{"id":163379,"date":"2026-09-04T14:33:16","date_gmt":"2026-09-04T19:33:16","guid":{"rendered":"https:\/\/www.arbin.com\/?page_id=163379"},"modified":"2026-09-04T15:25:04","modified_gmt":"2026-09-04T20:25:04","slug":"module-pack-testing","status":"publish","type":"page","link":"https:\/\/www.arbin.com\/ko\/module-pack-testing","title":{"rendered":"Module &#038; Pack Landing Page"},"content":{"rendered":"<p><strong>Battery Module &amp; Pack Testing Systems<\/strong><\/p>\n<h1>\n\t\t\tBattery Module and Pack Testing from 20 V to 1,500 V\t<\/h1>\n\t<p>Arbin manufactures linear and regenerative testers for battery module and pack testing, from 20 V modules to 1,500 V packs at up to 1.8 MW. Tests are written and run in MITS, which integrates the whole test facility: chamber control, BMS communication over CAN, and results written straight to your database.<\/p>\n<figure data-animation-delay=\"0\" data-animation-duration=\"1\" itemscope itemtype=\"https:\/\/schema.org\/ImageObject\">\n\t\t\t\t<img decoding=\"async\" src=\"https:\/\/www.arbin.com\/wp-content\/uploads\/2026\/09\/arbin-product-lineup-hero-web-1.png\" alt=\"arbin product lineup hero web\" height=\"641\" width=\"1316\" title=\"arbin product lineup hero web\" onerror=\"this.style.display='none'\" loading=\"lazy\" \/>\n\t<\/figure>\n<a href=\"#products\">Explore Module &amp; Pack Testers<\/a>\n<a href=\"#software\">Software &amp; Integration<\/a>\n<h3>Tests built in MITS<\/h3>\n<p>30+ programmable control types, 90+ meta variables and 127 reusable sub-schedules, with drive-cycle profiles built in the Simulation Editor.<\/p>\n<h3>CAN and BMS communication<\/h3>\n<p>CAN&nbsp;2.0 and CAN-FD with DBC file import, plus UDS and SMBus. BMS signals are logged alongside voltage and current on one timebase.<\/p>\n<h3>Open APIs when you need them<\/h3>\n<p>ArbinCTI over TCP\/IP with Python and C# clients, and ArbinDriver for direct control from a PLC or your own application.<\/p>\n<h3>Energy back to your facility<\/h3>\n<p>Up to 92% of discharge energy returned to the grid at 0.99 power factor, with anti-islanding disconnection in roughly 40&nbsp;ms. Air-cooled, no plant water.<\/p>\n\t<nav>\n<ul>\n<li><a href=\"#products\">\uc81c\ud488<\/a><\/li>\n<li><a href=\"#fit\">Select Your System<\/a><\/li>\n<li><a href=\"#software\">Software &amp; Methods<\/a><\/li>\n<li><a href=\"#compare\">Compare<\/a><\/li>\n<li><a href=\"#system\">Complete System<\/a><\/li>\n<li><a href=\"#contact\">\uc5f0\ub77d\ucc98<\/a><\/li>\n<\/ul>\n<\/nav>\n<h2>\n\t\t\tFind the Right Module &#038; Pack Testing Platform\t<\/h2>\n\t<p>Three systems, grouped by technology (linear vs regenerative) and application (module vs pack). All three run MITS, build schedules and drive-cycle profiles the same way, and share the same CAN and API interfaces &#8211; moving test programs from module testing to pack testing does not mean relearning the software.<\/p>\n<h2>\n\t\t\tModule Testers\t<\/h2>\n<figure itemscope itemtype=\"https:\/\/schema.org\/ImageObject\">\n\t\t\t\t<img decoding=\"async\" src=\"https:\/\/www.arbin.com\/wp-content\/uploads\/2026\/09\/arbin-lbts-cell-1.webp\" alt=\"arbin lbts cell 1\" height=\"480\" width=\"480\" title=\"arbin lbts cell 1\" onerror=\"this.style.display='none'\" loading=\"lazy\" \/>\n\t<\/figure>\n\t<p>All-Purpose \u00b7 Linear<\/p>\n<h3>\n\t\t\tLBTS \ubaa8\ub4c8\t<\/h3>\n\t<p>20\u00a0V-100\u00a0V \u00b7 0.1\u00a0A-80\u00a0A \u00b7 up to 32\u00a0ch<\/p>\n\t<p>Arbin&#8217;s linear module tester, built for module R&amp;D and end-of-line work. Four auto-switching current ranges per channel, up to 960\u00a0A with channels paralleled, in a compact air-cooled chassis that runs on a standard three-phase supply.