b.Connect output terminals of power supply to an electronic load capable of exceed the power supplies output power rating by 50%.

c.Turn on power supply.

d.DVM should read approximately 5Vdc.

e.Set voltage and current controls of power supply to maximum.

f.Decrease resistance of electronic load until "UNREGULATED" LED on front panel lights.

a.DVM should now read between 0 to 0.4Vdc.

To check LOW BIAS or AC Dropout proceed as follows:

a.Using test set-up, Figure A-13, connect top end of 2KΩ resistor to J3-19.

b.Substitute an oscilloscope in place of DVM. Set vertical deflection for 1 volt/div on the DC input.

c.Turn power on and observe oscilloscope trace. Voltage should increase to 5V at power-on and drop to between 0 to 0.4Vac approximately 3 sec.

d.Turn power off. Voltage should go to about 5Vdc before decaying back to 0V.

Note In this test, the Low BIAS or AC Dropout signal decays to 0V only because of loss of power to the + 5V REG Bias Supply used in the test set-up. If in doubt, use an external + 5V supply for this test.

To check OVERTEMPERATURE proceed as follows:

a.Turn off power supply and disconnect line cord.

b.Wait at least two minutes for input capacitors to discharge .

c.Remove top cover and inside cover.

d.Using test set-up, Figure A-13, connect top end of 2KΩ resistor to J3-16.

e.Turn on power supply.

f.DVM should read approximately 5Vdc.

g.Turn off power and wait two minutes.

h.Remove the A4 FET Assembly from the unit.

i.Turn on power supply. DVM should read between 0 to 0.4Vdc.

Note The FET heatsinks are connected to the primary circuit and hazardous voltage (up to between 300 to 400V) exists between the heatsinks and the heatsink and the chassis. These potentials remain for up to 2 minutes if the power supply is turned off. Do not touch the heatsinks or any components on the heatsink assemblies while the power supply is turned on or for at least two minutes after primary power is removed. Do not place any of the heatsink assemblies on extender boards.

Troubleshooting Remote Shutdown. The following procedures check the Remote Shutdown features of 002 Option. Troubleshooting can be accomplished by using a logic probe and referring to the schematic and the circuit description on page 104. Before attempting to troubleshoot the Remote Shutdown section of the option, check for + 5Vdc internal bias. This voltage must be present for proper operation of these circuits

To check the REMOTE TRIP and REMOTE RESET proceed as follows:

a.Connect +5V (J3-23) to Control Isolator bias (J3-l0).

b.Turn unit on and short REMOTE TRIP (J3-30) to + 5V common (J3-7) momentarily. Output should go into unregulated condition with output off.

c.Short REMOTE RESET (J3-29) to + 5V common (J3-7) momentarily and OUTPUT should return to its initial state.

To check REMOTE INHIBIT proceed as follows:

a.Table A-3. Replacement Connect +5V (J3-23) to control isolator bias (J3-10).

b.Turn unit on and short REMOTE INHIBIT (J3-31 ) to + 5V common (J3-7). Output should go to an unregulated output off condition.

c.Remove short between REMOTE INHIBIT (J3-31 ) and + 5V common (J3-7) and output should return to its initial state.

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Agilent Technologies 6012B, 6010a, 6011A, 6015A service manual 110
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6015A, 6012B, 6011A, 6010a specifications

Agilent Technologies, a leader in the field of measurement and analysis, offers a suite of instruments within its 6010 and 6011 series, specifically the 6010A, 6011A, 6012B, and 6015A models. These devices are designed to meet the needs of various industries, including healthcare, environmental monitoring, and materials testing.

The Agilent 6010A is a high-performance spectrometer known for its precision and versatility. It utilizes advanced optical technologies to provide exceptional wavelength accuracy and resolution. This model is particularly useful in laboratories where reliable data is critical, offering a wide spectral range and effective noise reduction features. Its user-friendly interface simplifies complex analyses, making it suitable for both seasoned professionals and newcomers.

Following closely, the Agilent 6011A is recognized for its robust capabilities in laboratory environments. This device incorporates advanced signal processing techniques, enabling high-throughput measurements without compromising on quality. The 6011A is ideal for real-time monitoring applications, ensuring that users can make informed decisions based on accurate, timely data. Its comprehensive software suite is designed to enhance data analysis, allowing for seamless integration with existing laboratory workflows.

The 6012B variant enhances the functionality further by introducing additional features tailored for specific applications. With a focus on flexibility, the 6012B supports multiple measurement modes, including direct and differential detection. This model excels in complex measurements, allowing for greater analytical depth and insights. The built-in calibration options ensure consistent performance, making it a reliable choice for various research and development tasks.

Lastly, the Agilent 6015A model stands out with its leading-edge technology, designed for the most demanding applications. It boasts enhanced sensitivity and an improved dynamic range, making it perfect for trace analysis in challenging environmental samples. The 6015A’s advanced reporting tools provide detailed analytics, helping scientists and researchers interpret results efficiently. Its compact design also makes it suitable for laboratory spaces with limited room, without sacrificing performance.

Together, these models showcase Agilent Technologies' commitment to delivering high-quality, innovative solutions that empower users to achieve their analytical goals effectively and efficiently. Whether in a research, clinical, or industrial setting, the 6010A, 6011A, 6012B, and 6015A continue to set standards in precision instrumentation.
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