Engineering is a subset of science.

Science is a subset of engineering.

Engineering and science are distinct but complementary disciplines.

Engineering and science are completely independent fields.

Science provides the theoretical knowledge and principles upon which engineering is built.

Science helps engineers develop new materials and technologies.

Science aids engineers in analyzing and understanding complex systems.

All of the above.

Engineering provides real-world applications and testing grounds for scientific theories.

Engineering helps scientists develop new instruments and tools for research.

Engineering facilitates the translation of scientific discoveries into practical solutions.

All of the above.

Designing bridges that can withstand earthquakes.

Developing medical devices that diagnose and treat diseases.

Creating energy-efficient buildings that reduce carbon emissions.

All of the above.

Science provides the knowledge and understanding that engineers use to develop new technologies.

Engineering provides the practical applications and testing grounds that help scientists refine their theories.

The combination of scientific knowledge and engineering ingenuity leads to groundbreaking advancements.

All of the above.

The discovery of electricity led to the development of electric motors and generators.

The understanding of aerodynamics led to the development of airplanes.

The discovery of penicillin led to the development of antibiotics.

All of the above.

Engineering provides real-world testing grounds for scientific theories and hypotheses.

Engineering helps scientists develop new instruments and tools for research.

Engineering facilitates the translation of scientific discoveries into practical applications.

All of the above.

The development of vaccines based on scientific understanding of immunology.

The creation of prosthetic limbs using advanced materials and engineering techniques.

The design of energy-efficient buildings that utilize renewable energy sources.

All of the above.

It leads to the development of new technologies that improve people's lives.

It contributes to economic growth and job creation.

It helps address global challenges such as climate change and sustainability.

All of the above.

The development of renewable energy technologies to combat climate change.

The creation of vaccines to prevent and control infectious diseases.

The design of sustainable transportation systems to reduce carbon emissions.

All of the above.

Encourage interdisciplinary collaboration between engineers and scientists.

Promote science education among engineering students and engineering education among science students.

Provide funding for research projects that bridge the gap between engineering and science.

All of the above.

Bioengineering

Materials science

Environmental engineering

All of the above.

It remains static, as the fundamental principles of science and engineering are unchanging.

It becomes weaker as science and engineering become more specialized and distinct.

It becomes stronger as new discoveries and technologies bridge the gap between science and engineering.

It fluctuates depending on societal needs and priorities.

The development of medical imaging technologies such as MRI and CT scans.

The creation of artificial organs and tissues for transplantation.

The design of prosthetic limbs that mimic natural movement and function.

All of the above.

Invest in education and research to培养 the next generation of engineers and scientists.

Promote collaboration between academia, industry, and government to tackle complex challenges.

Encourage public engagement and understanding of the importance of engineering and science.

All of the above.