<\/p>\n\t<p><a href=\"https:\/\/www.arbin.com\/ko\/%eb%b0%b0%ed%84%b0%eb%a6%ac-%ed%85%8c%ec%8a%a4%ed%8a%b8\/lbts-module-html\/\">View LBTS-Module \u2192<\/a><\/p>\n<figure itemscope itemtype=\"https:\/\/schema.org\/ImageObject\">\n\t\t\t\t<img decoding=\"async\" src=\"https:\/\/www.arbin.com\/wp-content\/uploads\/2026\/09\/arbin-rbt4-cell.png\" alt=\"arbin rbt4 cell\" height=\"480\" width=\"480\" title=\"arbin rbt4 cell\" onerror=\"this.style.display='none'\" loading=\"lazy\" \/>\n\t<\/figure>\n\t<p>\uc7ac\uc0dd<\/p>\n<h3>\n\t\t\tRBT \ubaa8\ub4c8\t<\/h3>\n\t<p>30\u00a0V-200\u00a0V \u00b7 10\u00a0A-300\u00a0A\/ch \u00b7 to 1,800\u00a0A<\/p>\n\t<p>High-current module cycling with true bipolar circuitry and no switching time across zero, so a drive cycle is followed rather than approximated. Up to 96\u00a0kW charge power per module, with up to 90% of the discharge returned to the grid<\/p>\n\t<p><a href=\"https:\/\/www.arbin.com\/ko\/%eb%b0%b0%ed%84%b0%eb%a6%ac-%ed%85%8c%ec%8a%a4%ed%8a%b8\/rbt-module.html\/\">View RBT-Module \u2192<\/a><\/p>\n<h2>\n\t\t\tPack Testers\t<\/h2>\n<figure itemscope itemtype=\"https:\/\/schema.org\/ImageObject\">\n\t\t\t\t<img decoding=\"async\" src=\"https:\/\/www.arbin.com\/wp-content\/uploads\/2025\/03\/ARBIN-RBT-High-Power-right.png\" alt=\"ARBIN-RBT-\ud558\uc774\ud30c\uc6cc-\uc6b0\uce21\" height=\"518\" width=\"519\" title=\"ARBIN-RBT-\ud558\uc774\ud30c\uc6cc-\uc6b0\uce21\" onerror=\"this.style.display='none'\" loading=\"lazy\" \/>\n\t<\/figure>\n\t<h4>Regenerative \u00b7 High Voltage<\/h4>\n<h3>\n\t\t\tRBT-Pack\t<\/h3>\n\t<p>300 V-1,500 V \u00b7 50 A-200 A\/ch \u00b7 to 360 kW\/chassis<\/p>\n\t<p>Pack-level cycling, end-of-line and BMS validation at full pack voltage. Dual auto-selecting voltage ranges per channel, Gen3 SiC power stages returning up to 92% of the discharge, and the standard drive cycles running natively.<\/p>\n\t<p><a href=\"https:\/\/www.arbin.com\/ko\/%eb%b0%b0%ed%84%b0%eb%a6%ac-%ed%85%8c%ec%8a%a4%ed%8a%b8\/rbt-high-power.html\/\">View RBT-Pack \u2192<\/a><\/p>\nBeyond one channel\n<h4>Series and parallel, to 1.8&nbsp;MW<\/h4>\n<p>Channels combine in series to raise voltage and in parallel to raise current and power, and whole chassis parallel beyond that. Paralleled channels gain a combined full-scale current range and keep their lower native ranges as well.<\/p>\n1,500&nbsp;VCombined, in series\n3,000&nbsp;ACombined, in parallel\n1.8&nbsp;MWCombined output power\n<h3>Testing cells rather than modules?<\/h3>\n<p>The cell range runs from 10&nbsp;\u00b5A on a benchtop unit to 1,600&nbsp;A paralleled, including per-cell thermal control and high-throughput incoming QC.<\/p>\n<a href=\"https:\/\/www.arbin.com\/ko\/%eb%b0%b0%ed%84%b0%eb%a6%ac-%ed%85%8c%ec%8a%a4%ed%8a%b8-%ec%9e%a5%eb%b9%84\/cell-testers.html\/\">View All Cell Testers \u2192<\/a>\n\t<section id=\"fit\">\nMaking the Choice\n<h2>Which module or pack platform fits your work?<\/h2>\n<p>The comparison table below has the full numbers. This is the reasoning behind which system suits which job, and what the software and the facility need to provide alongside it.<\/p>\n01\n<h3>Module Testers<\/h3>\n<p>Choose LBTS-Module for module R&amp;D and end-of-line work where channel count matters more than power. Four auto-switching current ranges cover 0.1&nbsp;A to 80&nbsp;A on the same channel, at up to 32 channels per chassis.<\/p>\n<p>Choose RBT-Module above roughly 100&nbsp;A, or where a test runs for months and the power and cooling bill matters. Its regenerative stages return up to 90% of the discharge energy to the grid instead of dissipating it as heat in the room.<\/p>\nBest for\nModule R&amp;D\nEnd-of-line\nLifecycle testing\nHigh-rate cycling\n02\n<h3>Pack Testers<\/h3>\n<p>RBT-Pack is specified by the pack&#8217;s voltage window, 300&nbsp;V to 1,500&nbsp;V. Each channel carries two auto-selecting voltage ranges, so a 400&nbsp;V pack runs on the 500&nbsp;V range rather than at full scale.<\/p>\n<p>Choose it for pack-level work: standard drive cycles, BMS validation over CAN, and closed-loop testing against a real controller. Channels combine to 3,000&nbsp;A and 1.8&nbsp;MW where one channel is not enough.<\/p>\nBest for\nPack lifecycle\nBMS validation\nDrive cycles\nEOL &amp; incoming QC\n03\n<h3>Software and Integration<\/h3>\n<p>All three systems are written and run in MITS. Schedules, drive-cycle profiles, safety limits and data logging are all set up there, and MITS also controls third-party chambers and chillers, logs BMS traffic over CAN, and writes results straight into SQL.<\/p>\n<p>Where a rig has to be part of something larger, the same hardware opens up: ArbinCTI and ArbinDriver let your own software, a PLC or an HIL setup command the channels, and control values can be exchanged with the BMS over CAN during a test.<\/p>\nWorth settling early\nMITS or external control\nCAN \/ BMS interface\nWhere data lands\nAC supply &amp; grid-tie\n<p><strong>Not sure which applies?