Project Sherlock

Engineering

Biomedical Engineering

Engineering constrained by biology and by regulators.

11 topics · 13 curated works

Topics

  • 01Foundations & Overviews1
  • 02Biomechanics1
  • 03Medical Imaging Systems2
  • 04Biomaterials1
  • 05Tissue Engineering1
  • 06Prosthetics & Orthotics1
  • 07Medical Device Design1
  • 08Biosignal Processing1
  • 09Neural Engineering2
  • 10Drug Delivery Systems1
  • 11Clinical Engineering & Regulation1

Reading in Biomedical Engineering

13

A way in

  1. Start here

    No prior grounding assumed.

    Design Control Guidance for Medical Device Manufacturers

    United States Food and Drug Administration · 1997

    Sets out design controls as a traceable chain from user need to verified requirement to validated device, the regulatory framework every US medical…

  2. Then

    Assumes you know the vocabulary.

    MIT 20.010J Introduction to Bioengineering

    MIT OpenCourseWare · 2006

    Applies engineering analysis to living systems, arguing that biology's feedback, noise and self-repair make it a different design substrate rather…

    +3 more at this level

  3. Go deeper

    Primary sources and full treatments.

    A Logical Calculus of the Ideas Immanent in Nervous Activity

    Warren S. McCulloch & Walter Pitts · 1943

    Models a neuron as a simple threshold logic unit and shows that networks of such units can compute any proposition expressible in propositional…

    +7 more at this level

12 of 13 works

Course2006

Design of Medical Devices and Implants

Myron Spector & Ioannis V. Yannas (MIT OpenCourseWare)

Teaches medical device design as starting from a codified clinical problem rather than a technology looking for an application, through the FDA approval path a device must clear before it reaches a patient.

link checked 17 Sept 2026
Paper1973

Computerized Transverse Axial Scanning (Tomography): Part 1. Description of System

Godfrey N. Hounsfield

Describes the first working CT scanner, arguing that combining many one-dimensional X-ray absorption measurements taken at different angles and reconstructing them computationally reveals internal soft-tissue structure that projection X-rays cannot show.

Paper1976

Polymers for the sustained release of proteins and other macromolecules

Robert Langer & Judah Folkman

Shows that large protein molecules, thought too big to diffuse through a polymer, can in fact be released from one at a controlled rate for months, founding the field of controlled drug delivery.

Course2002

Principles of Medical Imaging

MIT OpenCourseWare

Treats every major imaging modality — X-ray CT, MRI, ultrasound, nuclear imaging — as an instance of the same tomographic reconstruction problem, recovering an internal structure from projections.

link checked 17 Sept 2026
Course2009

Biomaterials-Tissue Interactions

MIT OpenCourseWare

Works through the materials-science and cell-biology principles behind scaffolds for tissue engineering, arguing a scaffold must be designed to disappear on a schedule that matches the tissue's own regeneration.

link checked 17 Sept 2026

In order written

1943 – 2024
  1. 1973Computerized Transverse Axial Scanning (Tomography): Part 1. Description of SystemGodfrey N. Hounsfield
  2. 1976Polymers for the sustained release of proteins and other macromoleculesRobert Langer & Judah Folkman
  3. 1997Design Control Guidance for Medical Device ManufacturersUnited States Food and Drug Administration
  4. 2002Principles of Medical ImagingMIT OpenCourseWare
  5. 2006Design of Medical Devices and ImplantsMyron Spector & Ioannis V. Yannas (MIT OpenCourseWare)
  6. 2009Biomaterials-Tissue InteractionsMIT OpenCourseWare
  7. 2014Neurotechnology in ActionMIT OpenCourseWare
  8. 2024Perspectives on the comparative benefits of body-powered and myoelectric upper limb prosthesesSusannah M. Engdahl, Michael A. Gonzalez, Christina Lee & Deanna H. Gates

Elsewhere in Engineering