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Serie XR

Programmable DC Power Supply

Size
2U
Power
2 kW to 10 kW
Manufactured
USA
Build-time
4-6 weeks

La serie 2U XR completa la serie 1u SL fornendo modelli ad alta tensione (maggiore di 1500 VDC) e ad alta corrente (maggiore di 250 ADC) in un pacchetto 2U a 2 kW, 4 kW, 6 kW, 8 kW e 10 kW. La serie XR presenta la gamma di tensione più alta nell'offerta di prodotti di Magna-Power, fino a 10.000 VDC e modelli ad alta corrente fino a 600 DC, tutti utilizzando l'elaborazione dell'energia della firma dell'azienda per fornire una solida conversione di potenza. Inoltre, i livelli di programmazione e monitoraggio ad alta precisione consentono la fiducia nelle misurazioni dell'alimentazione, eliminando la necessità di misuratori di alimentazione esterni.

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Prestazioni ad alta tensione e alta corrente in 2U

Prestazioni ad alta tensione e alta corrente in 2U

Uscita precisa e stabile per carichi impegnativi.

La Serie XR integra la Serie SL in formato 1U, estendendosi a modelli da 2–10 kW per alta tensione, da 2000 Vdc fino a 10.000 Vdc, e alta corrente, da 375 Adc fino a 600 Adc—il tutto in un formato compatto 2U. In modalità tensione costante o corrente costante con crossover automatico, la Serie XR offre un rapido recupero dei transitori, precisione di programmazione di ±0,075% per tensione e corrente e precisione di misura di ±0,2%—garantendo un controllo e una lettura affidabili senza strumentazione esterna.

Configurato su ordinazione con opzioni integrate

Configurato su ordinazione con opzioni integrate

Funzionalità standard avanzate, estendibili quando necessario.

La Serie XR parte da una solida base: SCPI tramite RS232, I/O utente isolato a 37 pin, driver LabVIEW e IVI e software Remote Interface inclusi. Quando le applicazioni richiedono di più, le opzioni completamente integrate personalizzano prestazioni, connettività e meccanica, senza scatole esterne o cablaggi improvvisati.

Controllo continuo dal pannello frontale con opzione pannello cieco

Controllo continuo dal pannello frontale con opzione pannello cieco

Controllo diretto dove serve, nascosto dove non serve.

Il pannello frontale standard XR offre controllo rotativo e tramite tasti, strumentazione digitale luminosa e indicatori di stato chiari, consentendo agli operatori di configurare i setpoint, avviare e arrestare l'alimentatore e verificare lo stato del sistema a colpo d'occhio. Per OEM e strumenti di produzione, il pannello frontale cieco opzionale (versione C) elimina completamente i controlli locali, mantenendo il pieno controllo tramite interfacce di comunicazione e I/O utente posteriore a 37 pin, garantendo sistemi sicuri, ordinati e a prova di operatore.

Rugged by design: safety + reliability, as you'd expect from Magna-Power.

Elaborazione di potenza affidabile a corrente impressa

Elaborazione di potenza affidabile a corrente impressa

Robusto per design: topologia autoprotettiva per la massima operatività.

The SLx Series uses a high-frequency, current-fed architecture that adds a control stage beyond conventional voltage-fed designs. This topology inherently limits fault energy—avoiding fast-rising current spikes and magnetic core saturation so the supply self-protects and your load stays safe. Paired with state-of-the-art SiC power semiconductors, SLx delivers class-leading power density, efficiency, and reliability, including continuous full-power operation up to 50°C ambient.

  • Current-fed architecture with an added control stage vs. voltage-fed.
  • Inherent surge immunity—no current spikes or core saturation.
  • Self-protecting behavior under fault conditions.
  • SiC devices for high density and efficiency; full power to 50°C.
Sicurezza stratificata, interblocco e arresto di emergenza

Sicurezza stratificata, interblocco e arresto di emergenza

Limiti programmabili standard più spegnimento cablato.

