Recognize core components of a scientific measurement workflow
Noncredit Workshop
Electrical, Sensing & Photonic Systems
Electrical, Sensing & Photonic SystemsNoncredit Workshop · Physical Sciences & Engineering
Scientific Instrumentation Orientation
A practical orientation to measurement systems, laboratory readiness, sensors, calibration, data capture, safety, and instrument documentation.
Program purpose
Workshop Completion Record
Scientific Instrumentation Orientation introduces the habits required for responsible work around research instruments and measurement systems. Participants examine signal paths, calibration, environmental controls, sample and equipment handling, data capture, maintenance records, and the documentation needed to support reliable results.
Learning outcomes
What graduates are prepared to do
Program outcomes connect disciplinary knowledge to methods, judgment, communication, and independently evaluated work.
Follow laboratory safety and instrument-readiness procedures
Document calibration, settings, environmental conditions, and file outputs
Identify when specialist supervision or additional method training is required
Curriculum architecture
How the pathway is organized
Coursework progresses from foundations to methods, integration, and a culminating demonstration of capability.
Foundations
Build the knowledge, skills, and mindset for inquiry.
Application
Apply methods and tools to real-world questions.
Integration
Synthesize across disciplines and perspectives.
Demonstration
Produce and present work that creates impact.
- 01
Laboratory access, safety, and responsibility
- 02
Measurement chains, sensors, and calibration
- 03
Data capture and documentation
- 04
Supervised readiness exercise
Course sequence
Selected curriculum
PHY-110
Physics of Measurement
Introduces mechanics, energy, waves, electricity, measurement, units, uncertainty, and experimental reasoning through practical systems.
- Requirement
- Core
- Credits
- 3.0
Electronics, Sensors & Data Acquisition
Builds practical foundations in circuits, analog and digital sensing, embedded systems, signal conditioning, and reliable data acquisition.
- Requirement
- Core
- Credits
- 3.0
Photonics & Optical Sensing
Examines light, optical systems, detectors, spectroscopy, imaging, and photonic sensing for scientific and engineering applications.
- Requirement
- Core
- Credits
- 3.0
Learning environments
Field, laboratory & studio work
- Electrical and sensing systems
- Optical and photonic systems
- Materials and analytical instrumentation environments
Professional directions
Where the capability can lead
- Laboratory readiness
- Technical-team onboarding
- Preparation for instrument-specific intensives
- Support for research and engineering projects
Culminating work
Capstone, thesis, dissertation, or professional demonstration
A supervised instrument-readiness exercise documents setup, checks, data capture, shutdown, and the limitations of the resulting measurement.
Admissions preparation
Materials and background
Admissions review considers preparation, purpose, prior work, and the fit between the applicant’s goals and the program.
Suitable background for laboratory participation
Completion of required safety acknowledgments
Agreement to supervised equipment use
Next step
Connect this pathway to your academic goals.
Request information for a focused conversation or begin an application through the Stella Nova Student Information System.