<\/strong> Send the module or pack voltage window, peak current and power, and the channel count you need. An application engineer will come back with a specific configuration and what it asks of the room.<\/p>\n<\/section>\n<h3>Integration interfaces<\/h3>\n<p>What the system connects to alongside MITS, and how it opens up when a rig has to be driven from outside.<\/p>\nBMS &amp; vehicle buses\n<h3>CAN, SMBus and UDS<\/h3>\nCAN&nbsp;2.0 and CAN-FD, with DBC file import so your existing message database is used as-is\nUDS for diagnostic services, and SMBus 2.0 \/ I\u00b2C for smart-battery registers\nBMS signals logged in real time, on the same timebase as voltage and current\nControl values sent <em>\uadf8\ub9ac\uace0<\/em> received over CAN, so the BMS can steer the test step\nSafety limits can be driven from BMS-reported values, not only tester measurements\nThe API layer\n<h3>ArbinCTI &amp; ArbinClient<\/h3>\nTCP\/IP API with Python and C# clients, for third-party software to monitor and control tests\nBoth command-response and publish-subscribe architectures supported\nMulti-dimensional lookup tables generate control values live from measured voltage, temperature, capacity or auxiliary inputs\nCustom Test Instructions in C#\/.NET for logic beyond the standard command set\nConnects to LIMS, MES, digital twins and external analytics platforms\n<a href=\"https:\/\/www.arbin.com\/ko\/%ec%86%8c%ed%94%84%ed%8a%b8%ec%9b%a8%ec%96%b4-%ec%86%94%eb%a3%a8%ec%85%98\/%ed%86%b5%ed%95%a9-%ed%81%b4%eb%9d%bc%ec%9d%b4%ec%96%b8%ed%8a%b8-%ec%86%94%eb%a3%a8%ec%85%98-html\/\">Integration solutions \u2192<\/a>\nDirect, no MITS\n<h3>ArbinDriver<\/h3>\nA portable DLL loaded straight into your own application\nTalks directly to the per-channel microcontrollers, with no MITS in the loop\nIntended for high-speed control pipelines and PLC integration\nThe right layer when the cycler is a subsystem of a larger rig rather than a test station\nHardware safety limits and interlocks remain active regardless of what is commanding the channel\nLab-wide\n<h3>I\/O, chambers and data<\/h3>\nAnalog and digital I\/O with PID or open-loop control, relay and TTL, for pumps, fans, valves and interlocks\nThird-party chambers and chillers driven and logged from inside the schedule via MTCI\nData straight into Microsoft SQL Server or PostgreSQL, streamed via Apache Kafka, or auto-exported as CSV on a schedule\nAuxiliary temperature, voltage and pressure inputs logged on the test timebase\nUPS option for controlled shutdown and restart through a power interruption\n<a href=\"https:\/\/www.arbin.com\/ko\/%ec%86%8c%ed%94%84%ed%8a%b8%ec%9b%a8%ec%96%b4-%ec%86%94%eb%a3%a8%ec%85%98-html\/\">Software solutions \u2192<\/a>\n\t<section id=\"simulation\">\nSimulation, Drive Cycles &amp; BMS\n<h2>Test the pack against real load profiles<\/h2>\n<p>Module and pack testing is run against load profiles rather than constant currents. Profiles are built in the MITS Simulation Editor and called from a schedule like any other step, or driven over CAN while the test runs. The same channels also emulate a battery, so a charger, inverter or BMS can be tested closed-loop before a real pack exists.<\/p>\n10&nbsp;ms\nMinimum set-point interval on a simulation profile\n\u22642&nbsp;ms\nCurrent rise and fall, 10% to 90% of full scale, single channel\nZero\nSwitching time between charge and discharge, from true bipolar circuitry\n1&nbsp;kHz\nMaximum data acquisition rate, from 10&nbsp;kHz ADC sampling\nDrive cycles &amp; load profiles\n<p>Profiles are built in the Simulation Editor and called from a schedule like any other step, or driven dynamically over CAN while the test runs.<\/p>\nFUDS, HPPC, DST, WLTP and custom cycles\nTime vs. current, time vs. power and time vs. load\nUploaded as a file, or streamed live over CAN\nAdaptive logging raises the acquisition rate through transients\nBattery simulation &amp; HIL\n<p>The channel can emulate a battery rather than test one, using an Rint model driven by your own lookup tables &#8211; V = OCV(SOC) \u2212 I\u00b7R(SOC).