Una fase di avviamento graduale mantiene la corrente di spunto al di sotto dell'assorbimento a regime, mentre la diagnostica integrata monitora le condizioni di linea, termiche e interne. In caso di guasto, un intervento immediato one-shot (OSHT) arresta l'inverter. I guasti vengono segnalati sul display di stato del pannello frontale e tramite SCPI/Modbus per una rapida risoluzione dei problemi.

  • L'avviamento graduale limita la corrente di spunto; l'assorbimento CA resta inferiore alla corrente a pieno carico.
  • Interventi programmabili: sovratensione, sovracorrente, sovrapotenza.
  • Monitoraggio termico su dissipatore e condensatori di uscita.
  • Ingresso interblocco a 5V per contatto pulito, inibizione a ritenuta (alimentazione di controllo mantenuta).
  • Arresto di emergenza a 24 V che bypassa la logica per interrompere la CA; spegnimento hardware completo.

From lab scripts to factory PLCs, flexible programming & integration.

Integrazione software semplificata

Comandi leggibili, risultati rapidi—funziona con qualsiasi linguaggio.

Gli alimentatori MagnaDC offrono un'API testuale chiara con SCPI nativo, un linguaggio di comando basato su ASCII inviato tramite comunicazioni socket. Oltre 40 comandi ben documentati coprono avvio/arresto, set point per tensione, corrente, misurazioni ad alta precisione e configurazione completa—così i vostri script e sistemi passano rapidamente dal proof-of-concept alla produzione.

  • Set di comandi SCPI con comportamento coerente.
  • Avvio/arresto e protezioni: abilitazione dell'uscita, impostazione dei limiti di intervento, interrogazione dello stato.
  • Letture ad alta precisione: tensione, corrente, potenza e feedback di sensing.
  • Documentazione ed esempi orientati allo sviluppatore.
import serial
magnaPower = serial.Serial(port='COM4', baudrate=19200)
magnaPower.write('*IDN?\n'.encode())
print magna_power.readline()
magnaPower.write('VOLT 0\n'.encode())
magnaPower.write('CURR 0\n'.encode())
magnaPower.write('OUTP:START\n'.encode())
magnaPower.write('VOLT 270\n'.encode())
currSetPoints = [50, 100, 150, 250]
for currSetPoint in currSetPoints:
    print 'Setting Current to %s A' % currSetPoint
    magnaPower.write('CURR {0}\n'.format(currSetPoint).encode())
    magnaPower.write('MEAS:VOLT?\n'.encode())
    print magnaPower.readline()
    time.sleep(20)
magnaPower.write('OUTP:STOP\n'.encode())
magnaPower.close()
magna_power = serial('COM4', 'BaudRate', 19200);
fopen(magnaPower);
fprintf(magnaPower,'*IDN?');
idn = fscanf(magnaPower);
fprintf(magnaPower,'VOLT 0');
fprintf(magnaPower,'CURR 0');
fprintf(magnaPower,'OUTP:START');
fprintf(magnaPower,'VOLT 270');
for currSetPoint in [50, 100, 150, 250]
    display('Setting Current to '+currSetPoint+' A');
    fprintf(magnaPower, 'CURR '+currSetPoint);
    fprintf(magnaPower,'MEAS:VOLT?');
    display(fscanf(magnaPower));
    pause(20);
end 
#include <stdio.h>
#include <stdint.h>
#include <string.h>
#include <windows.h>

int main()
{
    printf("Opening connection.\n");

    uint8_t recvBuffer[sizeof(uint8_t) * 256];
    memset(recvBuffer, 0, 256);

    // Choose the serial port name.  
    // COM ports higher than COM9 need the \\.\ prefix, which is written as
    // "\\\\.\\" in C because we need to escape the backslashes.
    const char* device = "\\\\.\\COM4";

