Agilent Technologies 6023A, 6028A, 6010a Initial Setup and Interconnections, Connecting the Load

Page 28

Initial Setup and Interconnections

WARNING: Turn off input ac power before changing any rear-panel connection and make certain all wires and straps are properly connected and terminal block screws are securely tightened before reapplying power. Be certain to replace both terminal block covers before reapplying power to avoid exposing the operator to hazardous voltages.

Connecting the Load

Load connections to the power supply are made at the + and – output terminals on the rear panel. Higher power units have output bus bars. The bus bars are covered by an impact-resistant plastic cover, which is secured to the unit with four M4 x 8 screws. Be certain to replace the cover after making connections. Two factors must be considered when selecting wire size for load connections, conductor temperature and voltage drop.

To satisfy safety requirements, the wires to the load should be at least heavy enough not to overheat while carrying the maximum power supply output current that would flow if the load were shorted. Use Tables 3-2 and 3-3 to determine the proper wire gauge for load connections to the power supply. When 2 or more wires are bundled together, the current carrying capacity of each wire is reduced (see Table 3-3, Note 3). All wires must be properly terminated with connectors securely attached. Do not connect unterminated wires to the power supply. Wire sizes of AWG #14 (2,5mm2) or smaller are normally used only for sense leads.

The minimum wire size required to prevent overheating will not usually be large enough to provide good voltage regulation at the load. For proper regulation the load wires should be large enough to limit the voltage drop to no more than 0.5 volts per lead. Table 3-2 lists resistivity for various wire sizes and the maximum lengths that may be used to limit voltage drop to

0.5volts for various currents. Lengths listed are the sum of the lengths of the (+ ) and ( - ) load wires. Lengths are given in meters and (feet).

To determine maximum lengths (in meters or feet) for currents not listed, use the formula:

maximum length =

0.5 x 1000

current x resistance

where current is expressed in amps and resistance is expressed in ohms/km or ohms/1000 feet. If load regulation is critical, use remote voltage sensing .

WARNING: While calculating load wire size, remember that the wire must be large enough not to overheat while carrying the current that would flow if the load were shorted.

Table 3-3 lists the maximum current-carrying capacity (ampacity) for various sizes of stranded copper wire.

If multiple loads are connected to one supply, each load should be connected to the supply's output terminals using separate pairs of connecting wires. This minimizes mutual coupling effects and takes full advantage of the supply's low output impedance. Each pair of connecting wires should be as short as possible and twisted or shielded to reduce noise pickup and radiation.

If load considerations require the use of output distribution terminals that are located remotely from the supply, then the power supply output terminals should be connected to the remote distribution terminals by a pair of twisted or shielded wires. Each load should be separately connected to the remote distribution terminals. Remote voltage sensing is suggested under these circumstances. Sense either at the remote distribution terminals, or (if one load is more sensitive than the others) directly at the most critical load.

28 Operating Instructions

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Contents USER’S Guide Certification Safety Summary Safety Symbols Safety Information Manufacturer’s Name and AddressProduct Names Model NumbersHerstellerbescheinigung Manufacturer’s DeclarationTable Of Contents VAC Input Power Option IndexSafety Considerations General InformationIntroduction DescriptionAccessories Option DescriptionFor Agilent Models 6023A and 6028A Agilent Part No DescriptionInstrument and Manual Identification SpecificationsOrdering Additional Manuals Related Documents Performance Specifications Supplemental Characteristics Agilent Technologies Model6010A 6011A6012B 6015A6023A 6028ASupplemental Characteristics Temperature Rating CShipping CertificationOutput Characteristic Curve General Information Output Impedance General Information Initial Inspection InstallationPreparation for Use Input Power Requirements Outline DiagramsRack Mounting Agilent Models 6010A, 6011A, 6012B and 6015A Power ConnectionAgilent Models 6023A and 6028A Line Voltage Option Conversion Agilent 6010A, 6011A, 6012B Line Voltage Conversion Components Installation Repackaging for Shipment AC Line Impedance CheckModel Voltage Description Agilent Part number Rear Panel Screw Sizes and Part NumbersAgilent Model 6023A and 6033A Front-Panel Controls and Indicators Operating Instructions Operating InstructionsTurn-On Checkout Procedure Display OVPOperating Instructions Initial Setup and Interconnections Connecting the LoadStranded Copper Wire Ampacity Maximum Wire Lengths To Limit Voltage DropsWire Size Connecting a Bypass Capacitor Overvoltage Protection OVP Protective ShutdownNormal Mode Operating ModesDetermining Operating Point Overrange Operation Constant Voltage Operation Remote Voltage Sensing Constant Current OperationVoltage change due to open sense lead BothAnalog Programming Constant Voltage Output, Resistance ControlVoltage Programming of Output Voltage Operating Instructions = Handle Constant Current Output, Voltage Control Multiple-Supply OperationAuto-Parallel Operation 12. Auto-Parallel Operation Series OperationMonitor Signals 13. Series OperationPage VAC Input Power Option Using Appendix aGeneral Information Manual ChangesManual Changes Index Index Agilent Sales and Support Office United States CanadaEurope Japan Latin America Australia/New ZealandManual Updates
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6015A, 6023A, 6028A, 6012B, 6011A, 6010a specifications

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