<\/p>\nSOC-OCV-DCR tables from your own test data or the manufacturer&#8217;s spec\nClosed-loop testing of external devices &#8211; chargers, inverters, controllers\nBMS emulation where the real controller is not available yet\nLua scripting for interpolation and custom real-time control algorithms\nValidation &amp; production\n<p>The same channels and the same schedules cover the work from first prototype module to the end of a production line.<\/p>\nBMS validation against live CAN traffic\nModule and pack end-of-line testing, with PLC handshaking over digital I\/O\nIncoming quality control and capacity grading\nLifecycle, DCIR and pulse characterization, second-life assessment\nUnattended and remote operation, with fail-safe recovery after a power interruption\n<p>Control is built from 30+ programmable control types, 90+ meta variables, 16 user-defined variables, up to 9 nested loops and 127 reusable sub-schedules, with nested AND\/OR termination logic &#8211; so a validated drive-cycle procedure is called rather than rebuilt. MITS runs on Windows, macOS and Linux from one codebase, and MITS 11, 10 and 8 remain supported.<\/p>\n<\/section>\n<p>Side by Side<\/p>\n<h2>Compare Arbin Module &amp; Pack Testing Systems<\/h2>\n<p>Compare each platform by application, voltage window, channel count, and how it integrates into a wider test system. Current and power figures are per channel; combined series and parallel ceilings are given on their own line and never folded into the headline range.<\/p>\n<table>\n<thead>\n<tr>\n<th scope=\"col\">\uc81c\ud488<\/th>\n<th scope=\"col\">Best For<\/th>\n<th scope=\"col\">Voltage &amp; Current<\/th>\n<th scope=\"col\">\ucc44\ub110<\/th>\n<th scope=\"col\">Integration &amp; Control<\/th>\n<\/tr>\n<\/thead>\n<tbody>\n<tr>\n<th colspan=\"5\" scope=\"rowgroup\">Module Testers<\/th>\n<\/tr>\n<tr>\n<th scope=\"row\">\n<a href=\"\/ko\/%eb%b0%b0%ed%84%b0%eb%a6%ac-%ed%85%8c%ec%8a%a4%ed%8a%b8\/lbts-module-html\/\">LBTS \ubaa8\ub4c8<\/a>\nAll-Purpose\nLinear module cycler\n<a href=\"\/ko\/%eb%b0%b0%ed%84%b0%eb%a6%ac-%ed%85%8c%ec%8a%a4%ed%8a%b8\/lbts-module-html\/\" aria-label=\"View the LBTS-Module product page\">View Product \u2192<\/a>\n<\/th>\n<td>Module R&amp;D and end-of-line testing where channel count matters more than power, and the tester sits on a production line rather than a grid connection.<\/td>\n<td>\n20 V &#8211; 100 V\nSix range options. 0.1 A &#8211; 80 A per channel across four auto-switching ranges; up to 960 A paralleled. Rise time under 1 ms.\n<\/td>\n<td>\n4 &#8211; 32\n4 or 8 per module, up to 32 per chassis\n<\/td>\n<td>\nMITS platform, shared\nThird-party chamber and automation-software integration, real-world profile simulation, and data into MS SQL, PostgreSQL or Kafka.\n<\/td>\n<\/tr>\n<tr>\n<th scope=\"row\">\n<a href=\"\/ko\/%eb%b0%b0%ed%84%b0%eb%a6%ac-%ed%85%8c%ec%8a%a4%ed%8a%b8\/rbt-module.html\/\">RBT \ubaa8\ub4c8<\/a>\nRegenerative\nHigh-current regenerative module cycler\n<a href=\"\/ko\/%eb%b0%b0%ed%84%b0%eb%a6%ac-%ed%85%8c%ec%8a%a4%ed%8a%b8\/rbt-module.html\/\" aria-label=\"View the RBT-Module product page\">View Product \u2192<\/a>\n<\/th>\n<td>High-current module cycling, drive-cycle simulation and BMS-in-the-loop work, and long-running tests where facility power and cooling are a live constraint.<\/td>\n<td>\n30 V &#8211; 200 V\nFive range options, all operating down to 8 V. 10 A &#8211; 300 A per channel across up to three auto-switching ranges; 1,800 A paralleled per chassis. 24-96 kW charge power per module.\n<\/td>\n<td>\n2 &#8211; 24\n2, 4 or 8 per module; up to 3 modules per chassis\n<\/td>\n<td>\nFull stack\nCAN 2.0\/CAN-FD with DBC import, SMBus, UDS; ArbinCTI and ArbinDriver; analog and digital I\/O; MTCI chamber and chiller control; auxiliary voltage, temperature and pressure. Regenerates up to 90%.\n<\/td>\n<\/tr>\n<\/tbody>\n<tbody>\n<tr>\n<th colspan=\"5\" scope=\"rowgroup\">Pack Testers<\/th>\n<\/tr>\n<tr>\n<th scope=\"row\">\n<a href=\"\/ko\/%eb%b0%b0%ed%84%b0%eb%a6%ac-%ed%85%8c%ec%8a%a4%ed%8a%b8\/rbt-high-power.html\/\">RBT-Pack<\/a>\nRegenerative\nHigh-voltage regenerative pack cycler\n<a href=\"\/ko\/%eb%b0%b0%ed%84%b0%eb%a6%ac-%ed%85%8c%ec%8a%a4%ed%8a%b8\/rbt-high-power.html\/\" aria-label=\"View the RBT-Pack product page\">View Product \u2192<\/a>\n<\/th>\n<td>Pack-level lifecycle and end-of-line testing, BMS validation, and the standard drive cycles &#8211; FUDS, HPPC, DST, WLTP &#8211; at full pack voltage and power.