    // Choose the baud rate (bits per second).  
    uint32_t baud_rate = 19200;

    HANDLE port = open_serial_port(device, baud_rate);
    if (port == INVALID_HANDLE_VALUE) { return 1; }

    char* scpiCmd = (char*)"*IDN?\n";
    size_t cmdLen = strlen(scpiCmd);
    int result = write_port(port, (uint8_t*)scpiCmd, cmdLen);
    if (result < 0)
        return -1;
   
    result = read_port(port, recvBuffer, 256);
    printf("Sent: %s\nReceived: %s\n", scpiCmd, recvBuffer);
   
    scpiCmd = (char*)"VOLT 0\n";
    cmdLen = strlen(scpiCmd);
    result = write_port(port, (uint8_t*)scpiCmd, cmdLen);
    if (result < 0)
        return -1;

    scpiCmd = (char*)"CURR 0\n";
    cmdLen = strlen(scpiCmd);
    result = write_port(port, (uint8_t*)scpiCmd, cmdLen);
    if (result < 0)
        return -1;

    scpiCmd = (char*)"OUTP:START\n";
    cmdLen = strlen(scpiCmd);
    result = write_port(port, (uint8_t*)scpiCmd, cmdLen);
    if (result < 0)
        return -1;

    scpiCmd = (char*)"VOLT 270\n";
    cmdLen = strlen(scpiCmd);
    result = write_port(port, (uint8_t*)scpiCmd, cmdLen);
    if (result < 0)
        return -1;

    char setPoints[4][5] = {"50", "100", "150", "200"};
    char setPointBuffer[40];
    scpiCmd = (char*)"MEAS:VOLT?\n";

    for (int i = 0; i < 4; i++)
    {
        sprintf(setPointBuffer, "CURR %s\n", setPoints[i]);
        printf("Setting current to %s A\n", setPoints[i]);
        cmdLen = strlen(setPointBuffer);
        result = write_port(port, (uint8_t*)setPointBuffer, cmdLen);
        if (result < 0)
            return -1;
        memset(recvBuffer, 0, 256);
        result = read_port(port, recvBuffer, 256);
        printf("Received: %s\n", recvBuffer);
        Sleep(20000);  // 20000ms = 20s
    }

    scpiCmd = (char*)"OUTP:STOP\n";
    cmdLen = strlen(scpiCmd);
    result = write_port(port, (uint8_t*)scpiCmd, cmdLen);
    if (result < 0)
        return -1;

    CloseHandle(port);

    printf("Connection closed.\n");
    return 0;
}
using System;
using System.IO.Ports;
using System.Threading;

namespace SerialCommunicationInCSharp
{
  public class Program
  {
    static bool _continue;
    static SerialPort serialPort;

    public static void Main(string[] args)
    {
      Thread readThread = new Thread(Read);

      Console.WriteLine("Opening connection.");

      // Create a new SerialPort object with default settings.
      serialPort = new SerialPort("COM4", 19200, Parity.None, 8, StopBits.One);

      // Set the read/write timeouts
      serialPort.ReadTimeout = 500;
      serialPort.WriteTimeout = 500;

      serialPort.Open();
      _continue = true;
      readThread.Start();

      Console.WriteLine("Sending: *IDN?");
      serialPort.WriteLine("*IDN?");

      serialPort.WriteLine("VOLT 0");
      serialPort.WriteLine("CURR 0");
      serialPort.WriteLine("OUTP:START");
      serialPort.WriteLine("VOLT 270");

      string[] currSetPoints = { "50", "100", "150", "250" };
ß
      for(int i = 0; i < currSetPoints.Length; i++)
      {
        serialPort.WriteLine(String.Format("'CURR {0}", currSetPoints[i]));
        serialPort.WriteLine("MEAS:VOLT?");
        Thread.Sleep(20000);
      }

      serialPort.WriteLine("OUTP:STOP");

      Console.WriteLine("Closing connection.");
      _continue = false;
      serialPort.Close();
      }

    public static void Read()
    {
      while (_continue)
      {
        try
        {
          string message = serialPort.ReadLine();
          Console.WriteLine("Received: " + message);
        }
        catch (TimeoutException) { }
      }
    }
  }
}
User I/O esterno per controllo PLC o simulazione PHIL

User I/O esterno per controllo PLC o simulazione PHIL

Collegalo come un modulo I/O—non è necessario alcun isolamento aggiuntivo.

