Engineering Facts

Amazing facts about bridges, machines, aircraft, computers, materials, and design.

Visual learning: These pages use real Wikimedia Commons engineering photographs and technical diagrams.
Bridge Engineering
Bridge EngineeringLarge bridges combine structural analysis, materials, foundations, and construction planning.
Jet Engine
Jet EngineAerospace engineering combines thermodynamics, materials, aerodynamics, and control systems.
Circuit Board
Circuit BoardElectrical and computer engineering connect hardware, signals, sensors, and software.
Prosthetic Engineering
Prosthetic EngineeringBiomedical engineering applies design to medicine and human movement.

Structures Flex

Explore the key ideas behind structures flex.

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Safety Factors

Explore the key ideas behind safety factors.

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Tiny Chips

Explore the key ideas behind tiny chips.

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Precision Matters

Explore the key ideas behind precision matters.

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Failures Teach

Explore the key ideas behind failures teach.

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Materials Matter

Explore the key ideas behind materials matter.

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Systems Interact

Explore the key ideas behind systems interact.

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Teams Build Everything

Explore the key ideas behind teams build everything.

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Structures Flex

Structures Flex shows how engineers turn scientific ideas into practical systems. Engineers begin with a problem, define requirements, compare possible designs, calculate forces or performance, build models or prototypes, and test results. For structures flex, success is not only about making something work. Safety, reliability, cost, maintenance, energy use, materials, accessibility, and environmental effects are also part of the design. Modern projects usually involve teams with several specialties.

Safety Factors

Safety Factors shows how engineers turn scientific ideas into practical systems. Engineers begin with a problem, define requirements, compare possible designs, calculate forces or performance, build models or prototypes, and test results. For safety factors, success is not only about making something work. Safety, reliability, cost, maintenance, energy use, materials, accessibility, and environmental effects are also part of the design. Modern projects usually involve teams with several specialties.

Tiny Chips

Tiny Chips shows how engineers turn scientific ideas into practical systems. Engineers begin with a problem, define requirements, compare possible designs, calculate forces or performance, build models or prototypes, and test results. For tiny chips, success is not only about making something work. Safety, reliability, cost, maintenance, energy use, materials, accessibility, and environmental effects are also part of the design. Modern projects usually involve teams with several specialties.

Precision Matters

Precision Matters shows how engineers turn scientific ideas into practical systems. Engineers begin with a problem, define requirements, compare possible designs, calculate forces or performance, build models or prototypes, and test results. For precision matters, success is not only about making something work. Safety, reliability, cost, maintenance, energy use, materials, accessibility, and environmental effects are also part of the design. Modern projects usually involve teams with several specialties.

Failures Teach

Failures Teach shows how engineers turn scientific ideas into practical systems. Engineers begin with a problem, define requirements, compare possible designs, calculate forces or performance, build models or prototypes, and test results. For failures teach, success is not only about making something work. Safety, reliability, cost, maintenance, energy use, materials, accessibility, and environmental effects are also part of the design. Modern projects usually involve teams with several specialties.

Materials Matter

Materials Matter shows how engineers turn scientific ideas into practical systems. Engineers begin with a problem, define requirements, compare possible designs, calculate forces or performance, build models or prototypes, and test results. For materials matter, success is not only about making something work. Safety, reliability, cost, maintenance, energy use, materials, accessibility, and environmental effects are also part of the design. Modern projects usually involve teams with several specialties.

Systems Interact

Systems Interact shows how engineers turn scientific ideas into practical systems. Engineers begin with a problem, define requirements, compare possible designs, calculate forces or performance, build models or prototypes, and test results. For systems interact, success is not only about making something work. Safety, reliability, cost, maintenance, energy use, materials, accessibility, and environmental effects are also part of the design. Modern projects usually involve teams with several specialties.

Teams Build Everything

Teams Build Everything shows how engineers turn scientific ideas into practical systems. Engineers begin with a problem, define requirements, compare possible designs, calculate forces or performance, build models or prototypes, and test results. For teams build everything, success is not only about making something work. Safety, reliability, cost, maintenance, energy use, materials, accessibility, and environmental effects are also part of the design. Modern projects usually involve teams with several specialties.