<\/td>\n<td>\n300 V &#8211; 1,500 V\nTwo auto-selecting ranges per channel; charge from 0 V, discharge floor 20 V to 60 V by range. 50 A &#8211; 200 A and 60-200 kW per channel; 180-360 kW per chassis. Combined: 1,500 V, 3,000 A, 1.8 MW.\n<\/td>\n<td>\n2 &#8211; 6\nPer chassis, voltage dependent; chassis parallel for more\n<\/td>\n<td>\nFull stack\nSame interfaces as RBT-Module &#8211; CAN 2.0\/CAN-FD with DBC import, SMBus, UDS, ArbinCTI, ArbinDriver, I\/O and MTCI &#8211; plus Rint-model battery simulation for HIL. Regenerates up to 92%, anti-islanding in ~40 ms.\n<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n<p>Product-family ranges are summarized for comparison. Available voltage, current, channel-count and power combinations depend on the selected configuration, and chassis output power is customizable in increments. Testing cells rather than modules? See <a href=\"\/ko\/%eb%b0%b0%ed%84%b0%eb%a6%ac-%ed%85%8c%ec%8a%a4%ed%8a%b8-%ec%9e%a5%eb%b9%84\/cell-testers.html\/\">LBTS-Cell, RBT-Cell, HPS and the rest of the cell range<\/a>.<\/p>\n<p>Regenerative Battery Testing Systems<\/p>\n<h1>Configure Your RBT System<\/h1>\n<p>Start by selecting the system type, then configure it step by step. Both series use regenerative circuitry that returns discharge energy to the facility grid.<\/p>\n  <button type=\"button\" data-series=\"module\" aria-pressed=\"true\">\n    RBT-Module\n    RBT42 &middot; 8 V to 200 V &middot; up to 300 A per channel &middot; cell and module testing\n  <\/button>\n  <button type=\"button\" data-series=\"pack\" aria-pressed=\"false\">\n    RBT-Pack\n    RBT43 to RBT46 &middot; up to 1,500 V &middot; up to 200 A per channel &middot; module and pack testing\n  <\/button>\n<section id=\"rbt42-configurator\">\n  <h2>Configure Your RBT-Module<\/h2>\n  <p>Choose a channel module, voltage range, and chassis density. The system specification updates as you select.<\/p>\n        <p>1 Channel module<\/p>\n          <button type=\"button\" data-group=\"module\" data-value=\"RBT42082H\" aria-pressed=\"true\">RBT42082H8 channels &middot; up to 75 A<\/button>\n          <button type=\"button\" data-group=\"module\" data-value=\"RBT42043H\" aria-pressed=\"false\">RBT42043H4 channels &middot; up to 150 A<\/button>\n          <button type=\"button\" data-group=\"module\" data-value=\"RBT42023H\" aria-pressed=\"false\">RBT42023H2 channels &middot; up to 300 A<\/button>\n        <p>2 Voltage range<\/p>\n          <button type=\"button\" data-group=\"voltage\" data-value=\"30\" aria-pressed=\"false\">30 V<\/button>\n          <button type=\"button\" data-group=\"voltage\" data-value=\"40\" aria-pressed=\"false\">40 V<\/button>\n          <button type=\"button\" data-group=\"voltage\" data-value=\"60\" aria-pressed=\"true\">60 V<\/button>\n          <button type=\"button\" data-group=\"voltage\" data-value=\"100\" aria-pressed=\"false\">100 V<\/button>\n          <button type=\"button\" data-group=\"voltage\" data-value=\"200\" aria-pressed=\"false\">200 V<\/button>\n        <p>All ranges support 8 V minimum operation. Discharge to 0 V available upon request.<\/p>\n        <p>3 Modules per chassis<\/p>\n          <button type=\"button\" data-group=\"modules\" data-value=\"1\" aria-pressed=\"true\">1 moduleMaximum power per module<\/button>\n          <button type=\"button\" data-group=\"modules\" data-value=\"2\" aria-pressed=\"false\">2 modulesBalanced power and density<\/button>\n          <button type=\"button\" data-group=\"modules\" data-value=\"3\" aria-pressed=\"false\">3 modulesMaximum channel count<\/button>\n        <p>4 AC\/DC power supplies per module<\/p>\n        <p>Each supply adds +12 kW charge and -11 kW discharge power. Available supply counts depend on the voltage range and chassis density.<\/p>\n        RBT42082H\n          Channels per chassis\n          8\n          8 per module\n          Voltage per channel\n          8 V to 60 V\n          4-wire Kelvin sensing\n          Current ranges (&plusmn;)\n          75 A, 10 A\n          Auto-switching\n          Charge power per module\n          96 kW\n          8 supplies &times; +12 kW\n          Discharge power per module\n          88 kW\n          8 supplies &times; -11 kW\n          Chassis charge power\n          96 kW\n          1 module installed\n          Regenerative efficiency\n          Up to 82%\n          Energy returned to grid\n          Max parallel current\n          Up to 600 A\n          All 8 channels paralleled\n      <p>Part number:  &middot; Reference configuration: <\/p>\n      <p><strong>*<\/strong> Charge and discharge power are calculated from the number of AC\/DC supplies selected, at +12 kW charge and -11 kW discharge per supply. Parallel current assumes all channels in the chassis are paralleled, up to the 1,800 A chassis limit. Contact Arbin to confirm the final power allocation for a specific configuration.