Via the included rear 37-pin User I/O connector, MagnaDC supplies can be fully driven and monitored by external signals or a PLC. Voltage, current, OVT, and OCT set points are programmed with 0–10 V analog inputs, while each diagnostic condition has its own +5V digital status pin. Built-in +2.5V, +5V, and +10V reference rails let you use dry contacts without adding external supplies. All I/O is isolated from the output and referenced to earth ground as standard.

  • 0–10 V analog programming for V, I, OVT, and OCT.

  • Per-fault digital outputs: each diagnostic has its own +5V pin.

  • Isolated user I/O referenced to earth ground—no extra isolators.

  • With High Slew Rate Output (+HS), high-bandwidth response and fast rise times support HIL/PHIL simulation applications.

Funzionamento master-slave ad alte prestazioni

Funzionamento master-slave ad alte prestazioni

Scala tensione o corrente senza sacrificare le prestazioni.

All MagnaDC supplies support master-slave operation, using gate-drive signals from the master when configured for parallel, so the whole stack behaves like a single supply—with one control loop and no noisy long analog references. The optional UID47 accessory simplifies wiring for series or parallel sets with near-equal sharing.

  • Single control loop parallel operation: Master gate-drive to slaves for consistent dynamics.

  • Plug & play with the UID47, enabling parallel or series stacks with current/voltage sharing.

  • Series up to the DC isolation rating without added hardware.

  • No additional ORing diodes required for parallel operation.

Software Magna-Power, driver LabVIEW e IVI

Dal pannello frontale virtuale all'automazione completa, pronti all'uso.

Ogni alimentatore MagnaDC include un driver IVI e un driver NI LabVIEW con un set completo di VI, oltre a programmi di esempio per comunicare con l'hardware in pochi minuti. Per il controllo diretto in stile pannello frontale da PC, il Remote Interface Software di Magna-Power offre una visione completa dell'alimentatore: dai comandi e registri alla calibrazione e al firmware.

  • Driver IVI e NI LabVIEW inclusi con set completo di VI.

  • Programmi di esempio per avviare rapidamente integrazione e test.

  • Remote Interface Software con:

    • Pannello frontale virtuale per il controllo manuale

    • Pannello comandi per esplorare e inviare comandi

    • Pannello registri per il monitoraggio dello stato in tempo reale

    • Pannello calibrazione per i potenziometri digitali interni

    • Pannello firmware per aggiornamenti in loco

    • Pannello modulazione per emulare profili non lineari

  • Tutte le interfacce di comunicazione supportate su software e driver per un'esperienza di programmazione coerente.

Software Magna-Power, driver LabVIEW e IVI

State-of-the-art USA manufacturing with worldwide support

Made in the USA

Made in the USA

Produzione verticalmente integrata per un controllo qualità completo.

I prodotti Magna-Power sono progettati, costruiti, testati e assistiti presso la sede centrale di Magna-Power di 73.500 sq-ft a Flemington, New Jersey, dove lavorazioni metalliche, componenti magnetici, assemblaggio PCB e rodaggio vengono eseguiti internamente per un controllo rigoroso su qualità, costi e tempi di consegna.

  • Prodotto negli USA: ingegneria, produzione e assistenza sotto un unico tetto.
  • Produzione interna: lavorazioni metalliche, componenti magnetici, PCB SMT e finiture.
  • Affidabilità comprovata: ogni unità completamente testata, calibrata e sottoposta a rodaggio.
Assistenza mondiale e supporto ricambi OEM

Assistenza mondiale e supporto ricambi OEM

Competenza di fabbrica, risposta locale.

