॺ๻ࡳଖΖNormal Watt NoiseCC V, IW, I Vpp, I CR R, IW, IVpp, I CV V, IW, I Vpp, I CPW, IW, I Vpp, Iٵழሽ՗૤ሉലၦྒྷፖࠃ٣ࡳᆠऱሽᚘΕሽੌΕࢨሽᚘᠧಛ(Vpp)๵௑೚ֺለΖᣂ࣍๻ࡳऱᇡาൣݮױ೶ߠ4.4ᆏऱ๵௑ᒳᙀΖڕ࣠ၦྒྷଖਢڇ๵௑փΔঞLCD ᧩قڕՀΚڕ࣠ၦྒྷଖ၌መ๵௑ऱ່೏ૻࠫΔঞLCD ᧩قڕՀΚڕ࣠ၦྒྷଖ՛࣍๵௑ऱ່܅ૻࠫΔঞLCD ᧩قڕՀΚ๵௑ऱೣᠦ৫ਢאᒵࢤࠥ৫ऱᑇؾࠐ।قΖࠥ৫။ڍ।ق။ೣᠦխၴଖΖຍױ࠰ܗࠌشृאྒྷᇢଖᓳᖞৱྒྷढΔאঁฤٽ๵௑Ζሽ՗૤ሉױחࠌشृ೚ຑᒵᒳᙀΔאᓳᖞؾছ૤ሉ೶ᑇ(ሽੌΕሽᚘΕሽॴࢨפ෷)Εሽੌ඙෷ࢨ೯ኪ૤ሉၜཚऱ๻ࡳଖΖሽ՗૤ሉࢮሉழΔਊ᝶Δࠀ᠏೯ඝ᠏ၨױمܛޏ᧢๻ࡳΖڕڼԫࠐΔޏ᧢૤ሉणኪऱٵழࠌشृױၦྒྷৱྒྷढΖࠌشृٍױܓشڼ௽រװฤٽၦྒྷणኪΔ׊ᚏژאࠎֲ৵ࠌشΖᖙ܂࿓ݧፖᠦᒵ࿓ڤխऱઌۿ4.5.1 ሽᚘΕሽੌऱၦྒྷྒྷᇢԫຝሽᄭࠎᚨᕴऱ᡹ࡳࢤழΔڶயऱֱऄਢၦྒྷৱྒྷढऱᙁנሽᚘೣᠦΖᜰࠏۖߢΔڕ࣠V outऱ๵௑ਢ12V̈́3%Δঞࠌشृױല૤ሉሽۯ๻੡2A֗20AΔאঁྒྷᇢᙁנऱ᡹ࡳࢤڕՀࢬقΚ๻ࡳCCᑓڤ, ᙩኪิܑA=2A,ᙩኪิܑB=20A,(๻ࡳऱาᆏױ೶ߠ4.2.1ᆏ)Ц๵௑๻ࡳխၴଖ=12V,Ղૻଖ=3%, Հૻଖ=3%(๻ࡳऱาᆏױ೶ߠ4.3ᆏ)Цᚏژ๻ࡳ೶ᑇ۟ಖᖋิܑ(๻ࡳऱาᆏױ೶ߠ4.4ᆏ)Ц࿨ޔ4.5.2 פ෷ऱၦྒྷೈԱሽᚘΕሽੌऱၦྒྷ؆Δ6300ሽ՗૤ሉߓอٍ༼ࠎৱྒྷढڇߓอ಻ᆜ೶ᑇ๻ࡳא؆ऱٚ۶ழࠥ೚פ෷ၦྒྷΖ඿ၞ۩פ෷ၦྒྷΔਊΔLCD ऱรԫ۩᧩قנৱྒྷढऱפ෷ၦྒྷଖΖᜰࠏڕՀΚ25.30 WုΚڇCPᑓڤՀפ෷ၦྒྷਢ۞೯ऱΔྤႊਊΖ4.5.3 ሽᚘᠧಛऱၦྒྷऴੌሽᙁנՂऱሽᚘᠧಛڶױ౨ᗈᄤ๻ໂΔࢨᖄીᗨ᧯ሽሁऱᙑᎄ֘ᚨΖ6300ሽ՗૤ሉߓอױڶயچၦྒྷৱྒྷढऱሽᚘᠧಛΔۖྤႊشՂقंᕴΖ๵௑֗᙮ᐈ๻ࡳऱᇡาൣݮΔױ೶ە4.3ᆏ๵௑๻ࡳऱࠏ՗BΖࠌشृױਊΔঞᠧಛऱಖᇆᄎ᧩قڇLCDՂΖٵழΔאVࢨmV।قऱሽᚘᠧಛᦰᑇᄎڇLCDऱรԫ۩Ղਐנ୽ኙ୽ଖ(Vpp)Ζࢮሉऱሽੌঞ᧩قڇรԲ۩ΖᜰࠏڕՀΚኙ࣍GO/NGऱ᧭ᢞΔࠌشृױਊא᧩قנፖ๵௑ֺለऱྒྷᇢ࿨࣠Ζုਢشࠐඔ೯ڼᣊפ౨Δࠟृऱਊᚘႉݧࠀլૹ૞Ζ4.6 ࿍ሁྒྷᇢ࿍ሁྒྷᇢਢԫႈঁܓऱᅝৱྒྷढऱᙁנጤ՗࿇س࿍ሁழΔৱྒྷढऱঅᥨൻਜਢܡױإൄሎ܂Λਊאඔ೯ࢨೖַ࿍ሁᑓᚵΖ4.7 ؆ຝंݮऱ൳ࠫڇCCᑓڤխሎ܂ऱ؆ຝ೯ኪྒྷᇢፖ೯ኪྒྷᇢઌۿΔ܀ਢ૤ሉሽۯऱ֊ངঞਢط؆ຝಛᇆհՠ܂ၜཚࢬ൳ࠫΖ؆ຝ೯ኪྒྷᇢऱሎ܂ֱڤፖ೯ኪྒྷᇢઌٵΔױਢ൳ࠫၜཚऱಛᇆࠀॺփຝขسΔۖਢط৵હࣨऱEXT. WAVE INຑ൷ᕴᙁԵΖ0ࠩ10Vऱ؆ຝಛᇆਢፖ0ࠩየᚾۯऱᙁԵᒤ໮ઌኙᚨΔڂڼࠌشृؘႊല؆ຝಛᇆऱऴੌሽೣฝᚨشࠩ0۟10V ऱᒤ໮խΖᣂ࣍؆ຝंݮ൳ࠫऱิګױ೶ە3.3ᆏΖ4.8 ඙෷ࡉ່֟ႚᖄழၴ඙෷ࡳᆠ੡ሽੌ၌נழၴխऱ᧢ޓΖԫଡױᒳ࿓ऱ඙෷ւ๺ൕԫ૤ሉ๻ࡳࠩ׼ԫ૤ሉ๻ࡳऱ൳ࠫ᠏ฝא૾܅ڇሽტפ෷൷ᒵՂტᚨሽᚘ૾Δࢨ൳ࠫڇྒྷᇢᇘᆜՂऱტᚨᑉኪΖૉൕԫଡ๻ࡳࠩ׼ԫଡ๻ࡳᛳ᧢ৰՕΔኔᎾऱႚᖄழၴױط։ሶሽੌ᠏ฝ඙෷ࠐૠጩΖኔᎾऱ᠏ฝழၴࡳᆠ੡ᙁԵൕᒳ࿓ឭ༏ऱ 10%ࠩ 90%ࢨൕ 90%ࠩ 10%ऱ᧢ޓࢬᏁழၴΖૉൕԫଡ๻ࡳࠩ׼ԫଡ๻ࡳ᠏ฝৰ՛Δ૤ሉऱპஇॾᇆ᙮൅ᐈ৫ലૻ່ࠫ՛ऱ᠏ฝழၴࠎࢬڶऱױ࿓ڤ඙෷Ζڂ੡ڶૻ৫ऱᣂএΔኔᎾऱ᠏ฝழၴֺ௅ᖕ඙෷ऱቃཚழၴᝫ९ΖڂڼΔ່՛ऱ᠏ฝழၴፖ඙෷ࠟႈؘ݁ႊەᐞኔᎾ᠏ฝழၴΖ່՛ऱ᠏ฝழၴൕ24 μS ࠩ 6 mSΔࠉᖕ඙෷๻ࡳۖࡳΖ。

