MRD - OSA System.pdf
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- Optical Spectrum Analyzer (OSA) System
- Solicitation number
- COMBO-AFRL-RMZB-2026-0015
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This is a Minimum Requirements Document for an Optical Spectrum Analyzer (OSA) System dated 15 April 2026, issued by the Air Force Research Laboratory, Sensors Directorate, Multispectral Sensing & Detection Division (AFRL/RYMM).
AFRL/RYMM is seeking to acquire a modernized Optical Spectrum Analyzer system to replace end-of-life legacy instrumentation that no longer meets operational requirements. The existing OSA inventory suffers from insufficient spectral resolution, inadequate processing speeds, and restricted software integration capabilities that hinder research and development activities in photonics, optics, and electromagnetic sensing. The required OSA system must deliver high-resolution, high-speed spectral analysis across a broad wavelength spectrum to support precise optical component characterization, laser source analysis, and system-level performance validation while maintaining compatibility with established laboratory workflows and existing software environments.
The minimum requirements specify that the OSA must provide optical spectrum analysis across approximately 0.25 µm to 2.6 µm wavelength range, support characterization of lasers, broadband sources, and photonic components, and analyze both continuous-wave and pulsed signals. Critical performance specifications include spectral resolution of at least 1.9 GHz (Fourier Transform-based or equivalent technology preferred), high-speed data acquisition, high measurement accuracy and sensitivity for low-signal detection, and wide dynamic range for analyzing both low- and high-power signals. The system must utilize advanced spectral analysis techniques, provide stable and repeatable measurements, support precise wavelength calibration, include integrated software with data visualization and export capabilities in standard formats, provide a software development kit (SDK) for custom analysis and external system integration, support automated measurements, include manufacturer warranty and technical support, comply with applicable federal safety and electromagnetic compatibility standards, and be suitable for standard laboratory environments with plug-and-play functionality for minimal installation downtime.
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Minimum Requirements Document
Optical Spectrum Analyzer (OSA) System
Document Date: 15 April 2026
Background & Scope: The Air Force Research Laboratory, Sensors Directorate, Multispectral
Sensing & Detection Division (AFRL/RYMM) conducts basic and applied research, exploratory development, and advanced technology integration in photonics, optics, and electromagnetic sensing. These efforts directly support United States Air Force (USAF) and Department of War mission objectives by enabling advanced capabilities in electro-optical (EO) sensing and electronic warfare. To maintain technological superiority, these research initiatives rely on the precise characterization, measurement, and analysis of high-fidelity optical signals, components, and systems across a diverse spectral range.
The existing optical spectrum analysis (OSA) inventory within AFRL/RYMM has reached end-of-life (EOL) status and is no longer supported by the Original Equipment Manufacturer (OEM).
The legacy instrumentation exhibits critical operational limitations, including insufficient spectral resolution, inadequate processing speeds, and restricted software and data integration capabilities. These technical deficiencies create significant bottlenecks, hindering the ability of
AFRL engineers and scientists to efficiently execute the testing, characterization, and validation of next-generation optical systems. Acquisition of modernized OSA equipment is required to restore operational readiness and meet current research-and-development parameters.
Requirements/Salient Characteristics: The Optical Spectrum Analyzer (OSA) system must deliver high-resolution, high-speed spectral analysis across a broad wavelength spectrum to support diverse laboratory and experimental applications. Essential capabilities include, but are not limited to, precise optical component characterization, high-fidelity laser source analysis, and comprehensive system-level performance validation. The modernized OSA must enhance data accessibility, optimize analysis throughput, and maintain seamless compatibility with established laboratory workflows, automation protocols, and existing software environments. To meet the minimum operational threshold for research and development activities, the following minimum requirements must be met:
1) Measurement Capability:
• Must provide optical spectrum analysis across a wavelength range of approximately 0.25 µm to 2.6 µm.
• Must support characterization of a wide variety of optical sources, including lasers, broadband sources, and photonic components.
• Must be capable of analyzing both continuous-wave and pulsed optical signals.
2) Performance Characteristics:
• Spectral Resolution:
o Must provide high-resolution spectral analysis suitable for precise optical characterization of at least 1.9 GHz (Fourier Transform-based or equivalent technology preferred).
• Measurement Speed:
o Must support high-speed data acquisition to enable rapid analysis and reduce test cycle times.
• Accuracy and Sensitivity:
o Must provide high measurement accuracy and sensitivity sufficient for low-signal optical detection and analysis.
• Dynamic Range:
o Must support a wide dynamic range to enable analysis of both low- and high-power optical signals within the same platform.
3) System Architecture & Technology:
• Must utilize advanced spectral analysis techniques (e.g., Fourier Transform-based analysis or equivalent) to improve measurement resolution and speed.
• Must provide stable and repeatable measurements suitable for research and development environments.
• Must support precise wavelength calibration and long-term measurement stability.
4) Software & Data Integration:
• Must include integrated software capable of data visualization, analysis, and export.
• Must support data export in standard formats compatible with existing laboratory tools and workflows.
• Must provide a software development kit (SDK) or equivalent interface to enable custom data analysis, automation, and integration with external systems.
• Must support secure data handling and integration within government IT environments.
5) System Integration & Compatibility:
• Must be compatible with existing optical laboratory setups and instrumentation.
• Must allow seamless integration with current test configurations without requiring significant modification to existing workflows.
• Must support plug-and-play functionality to minimize downtime during installation and transition.
6) Usability & Operation:
• Must provide a user-friendly interface suitable for engineers, scientists, and technical personnel.
• Must support automated measurements and repeatable testing procedures.
• Must include documentation and training materials sufficient for operational use.
7) Durability and Reliability:
• System must be designed for continuous laboratory operation.
• Must maintain performance stability over extended operational periods.
• Must be supported by manufacturer warranty and available technical support.
8) Support, Maintenance, & Warranty:
• Must include manufacturer-provided support and maintenance.
• Must include warranty coverage for parts and labor.
• Must provide access to technical assistance and software updates.
9) Physical & Environmental Requirements:
• Must be suitable for standard laboratory environments.
• Must operate within typical laboratory power and environmental conditions.
• Must include all necessary components for operation, including power cables and required accessories.
10) Regulatory & Safety Compliance:
• Must comply with applicable federal safety, electrical, and laboratory equipment standards.
• Must meet applicable electromagnetic compatibility (EMC) requirements.
• Must include documentation for safe operation and maintenance procedures.
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