Magna-Power supporta i propri prodotti con centri di assistenza di fabbrica e autorizzati in Nord America, Europa, Regno Unito, Asia-Pacifico, Asia orientale e Sud America, utilizzando procedure di fabbrica e ricambi originali per ripristinare le unità alle specifiche originali, in garanzia e fuori garanzia.

  • Copertura globale: sede centrale nel New Jersey e centri di assistenza autorizzati regionali.
  • Riparazioni uniformi: diagnostica di fabbrica, istruzioni operative e schemi di sistema.
  • Ricambi OEM originali: gruppi di ricambio testati per un servizio prevedibile e con tempi di fermo ridotti.

Model Ordering Guide

For both ordering and production, XR Series models are uniquely defined by several key characteristics, as defined by the following diagram:

XR Series Ordering Guide

XR Series Models

There are 39 different models in the XR Series spanning power levels: 2 kW, 4 kW, 6 kW, 8 kW, 10 kW. To determine the appropriate model:

  1. Select the desired Max Voltage (Vdc) from the left-most column.
  2. Select the desired Max Current (Adc) from the same row that contains your desired Max Voltage.
  3. Construct your model number according to the model ordering guide.
Max Voltage
Vdc
2 kW 4 kW 6 kW 8 kW 10 kW Ripple
mVrms
Efficiency
Max Current Adc
5 375 600 50 80%
10 375 600 50 84%
16 375 500 600 50 84%
20 300 375 500 45 87%
25 320 400 45 88%
32 310 40 88%
2000 1 2 3 4 5 500 93%
3000 0.6 1.3 2 2.6 3.3 600 93%
4000 0.5 1 1.5 2 6500 93%
6000 0.33 0.66 1 1.33 7500 93%
8000 0.25 0.5 0.75 1 8500 93%
10000 0.2 0.4 0.6 0.8 9500 93%
AC Input Voltage
Vac
Input Current Per Phase Aac
208/240 Vac, 1Φ 17    
208/240 Vac, 3Φ 8 15 22 29 35    
380/415 Vac, 3Φ 5 9 12 16 19    
440/480 Vac, 3Φ 4 8 11 14 17    

Specifications are subject to change without notice. Unless otherwise noted, all specifications measured at the product's maximum ratings.

AC Input Specifications

1Φ AC Input Voltage
1Φ, 2-wire + ground, Available on 2 kW models only
208 Vac (operating range 187 - 229 Vac)
240 Vac (operating range 216 - 264 Vac)
3Φ AC Input Voltage
3Φ, 3-wire + ground; Available on all models
208 Vac (operating range 187 to 229 Vac)
240 Vac (operating range 216 to 264 Vac)
380 Vac (operating range 342 to 440 Vac)
415 Vac (operating range 373 to 456 Vac)
440 Vac (operating range 396 to 484 Vac)
480 Vac (operating range 432 to 528 Vac)
Input Frequency
50 Hz to 400 Hz
Power Factor
>0.92 at max power; models with 3Φ AC input
0.70 at max power; models with 1Φ AC input
AC Input Isolation
±2500 Vdc, maximum input voltage to ground