电子负载仪操作规程

文件编号IT8541B电子负载仪操作规程版本/修订A/01.目的：规范电子负载的使用及维护，使工具仪器保持就佳工作状态。

2.适用范围：厂区所有电子负载工具仪器及附属设备。

3.职责与权限：3.1测试员负责日常仪器的保养及测试记录。

3.2质量部负责日常仪器的校验及监督使用情况。

4.操作内容：4.1开机：按下面面板开关上的电源开关，预热10分钟。

4.2定电流操作：I-SET键，通过数字键或旋扭输入一个电流值，按ENTER键确认。

4.3定功率操作：P-SET，通过数字键或旋钮输入一个功率值，按ENTER键确认。

4.4定电阻操作：按R-SET，通过数字键或旋钮输入一个电阻值，按ENTER键确认。

4.5定电压操作：按V-SET，通过数字键或旋钮输入一个电压值，按ENTER键确认。

4.6INON/OFF输入设定：4.6.1按ON/OFF键改变负载的输入状态，按一次，面板上显示ON，则表示负载处于输入状态。

4.6.2.再按ON/OFF键，面板上显示0FF，则表示负载处于关闭状态。

4.7电池放电测试：4.7.1按ON/OFF键，使负载的输入状态关闭，连接好待测电池4.7.2按I-SET键设定电池的放电电流，按ENTER键确认。

4.7.3按Shift+battery，设关断电压，ENTER放电。

4.7.4再按Shift+battery退出电池测试，测试中按上下键观察电池的电压.，电流，功率，放电容量。

4.8自动测试：A．按shift+menu进入菜单，VFD显示CONFIG。

再按▼键移动LIS所需要的最大TSET项，按enter进入到下菜单，VFD显示MODESET。

按▼见移动EDITTESTFILE，按enter开始编自动测试文件，此时VFV显示MAXCURR。

=20A，设置所需要的最大电流，按enter确认。

B．VFD显示MAXVOLT。

=120V，设置所需要的最大电压，按enter确认。

VFD显示MAXPOWER。

6310直流电子负载简易操作

可編程直流電子負載6310系列簡易操作6310可編程直流電子負載主機框為6312和6314﹐最多通道可達8組﹐可儲存一百個文件（十組program）,電源線有接地端。

