Project Sherlock

Technology & Engineering

Engineering

Applying science under constraint — cost, time, materials and the certainty that something will fail.

20 fields · 214 topics · 23 curated works

Fields within Engineering

Mechanical Engineering

14

Forces, motion, heat and the machines that manage them.

Statics · Dynamics · Strength of Materials · Thermodynamics (Applied) · Heat Transfer

Aerospace Engineering

13

Vehicles that operate in air and vacuum, where mass budgets are brutal.

Aerodynamics · Compressible Flow · Flight Mechanics · Aircraft Structures · Propulsion & Jet Engines

Electrical Engineering

11

Generation, transmission and use of electrical power and signals.

Circuit Analysis · Signals & Systems · Power Systems · Power Electronics · Electric Machines & Motors

Electronics & Embedded Systems

12

Small computers doing one job, usually with no operating system to help.

Analog Circuit Design · Digital Circuit Design · Semiconductor Devices · VLSI Design · PCB Design & Layout

Civil Engineering

12

The built environment — the discipline whose failures make the news.

Structural Analysis · Reinforced Concrete Design · Steel Design · Geotechnical Engineering · Foundation Engineering

Chemical Engineering

11

Chemistry scaled from the flask to the plant.

Material & Energy Balances · Transport Phenomena · Reaction Engineering · Separation Processes · Distillation

Materials Science & Engineering

12

Structure, property, processing, performance — and the relationships between them.

Crystal Structure & Defects · Phase Diagrams · Mechanical Behaviour of Materials · Metallurgy · Polymers & Plastics

Software Engineering (Applied)

11

Engineering discipline applied to code, as distinct from computer science.

Systems Design at Scale · API Design · Cloud Architecture · Infrastructure as Code · DevOps Practice

Robotics & Mechatronics

12

Machines that sense, decide and move.

Robot Kinematics · Robot Dynamics · Motion Planning · Localisation & Mapping · Manipulation & Grasping

Control Systems Engineering

11

Making a system behave, despite disturbance and uncertainty.

Feedback Control · PID Control · State Space Methods · Frequency Response Methods · Stability Analysis

Biomedical Engineering

10

Engineering constrained by biology and by regulators.

Biomechanics · Medical Imaging Systems · Biomaterials · Tissue Engineering · Prosthetics & Orthotics

Nuclear Engineering

9

Controlled release of nuclear energy, and everything that must not go wrong.

Reactor Physics · Reactor Design · Thermal Hydraulics · Nuclear Fuel Cycle · Radiation Shielding

Environmental Engineering

8

Engineering the interface between industry and ecosystems.

Water Treatment · Wastewater Engineering · Air Pollution Control · Solid Waste Management · Environmental Impact Assessment

Energy & Power Engineering

11

Producing and moving energy at civilisational scale.

Thermal Power Plants · Wind Energy · Solar Energy Systems · Hydroelectric Power · Geothermal Energy

Industrial & Systems Engineering

11

Optimising whole systems of people, machines and material.

Operations Research (Applied) · Supply Chain Engineering · Production Planning · Quality Engineering · Six Sigma

Manufacturing Engineering

10

How things are actually made, at volume and at tolerance.

Machining & Metal Cutting · Casting & Forming · Welding & Joining · Additive Manufacturing · Injection Moulding

Automotive Engineering

10

Ground vehicles, from powertrain to crash structure.

Internal Combustion Engines · Electric Powertrains · Vehicle Dynamics · Chassis & Suspension · Transmission Systems

Marine & Naval Engineering

8

Vessels and structures that operate in seawater.

Naval Architecture · Ship Hydrodynamics · Hull Structural Design · Marine Propulsion · Stability & Buoyancy

Petroleum & Mining Engineering

9

Extracting resources from the subsurface.

Reservoir Engineering · Drilling Engineering · Production Engineering · Well Logging · Enhanced Oil Recovery

Engineering Practice & Failure

9

The professional and human side — where most catastrophes originate.

Engineering Design Process · Engineering Ethics · Risk & Safety Analysis · Root Cause Analysis · Case Studies in Engineering Failure

Reading in Engineering

23

Start here

No prior grounding assumed.

Then

Assumes you know the vocabulary.

  • Introduction to FlightJohn D. Anderson Jr., 1978

    Derives flight from first principles and its own history at once, so the equations arrive attached to the problems that forced them.

    Book
  • Toyota Production SystemTaiichi Ohno, 1978

    Written by the person who built it: eliminate waste by making problems visible immediately, and stop the line when one appears.

    Book
  • The Art of ElectronicsPaul Horowitz & Winfield Hill, 1980

    Teaches circuit design the way practitioners actually reason — rules of thumb, real component behaviour, and what the textbook model omits.

    Book
  • Normal AccidentsCharles Perrow, 1984

    In tightly coupled, complexly interactive systems, catastrophic failure is a structural property rather than an anomaly.

    Book
  • The Prize: The Epic Quest for Oil, Money and PowerDaniel Yergin, 1990

    A century of geopolitics told through extraction, and the clearest account of why oil engineering has never been a purely technical field.

    Book
  • The Machine That Changed the WorldWomack, Jones & Roos, 1990

    The MIT study that measured the gap between mass and lean production, and forced every carmaker outside Japan to explain itself.

    Book
  • Making Embedded SystemsElecia White, 2011

    Embedded work is engineering under hard constraints — memory, power, no debugger — and this is the book that treats those as the design problem.

    Book

Go deeper

Primary sources and full treatments.

  • Probabilistic RoboticsSebastian Thrun, Wolfram Burgard & Dieter Fox, 2005

    A robot never knows where it is; treating perception and control as inference over that uncertainty is what made autonomous navigation work.

    Book
  • Perry's Chemical Engineers' HandbookRobert H. Perry & Don W. Green, 1934

    The profession's single reference volume — nine decades of process data that would otherwise have to be rediscovered.

    Report
  • Principles of Naval ArchitectureSociety of Naval Architects and Marine Engineers, 1939

    The profession's reference on stability, resistance and structure — the accumulated answer to why ships stay upright.

    Report
  • Shigley's Mechanical Engineering DesignJoseph Shigley, 1963

    The standard design reference: how to size a part so it survives fatigue, not just the static load someone quoted you.

    Book
  • Introduction to Operations ResearchFrederick S. Hillier & Gerald J. Lieberman, 1967

    The standard text on optimising systems under constraint — linear programming, queueing and scheduling as one toolkit.

    Book
  • Wastewater Engineering: Treatment and Resource RecoveryMetcalf & Eddy, 1972

    The reference on the infrastructure that quietly does more for public health than most of medicine.

    Book
  • Introduction to Nuclear EngineeringJohn R. Lamarsh, 1975

    The standard course text on reactor physics and shielding, written so the safety margins are visible rather than assumed.

    Book
  • Medical Instrumentation: Application and DesignJohn G. Webster, 1978

    The standard text on measuring a living body without harming it, where the constraints are as much regulatory as physical.

    Book
  • Feedback Systems: An Introduction for Scientists and EngineersKarl Johan Åström & Richard M. Murray, 2008· Free

    Feedback is a general principle, not an electrical one — the same stability arguments govern circuits, cells, and economies.

    Book