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Technical Notes

Showing 1 - 20 of 106 Technical Notes
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Technical Notes

LDC-37X6 Laser Protection MKS Technical Note

The LDC-37X6 series of laser diode controllers have been designed with multiple levels of laser protection in order to minimize exposure to electro-static discharge, overly high laser current levels, and transients.
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Technical Notes

Temperature Control Range of the LDM-49800T

This technical note describes temperature control range of the LDM-49840T and LDM-49860T.
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Technical Notes

Typical Temperature Stability of the LDT-5500B

This technical note reviews the temperature stability of the LDT-5525B and LDT-5545B Thermoelectric Temperature Controllers.
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Technical Notes

Temperature Stability Using the LDT-5980

This technical note illustrates the temperature control stability of the LDT-5980 High Power Thermoelectric Temperature Controller.
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Technical Notes

Large Signal Frequency Response of the 3916338 Current Source Module

This ILX Lightwave Technical Note presents the bandwidth performance of the LDC-3916338 Module when applying large-signal modulation.
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Technical Notes

LDT-5900C Temperature Stability

This technical note illustrates the temperature control stability achieved by the LDT-5910C and LDT-5940C Thermoelectric Temperature Controllers.
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Technical Notes

Typical Pulse Overshoot of the LDP-3840/03 Precision Pulse Current Source

This technical note presents the results of pulse overshoot measurements performed on an LDP-3840/03 Precision Pulse Current Source.
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Technical Notes

Callendar-Van Dusen Equation and RTD Temperature Sensors

This technical note discusses characteristics of resistance temperature detectors (RTD), the Callendar-Van Dusen equation, and compares RTDs with thermistors.
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Technical Notes

Typical Output Noise of an LDX-3412

This technical note presents the results of noise measurements made on a typical production run of LDX-3412 Precision Current Sources.
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Technical Notes

Temperature Controlled Mini-DIL Mount

This technical note details results of preliminary temperature range and ramp testing on a special modification of the LDM-4982 mount.
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Technical Notes

Minimum Temperature Control Range of the LDM-4984T

This technical note describes the process of finding the minimum stable temperature for the LDM-4984T for a given heat load.
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Technical Notes

Typical Output Stability of the LDX-3100 Board Level Current Source

This technical note presents the results of output drift measurement tests performed on a typical LDX-3100 Board-Level Precision Current Source.
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Technical Notes

Output Current Accuracy of an LDX-3525B

This technical note presents the results of measurement (display) accuracy tests performed on a typical production model LDX-3525B Precision Current Source.
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Technical Notes

Voltage Limit Protection of the LDC-3916 Laser Diode Controller

This technical note presents the results of measurements on the voltage limit protection circuitry in a typical LDC-3916 Laser Diode Controller.
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Technical Notes

Minimum Temperature Range of the LDM-4405

This technical note describes the minimum temperature for a given heat load when using the LDM-4405 TO-Can Laser Diode Mount.
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Technical Notes

Laser Physics

A laser is a source of coherent light. It contains an optical oscillator that increases the amplitude of an optical field while maintaining its phase. This coherent amplification is achieved through Light Amplification by Stimulated Emission of Radiation (LASER).
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Technical Notes

Laser Diode Characterization

Laser diodes are characterized by their inherent physical properties within five distinct categories, including: electrical, spatial, spectral, optical, and dynamic properties.
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Technical Notes

Laser Diode Production Burn-In

High temperature burn-in screening is used in laser diode manufacturing to screen out devices that are likely to have unacceptably short lives and to ensure that the remaining population of lasers will have a statistically acceptable level of reliability.
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Technical Notes

Laser Diode Life Testing

Life test studies are used to collect laser diode lifetime data under carefully controlled operating conditions. These data are then used to develop statistical models that can predict the laser lifetime under the intended operating conditions.
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Technical Notes

Fundamentals of Laser Diode Control

To assess the quality, performance, and characteristics of laser diodes, manufacturers often perform exhaustive testing which requires electro-optical, spectral and spatial characterization of the laser output.
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