一﹑模組﹕A/B﹕在單通道的情況下﹐可作兩種載值的切換﹐譬如重載輕載之間的切換。

在雙通道的情況下﹐可通過它來選擇是顯示哪個通道的電壓電流值。

Static/dyna﹕動態拉載和靜態拉載的切換。

Short﹕短路按鈕。

這里的短路是假短路﹐實際上是拉滿載﹐然后使得模塊的需求功率大于待測組的最大功率﹐使得它被拉死﹐電壓降低﹐獲得大電流﹐并不是繼電器的真正搭接。

所以如果設定的電流和電壓乘積不夠大﹐就會失敗﹐或者因為電流選的低檔位﹐例如2A檔﹐也不能成功。

Load﹕拉載按鈕﹐在各模組單獨運作的時候可以用到。

接線方面同6300一致﹐紅接線柱電位永遠高于黑的。

二﹑機框主要功能鍵﹕CHAN﹕通道選擇。

可供選擇的是已有的通道﹐缺少的通道不能選擇﹐燈也不亮。

MODE﹕設置模式﹐分CC,CV,CR﹐每種模式還分動態靜態或是高檔位和低檔位。

PROG﹕編輯程式。

CLEAR﹕清除當前設定值。

RECALL﹕調出文件或程式﹐第一百零一個文件是工廠設置。

SA VE﹕存儲文件或程式。

SPEC﹕規格值﹐在設定拉載值的時候同時設定。

CONF﹕細項功能設定。

演示步驟﹕首先介紹儀器之型號﹐標准﹐外觀﹐聯線等﹐以及機器的主要特點和功能﹐單雙通道﹐然后是模組和機框功能的介紹。

一．CONF功能﹕CC Vrange﹕定電流模式下面﹐電壓是選擇高檔位還是低檔位。

HIGH :0-80V LOW :0-16V高電流檔只能對應低電壓檔﹐低電流檔可以對應任意檔位。

Von point﹕von點是十分重要的參數﹐它的值一般設在正常輸出的70%左右﹐電壓到達這個點之后﹐負載才開始拉載。

它是作為一個選擇﹐并不是一個規格要求。

待測物的電壓輸出由零到穩態要經由一個爬升的過程﹐而且開始拉載瞬間大電流會導致一個壓降﹐電壓掉下來﹐好的產品電壓會再升上去﹐不受任何影響﹐差一些的產品就會在爬升過程中產生電壓的震蕩現象﹐最后當機﹐但是這不是V on 點的選擇篩選作用﹐而是采用這個點之后可能會產生的現象。

chroma6312a原理 -回复

chroma6312a原理-回复Chroma6312A是一种高性能的电子负载仪器，广泛应用于电子设备的研发、生产和维修过程中。

它的原理和工作方式有助于我们了解电子负载的基本原理和使用方法。

在本文中，我们将一步一步回答有关Chroma6312A原理的问题，并深入探讨其在电子领域中的应用。

第一步，让我们从Chroma6312A的基础知识开始，了解它是什么以及它的主要组成部分。

Chroma6312A是一种电子负载仪器，用于模拟真实负载情况下的电子设备。

它由主机单元、控制界面、电流测量单元、电压测量单元和风扇组成。

主机单元负责控制和调节电子负载的电流和电压，而控制界面是我们与仪器互动的工具。

第二步，我们将深入了解Chroma6312A的工作原理。

Chroma6312A的工作原理是基于电阻网络的原理。

电阻网络由多个可控电阻组成，通过调节电阻的大小可以控制流过负载的电流和电压。

通过改变电流负载和电压负载可以模拟不同负载条件下的电子设备运行情况。

第三步，让我们了解Chroma6312A的基本功能。

Chroma6312A具有丰富的功能，可以满足各种电子设备测试的需求。

它可以模拟不同负载条件下的电流和电压，具有恒阻、恒压、恒功率、电池模拟和瞬态负载等模式。

此外，它还可以测量并显示负载的实际电流、电压、功率等参数，并提供过载、过温、短路等保护功能。

第四步，我们将讨论Chroma6312A在电子领域中的应用。

Chroma6312A广泛用于电子设备的研发、生产和维修过程中。

在研发过程中，它可以模拟真实负载条件下的电子设备行为，帮助工程师评估产品性能并进行故障分析。

在生产过程中，它可以用于检测电子设备在不同负载条件下的工作稳定性和可靠性。

在维修过程中，它可以用于模拟故障条件并验证维修结果。

总结：Chroma6312A是一种高性能的电子负载仪器，它基于电阻网络的原理工作。

它具有丰富的功能，可以模拟不同负载条件下的电流和电压，并提供实时测量和保护功能。