DC Output Specifications

Voltage Ripple
Model specific. Refer to chart of available models.
Line Regulation
Line regulation is a measure of a power supply's ability to maintain its output voltage (or current) given changes in the input line voltage. Line regulation is expressed as percent of change in the output voltage (or current) relative to the change in the input line voltage.
Voltage mode: ± 0.004% of full scale
Current mode: ± 0.02% of full scale
Load Regulation
Load regulation is a measure of the power supply's ability to maintain its output voltage (or current) given changes in the load, measured while operating at the maximum rated voltage (or current). Load regulation is expressed as the difference between voltage (or current) at full load minus voltage (or current) at min load, divided by the products max voltage (or current) rating.
Voltage mode: ± 0.01% of full scale
Current mode: ± 0.04% of full scale
Load Transient Response
Load transient response is a measure of how quickly the power supply's output voltage recovers after a step change in the load, measured while operating at maximum rated voltage.
2 ms to recover within ±1% of regulated output with a 50% to 100% or 100% to 50% step load change
Stability
± 0.10% for 8 hrs. after 30 min. warm-up
Efficiency
80% to 93%
Model specific. Refer to chart of available models.
Maximum Slew Rate
Standard Models
< 170 ms for a programmed output voltage change from 0 to 63%
< 200 ms for a programmed output current change from 0 to 63%
Maximum Slew Rate
Models with High Slew Rate Output (+HS) Option
< 5 ms for a programmed output voltage change from 0 to 63%
< 10 ms for an output current change from 0 to 63%
Bandwidth
Standard Models
3 Hz with remote analog voltage programming
2 Hz with remote analog current programming
Bandwidth
Models with High Slew Rate Output (+HS) Option
60 Hz with remote analog voltage programming
45 Hz with remote analog current programming
DC Output Isolation
Models Rated ≤1000 Vdc
±1000 Vdc, maximum output voltage to ground
DC Output Isolation
Models Rated >1000 Vdc and ≤3000 Vdc
±(1500 Vdc + Vo/2), max output voltage to ground, where Vo is the max rated voltage
DC Output Isolation
Models Rated >3000 Vdc
No output isolation, specify positive or negative output polarity at time of order

Programming Interface Specifications

Front Panel Programming
Stepless aluminum rotary knobs and keypad
Computer Interface
RS232, D-sub DB-9, female (Standard)
LXI TCP/IP Ethernet RJ45 (Option +LXI)
IEEE-488 GPIB (Option +GPIB)
External User I/O Port
Analog and Digital Programming
37-pin D-sub DB-37, female
Referenced to Earth ground; isolated from power supply output
See User Manual for pin layout
Remote Sense Limits (Wired)
Available for models ≤ 1000 Vdc
3% maximum voltage drop from output to load

Accuracy Specifications

Voltage Programming Accuracy
Programming accuracy is a measure of how close the actual power supply output will be to the programmed setting, as measured by an ideal meter.
± 0.075% of max rated voltage
Over Voltage Trip Programming Accuracy
± 0.075% of max rated voltage
Current Programming Accuracy
Programming accuracy is a measure of how close the actual power supply output will be to the programmed setting, as measured by an ideal meter.
± 0.075% of max rated current
Over Current Trip Programming Accuracy
± 0.075% of max rated current
Voltage Readback Accuracy
Readback accuracy is a measure of how close the measured and displayed value will be to the actual power supply output.
± 0.2% of max rated voltage
Current Readback Accuracy
Readback accuracy is a measure of how close the measured and displayed value will be to the actual power supply output.
± 0.2% of max rated current

External User I/O Specifications

Analog Programming and Monitoring Levels
0-10 Vdc
Analog Output Impedances
Voltage output monitoring: 100 Ω
Current output monitoring: 100 Ω
+10V reference: 1 Ω
Digital Programming and Monitoring Limits
Input: 0 to 5 Vdc, 10 kΩ input impedance
Output: 0 to 5 Vdc, 5 mA drive capacity

Physical Specifications

Racking Standard
EIA-310
Rear Support Rails
Included
Size and Weight
2 kW Models
2U
3.50" H x 19" W x 24" D (8.89 x 48.26 x 60.96 cm)
45 lbs (20.41 kg)
Size and Weight
4 kW Models
2U
3.50" H x 19" W x 24" D (8.89 x 48.26 x 60.96 cm)
47 lbs (21.32 kg)
Size and Weight
6 kW Models
2U
3.50" H x 19" W x 24" D (8.89 x 48.26 x 60.96 cm)
48 lbs (21.77 kg)
Size and Weight
8 kW Models
2U
3.50" H x 19" W x 24" D (8.89 x 48.26 x 60.96 cm)
48 lbs (21.77 kg)
Size and Weight
10 kW Models
2U
3.50" H x 19" W x 24" D (8.89 x 48.26 x 60.96 cm)
48 lbs (21.77 kg)