<\/p>\n      <button type=\"button\" id=\"m42-matrix-toggle\" aria-expanded=\"false\" aria-controls=\"m42-matrix-wrap\">Show all configurations in one table<\/button>\n      <table>\n        <caption>All RBT-Module configurations. Voltage options of 30 V, 40 V, 60 V, 100 V, and 200 V apply to every row.<\/caption>\n        <thead>\n          <tr>\n            <th scope=\"col\">\ubaa8\ub4c8<\/th>\n            <th scope=\"col\">Modules \/ Chassis<\/th>\n            <th scope=\"col\">Channels \/ Chassis<\/th>\n            <th scope=\"col\">Current Ranges (&plusmn;)<\/th>\n            <th scope=\"col\">AC\/DC Supplies per Module<\/th>\n            <th scope=\"col\">Charge Power per Module<\/th>\n            <th scope=\"col\">Discharge Power per Module<\/th>\n          <\/tr>\n        <\/thead>\n        <tbody id=\"m42-matrix-body\"><\/tbody>\n      <\/table>\n    <p>Each AC\/DC bidirectional power supply provides up to +12 kW charge and -11 kW discharge power. The maximum supply count, and therefore the maximum power per module, also depends on the voltage range selected; use the configurator above for the available combinations.<\/p>\n<\/section>\n<section id=\"rbtpack-configurator\">\n  <h2>Configure Your RBT-Pack<\/h2>\n  <p>Choose a model, facility AC input power, voltage range, channel count, and total output power. The system specification updates as you select. Channels can be paralleled to increase current and power output, and RBT43012 and RBT44012 channels can also be configured in series to increase voltage.<\/p>\n        <p>1 Model<\/p>\n          <button type=\"button\" data-group=\"model\" data-value=\"RBT43012\" aria-pressed=\"false\">RBT43012Up to 500 V &middot; 200 A<\/button>\n          <button type=\"button\" data-group=\"model\" data-value=\"RBT44012\" aria-pressed=\"false\">RBT44012Up to 750 V &middot; 150 A<\/button>\n          <button type=\"button\" data-group=\"model\" data-value=\"RBT45012\" aria-pressed=\"true\">RBT45012Up to 1,000 V &middot; 100 A<\/button>\n          <button type=\"button\" data-group=\"model\" data-value=\"RBT46012\" aria-pressed=\"false\">RBT46012Up to 1,500 V &middot; 150 A<\/button>\n        <p>2 AC input power<\/p>\n          <button type=\"button\" data-group=\"input\" data-value=\"340-450\" aria-pressed=\"false\">340 to 450 VAC3-Phase, 50\/60 Hz<\/button>\n          <button type=\"button\" data-group=\"input\" data-value=\"440-520\" aria-pressed=\"true\">440 to 520 VAC3-Phase, 50\/60 Hz<\/button>\n        <p>Every system requires 2 facility power connections: the selected three-phase feed plus a 200 to 240 VAC single-phase feed. The input power also sets the top voltage range on RBT44012 (700 V or 750 V) and RBT46012 (1,400 V or 1,500 V).<\/p>\n        <p>3 Voltage range<\/p>\n        <p>4 Channels<\/p>\n        <p>Each channel is served by its own channel module.<\/p>\n      <p>5 Total output power<\/p>\n      <p>Shared power is one pool distributed across all channels; each channel can draw up to its per-channel maximum, and the pool limits the combined output. Dedicated power reserves the per-channel maximum for every channel simultaneously.<\/p>\n      <p>6 Chassis in parallel<\/p>\n      <p>Identical chassis can operate in parallel to reach up to 3,000 A and 1.8 MW combined. Paralleled chassis must share the same voltage range and power type, and each chassis requires its own three-phase and single-phase feed.