Stanford Root

Schedule

Stanford Root

Schedule

BIOS 214

Open-Source MRI Sequence Development: Simulation to Scanner

UNITS:2
GRADING:Medical Satisfactory/No Credit
LEVEL:Graduate
GER:—

This mini-course introduces an end-to-end workflow for rapid MRI sequence development and image reconstruction using open-source tools. Students will design pulse sequences in Pulseq, simulate and validate them with KomaMRI, and reconstruct simulated or acquired MRI data using BART and MRIReco. Students will also learn how Pulseq sequences and reconstruction workflows can be integrated directly on MRI scanners through Pulseq interpreters and OpenRecon. The course combines short lectures with hands-on coding and lab sessions focused on rapid prototyping, simulation, acquisition, and reconstruction. There will be an emphasis on research rigor, reproducibility and transparency, by using open-source tools and the creation of reproducible pipelines. Intended for students with basic programming experience and an interest in MRI and computational methods.

Syllabus for selected term:
View Autumn 2026 Syllabus

Sections

1 Term
Lecture 1Open
ID: 27800
0 / 15 enrolled
DAYS:Monday, Wednesday, Friday
TIME:9:30 AM – 10:20 AM
LOCATION:School of Medicine Room
INSTRUCTOR:
Ennis, Daniel, Castillo Passi, Carlos
2units
Lab Section 1Open
ID: 27801
0 / 15 enrolled
DAYS:Monday, Wednesday, Friday
TIME:10:30 AM – 11:50 AM
LOCATION:School of Medicine Room
INSTRUCTOR:
Ennis, Daniel, Castillo Passi, Carlos
2units

BIOS 214: Open-Source MRI Sequence Development: Simulation to Scanner

2 units · Medical Satisfactory/No Credit

This mini-course introduces an end-to-end workflow for rapid MRI sequence development and image reconstruction using open-source tools. Students will design pulse sequences in Pulseq, simulate and validate them with KomaMRI, and reconstruct simulated or acquired MRI data using BART and MRIReco. Students will also learn how Pulseq sequences and reconstruction workflows can be integrated directly on MRI scanners through Pulseq interpreters and OpenRecon. The course combines short lectures with hands-on coding and lab sessions focused on rapid prototyping, simulation, acquisition, and reconstruction. There will be an emphasis on research rigor, reproducibility and transparency, by using open-source tools and the creation of reproducible pipelines. Intended for students with basic programming experience and an interest in MRI and computational methods.

Offered in Autumn 2026 at Stanford University.

Autumn 2026 sections

  • Lab Section — Monday Wednesday Friday 10:30 AM – 11:50 AM — School of Medicine Room — Ennis, Daniel, Castillo Passi, Carlos (Graduate)
  • Lecture — Monday Wednesday Friday 9:30 AM – 10:20 AM — School of Medicine Room — Ennis, Daniel, Castillo Passi, Carlos (Graduate)

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  • BIOS 206: RNA Biology: From Basic Mechanisms to Therapeutic Frontiers
  • BIOS 207: Antibody-Based Targeted Therapeutics: How to Treat Cancer with Precision?
  • BIOS 209: Experimental Design and Tools for Human Electrophysiology
  • BIOS 215: Stanford SKY Campus Happiness Retreat
  • BIOS 216: The Practice of Reproducible Research
  • BIOS 217: Foundations of statistics and reproducible research
  • BIOS 218: The Evolution of Evolvability
  • BIOS 219: Early Development Strategies for Neutralizing Antibodies and Brain Permeable Small Molecules
  • BIOS 223: Development and reporting of robust and reproducible LC-MS/MS assays

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