Environmental Specifications

Ambient Operating Temperature
-25°C to 50°C
Storage Temperature
-25°C to +85°C
Humidity
Relative humidity up to 95% non-condensing
Temperature Coefficient
0.04%/°C of maximum output voltage
0.06%/°C of maximum output current
Air Flow
Side air inlet, rear exhaust

Regulatory Specifications

EMC
Complies with 2014/30/EU (EMC Directive)
CISPR 22 / EN 55022 Class A
Safety
Complies with EN61010-1 and 2014/35/EU (Low Voltage Directive)
CE Mark
Yes
RoHS Compliant
Yes

The following are vectorized diagrams for the XR Series. Refer to the Downloads section for downloadable drawings.

Front Panel
Side Panel
Communications Interface
LXI TCP/IP Ethernet Option (+LXI)
Communications Interface
IEEE-488 GPIB Option (+GPIB)
Standard Output Bus
Models ≤1000 Vdc
High Voltage Output Bus
Models >1000 Vdc and ≤3000 Vdc
Very High Voltage Output Bus
Models >3000 Vdc
Very High Voltage Output Cable
Included, Models >3000 Vdc

Integrated Options

Standard integrated options are available for Magna-Power products, allowing the product's performance and communication interfaces to be tailors to the specific application.

High Slew Rate Output
Option
+HS
A hardware and control modification that replaces the standard output stage with one of low capacitance film and/or high RMS current rated aluminum electrolytic capacitors. This option provides higher bandwidth with faster output rise and fall times.
IEEE-488 GPIB
Option
+GPIB
IEEE-488 General Purpose Interface Bus (GPIB) communication interface providing full command support and compatibility with other GPIB devices
LXI TCP/IP Ethernet
Option
+LXI
TCP/IP Ethernet communication protocol and single RJ-45 interface, certified to the LXI Class C standard, for socket communications using conventional computer networks
Ruggedized
Option
+RUG
Internal product ruggedization, which has been independently tested to comply with select MIL-STD-810G and RTCA DO-160 shock and vibration specifications.

Accessories

External accessories and integration services available for this product.

BDx Module
1U blocking diode module covering a wide range of voltages and currents and providing necessary cooling, power supply controls interface, and remote sensing location.
DBx Module
High-performance add-on bringing ultra-high stability less than 10 ppm, up to 24-bit resolution, and up to 10x reduction in ripple.
DC Power Cables
DC power cables with wide range voltage ratings, current ratings, and termination options, made-to-order by Magna-Power
Rack Enclosures and Integration
Various size rack enclosures, including 12U, 24U, 30U, 36U, 30Ux2 and 36Ux2, with casters, fans and product integration.
RS485 Converter
Industrial RS232 to Addressable RS485 Converter. Plugs into product's RS232 port.
UID46: Universal Interface Device 46
Master-slave interface device for load sharing. Includes interface device and (2) D-Sub 37 cables.
UID47: Universal Interface Device 47
Master-slave interface device for load sharing. Includes interface device and (2) D-Sub 37-pin cables with a braided shield.
USB Edgeport Converter
Industrial Plug and Play USB to RS232 Converter. Adapter plugs into product's RS232 port.

Documentation

XR Series Datasheet [4.6.0] [EN] [PDF]
XR Series Datasheet [4.6.0] [ZH] [PDF]
XR Series User Manual [1.3] [EN] [PDF]

Drawings

Software

Photovoltaic Power Profiles Emulation [2.0.0.12] [ZIP] [License Required]