<\/p>\n        RBT45012\n          Voltage ranges\n          40 V to 1,000 V\n          Second range: 40 V to 500 V, auto-selected\n          Current ranges per channel (&plusmn;)\n          100 A, 50 A\n          Auto-switching\n          Channels\n          2\n          Parallel capable\n          Max power per channel\n          100 kW\n          Charge or discharge\n          Total output power\n          100 kW\n          Shared between both channels\n          Combined output power\n          200 kW\n          2 chassis in parallel\n          Combined output current\n          Up to 400 A\n          2 &times; 200 A\n          Facility power connections\n          440 to 520 VAC\n          3-Phase, plus 1-Phase 200 to 240 VAC\n          Max parallel current\n          Up to 200 A\n          All 2 channels at &plusmn;100 A\n          Full current available\n          Up to 500 V\n          Power-limited above this voltage\n          Regenerative efficiency\n          Up to 92%\n          Charge efficiency up to 94%\n      <p>Part number:  &middot; Reference configuration: <\/p>\n      <p><strong>*<\/strong> Calculated as total output power divided by the combined current of all channels in parallel. Above this voltage, output current is limited by the total output power rather than the channel current rating. Contact Arbin to confirm the final configuration.<\/p>\n      <p>Discharge to 0 V and limited negative voltage operation are supported with appropriate multi-channel configurations and control modes. Systems can be combined to reach up to 1,500 V, 3,000 A, and 1.8 MW.<\/p>\n      <button type=\"button\" id=\"matrix-toggle\" aria-expanded=\"false\" aria-controls=\"matrix-wrap\">Show the family overview table<\/button>\n      <table>\n        <caption>RBT-Pack family overview. Each channel has two voltage ranges, selected automatically from the Test Object&#8217;s maximum voltage. Total output power is configurable per system; shared power pools step generally in 45 kW increments.<\/caption>\n        <thead>\n          <tr>\n            <th scope=\"col\">Model<\/th>\n            <th scope=\"col\">\uc804\uc555 \ubc94\uc704<\/th>\n            <th scope=\"col\">Current Ranges per Channel<\/th>\n            <th scope=\"col\">\ucc44\ub110<\/th>\n            <th scope=\"col\">Max Power per Channel<\/th>\n            <th scope=\"col\">Total Output Power<\/th>\n            <th scope=\"col\">AC Input<\/th>\n          <\/tr>\n        <\/thead>\n        <tbody id=\"matrix-body\"><\/tbody>\n      <\/table>\n<\/section>\n\t<section id=\"system\">\nBeyond the Channel\n<h2>The complete test cell, not just the cycler<\/h2>\n<p>At module and pack scale the cycler is the smallest part of the decision. How the pack is connected, how the heat leaves the room, what the BMS is told, what commands the test, and what the building can supply all shape the result as much as the channel driving it. Arbin specifies all six layers together against your pack and test plan, rather than shipping a chassis and leaving the rest to the installation.<\/p>\n01\nElectrical\n<h3>Cycler &amp; test channels<\/h3>\n<p>Channel selection follows the pack, not the catalogue: the voltage window, peak current, peak power and pulse requirement together decide the module type, how many fit in a chassis, and whether channels need combining in series or parallel to reach the duty.<\/p>\nVoltage window, peak current and peak power per channel\nSeries and parallel combination to 1,500 V, 3,000 A, 1.8 MW\nBipolar output, with zero switching time between charge and discharge\n02\nConnection\n<h3>Busbars, cabling &amp; fixtures<\/h3>\n<p>At hundreds of amps the thermal design of the connection stops being incidental, and contact resistance enters the measurement directly. Every channel senses 4-wire Kelvin, and the high-current interface is specified around the pack&#8217;s own terminal layout.<\/p>\n4-wire Kelvin sensing on every channel\nHigh-current terminal interface and cable routing\nPre-charge circuitry matches bus to pack voltage before the contactor closes\n03\nThermal\n<h3>Chamber &amp; chiller integration<\/h3>\n<p>Modules and packs are conditioned rather than isolated, so the real question is how tightly the chamber and the coolant loop are tied to the schedule. Both are driven from inside the test and logged alongside the electrical data, so a thermal excursion appears in the same file as the current that caused it.