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Need help?Do you have a question about the THORLABS PM100D and is the answer not in the manual?
General| Data Logging | Yes |
|---|---|
| Storage Temperature Range | -20 °C to 70 °C |
| Power Accuracy | ±0.5% of reading |
| Interface | USB |
| Power Supply | USB or AC Adapter |
| Display Update Rate | 10 Hz |
| Detector Type | Photodiode or Thermopile (Sensor Dependent) |
General safety precautions and warnings for operating the PM100D meter.
Lists all available order codes for the PM100D and compatible accessories.
Instructions for inspecting and verifying the contents of the PM100D package.
Steps to prepare the PM100D for initial use, including connecting sensors and power.
Detailed description of the PM100D's front panel controls and display elements.
Description of the connectors and controls located on the side of the PM100D.
Details the bottom mounting thread and rear view features of the PM100D.
Overview of the different display modes and screens available on the PM100D.
Details how to connect Thorlabs C-Series sensors to the PM100D for power and energy measurements.
Explains how to use the navigation keys and soft buttons to interact with the PM100D menu system.
Configuration options for language, backlight, brightness, LCD contrast, sound, and shutdown.
How to configure the main display, sub-displays, and bar-graph for power/energy readings.
Explains how to select manual or auto ranges for power and energy measurements.
How to set the operating wavelength for accurate spectral response measurements.
Setting units, min/max monitor, and other display parameters for measurements.
Procedure for zeroing the sensor to compensate for dark current or thermal effects.
Setting attenuation or gain factors for accurate power/energy calculations.
Measuring power or energy density by setting the incident beam diameter.
Using min/max tracking and relative mode for power/energy drift and offset adjustments.
Displaying sensor temperature and measuring frequency/repetition rate of light sources.
Information on using photodiode sensors, including bandwidth settings and calibration.
Overview of thermal sensors, their operation, and the readout acceleration feature.
Information on pyroelectric sensors for pulse energy, including trigger level settings.
Calculating average power, measuring repetition rate, area calculation, and using custom pyro sensors.
Information on using different measurement display modes like statistics and needle.
How to access and interpret the statistical data collected during measurements.
Using the needle display mode for laser tuning support and viewing power values.
Details on the amplified output signals and their voltage range calculations.
Enabling tuning sound for laser adjustment and managing data logging with SD cards.
Information on recharging the PM100D's LiPo battery via AC adapter or USB.
Guide to selecting the appropriate sensor based on light source and application requirements.
Techniques to minimize noise from grounding, cables, temperature, and ambient light.
Guidelines for accurately measuring pulsed signals with thermal and photodiode sensors.
Understanding the impact of light source line width on measurements and how to compensate.
How temperature differences and airflow affect thermal sensor readings.
Minimizing measurement errors caused by ambient or stray light through zeroing and shielding.
Avoiding back reflection and optimizing beam diameter for sensor measurements.
Best practices for measuring optical power from fibers using various Thorlabs sensors.
Key parameters for choosing pyroelectric sensors and measuring pulse energy.
Overview of the utility software for remote operation, visualization, and data logging.
Description of the PM100D Utility Software's front panel elements and data display.
Details on sub-displays, bargraph, statistics, data logging, and control buttons in the utility software.
Explains various functions like display configuration, logging, reset, and setup saving in the utility software.
Steps to update the PM100D firmware using the DFU wizard.
Instructions for installing the PM100D USB drivers, requiring administrator privileges.
A LabVIEW example demonstrating how to use instrument drivers for measurement tasks.
Overview of SCPI language, its hierarchical structure, and command format.
Details on command syntax, parameter types, and separators like colons and semicolons.
Explanation of standard common commands like *CLS, *RST, *TST?, *WAI.
A table summarizing common SCPI commands and their mnemonics and descriptions.
Detailed reference for specific SCPI commands like *IDN?, *OPC?, *RST, *TST?.
Commands for controlling system settings like beeper, error handling, date/time, and line frequency.
Commands for managing status registers, event conditions, and filters.
Commands to control display brightness and contrast.
Command for retrieving calibration string information.
Commands for setting averaging rate, attenuation, zeroing, beam diameter, and wavelength.
Commands for setting photodiode, thermopile, pyro-detector response, and current/energy ranges.
Commands for setting voltage, frequency ranges, and trigger level for energy mode.
Commands for configuring photodiode filters, thermopile accelerator, and sensor adapter types.
Commands for initiating, configuring, measuring, fetching, and reading data.
Demonstrates using SCPI commands with LabVIEW for instrument communication.
Explanation of LabVIEW VIs for averaging rate, readout config, error log, and sensor information.
Visual representation of LabVIEW VIs for instrument setup, data acquisition, and measurement.
Detailed description of each LabVIEW VI used in the SCPI example.
Guidance on protecting the PM100D from damage and cleaning the unit.
Common issues and solutions for the PM100D, including unit not working or negative readings.
Details the 24-month warranty terms and conditions for the PM100D unit.
Lists the certifications and standards the PM100D complies with, including EMC and safety standards.
Comprehensive technical specifications for the PM100D, including detector compatibility, display, and inputs.
Further technical specifications covering voltage inputs, analog outputs, memory, and accessories.
Tables detailing performance specifications for current, voltage, and thermal sensor inputs.
Diagram and description of the pin configuration for connecting custom sensors.
Thorlabs' policy for returning end-of-life electrical and electronic equipment.
Information on the environmental impact of WEEE and the importance of recycling.
Contact information and locations for Thorlabs offices and sales support worldwide.