<\/p>\nThird-party chamber control and synchronization via MTCI\nChiller and coolant-loop control through analog and digital I\/O\nTemperature-driven step control and conditional safety limits\n04\nSignals\n<h3>BMS traffic &amp; auxiliary measurement<\/h3>\n<p>A pack result that cannot be traced back to a cell group or a BMS state is hard to act on. CAN and SMBus traffic lands on the same timebase as voltage and current, and isolated auxiliary inputs add the in-pack electrical, thermal and mechanical picture alongside it.<\/p>\nCAN 2.0 \/ CAN-FD, SMBus and UDS, with DBC file import\nIsolated auxiliary voltage for in-pack cell and group monitoring\nThermocouple, PT100, PT10k and pressure or force transducers\n05\nControl &amp; data\n<h3>What commands the test, and where data lands<\/h3>\n<p>Tests are written and run in MITS, and the same platform covers a 20 V module and a 1,500 V pack, so a validated schedule transfers without rework. Where a rig has to be part of something larger, ArbinCTI, ArbinDriver, Lua and lookup tables let your own software, a PLC or a model command the channel directly.<\/p>\nMITS Pro schedules, Simulation Editor for drive cycles\nArbinCTI over TCP\/IP, ArbinDriver DLL, Lua, Custom Test Instructions\nDirect SQL, Kafka streaming, CSV service, CDS and CMCS across the fleet\n06\nFacility\n<h3>Power, safety &amp; commissioning<\/h3>\n<p>At pack energies the tester is a piece of facility plant, and the safety chain has to work independently of whatever is commanding the channel. Limits are checked outside the test control loop, the E-Stop can be tripped from a facility dry contact, and regeneration disconnects itself if the mains misbehaves.<\/p>\nThree-phase 340-520 VAC, grid-tied regeneration, anti-islanding\nHardware E-Stop with all-pole disconnection, channel interlock, isolation contactors\nInstallation, commissioning, training, and ISO\/IEC 17025-accredited calibration\n<p><strong>Every layer is specified against your pack and your test system, not sold as a bundle.<\/strong> Send us what you are testing and how you intend to drive it, and an application engineer will come back with a configuration matched to both.<\/p>\n<a href=\"https:\/\/www.arbin.com\/ko\/contact-us-html\/\">\ubb38\uc758\ud558\uae30<\/a>\n<\/section>\n\t<section id=\"contact\">\nNext Step\n<h2>Tell us what you are testing<\/h2>\n<p>Most configurations are settled in a single conversation, because the four things below narrow the options far faster than a catalogue does. Send them across and a sales engineer will come back with the system that fits, the interfaces it needs, and what it asks of your facility.<\/p>\n01\n<h3>The module or pack<\/h3>\n<p>Nominal and maximum voltage, capacity, cell configuration, and how the terminals are laid out. If it has a BMS, tell us which bus it speaks on.<\/p>\n02\n<h3>Current, power and profile<\/h3>\n<p>Peak current and peak power, whether they are continuous or pulsed, and which profiles you run &#8211; a WLTP cycle asks something different of a channel than a constant-current soak.<\/p>\n03\n<h3>Software and data<\/h3>\n<p>Whether MITS runs the test on its own or has to work with your own software, a PLC or an HIL rig &#8211; plus which chambers need to be in the loop and where the data has to land.<\/p>\n04\n<h3>Facility<\/h3>\n<p>AC supply and available breaker capacity, floor space and clearance, whether the site permits grid-tied regeneration, and how the test area is conditioned.<\/p>\n<a href=\"https:\/\/www.arbin.com\/ko\/%ea%b2%ac%ec%a0%81-%ec%9a%94%ec%b2%ad-html\/\">\uacac\uc801 \uc694\uccad\ud558\uae30<\/a>\n<a href=\"https:\/\/www.arbin.com\/ko\/contact-us-html\/\">Talk to a Sales Engineer<\/a>\n<\/section>","protected":false},"excerpt":{"rendered":"<p>Battery Module &amp; Pack Testing Systems Battery Module and Pack Testing from 20 V to 1,500 V Arbin manufactures linear and regenerative testers for battery module and pack testing, from 20 V modules to 1,500 V packs at up to 1.8 MW. Tests are written and run in MITS, which integrates the whole test facility: [&hellip;]<\/p>\n","protected":false},"author":21,"featured_media":21547,"parent":0,"menu_order":0,"comment_status":"closed","ping_status":"closed","template":"","meta":{"_acf_changed":false,"_seopress_titles_title":"Battery Module & Pack Testing | Arbin Instruments","_seopress_titles_desc":"Explore Arbin battery module and pack testers for 20\u20131,500 V applications, including linear and regenerative systems for R&D, validation, and 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