Engineering Design And Problem Solving

The Analytic Problem Solving method involves applying theory and equations, verifying accuracy to the required level, and diagramming and describing the problem. However, it does not involve simplifying the problems.

A functional model is a type of engineering model that represents the behavior and functionality of a system or process. It focuses on how the system works and how its components interact with each other. Physical models represent the physical aspects of a system, mathematical models use mathematical equations to describe and analyze the system, and graphic models use visual representations to communicate information about the system. Therefore, functional is not a type of engineering model as it does not represent the physical or mathematical aspects of a system.

All of the given equations are mathematical models because they represent mathematical relationships between different variables. The equation "work = force x distance" represents the relationship between work, force, and distance. The equation "energy = mass x speed of light x speed of light" represents the relationship between energy, mass, and the speed of light. The equation "force = mass x acceleration" represents the relationship between force, mass, and acceleration. Therefore, all of the given equations can be considered mathematical models.

Prototypes are not a graphic model because they are physical or digital representations of a product or system, used for testing and evaluation purposes. Graphic models, on the other hand, are visual representations that depict relationships, structures, or concepts. Conceptual models, graphs, and diagrams are all examples of graphic models as they visually represent abstract ideas, data, or relationships.

Ohm's Law states that the potential difference (E) across a conductor is directly proportional to the current (I) flowing through it and inversely proportional to the resistance (R) of the conductor. The correct expression for Ohm's Law is E = I * R, not E = V / R. Therefore, the given answer is false.

Electrical power is indeed measured in watts. Watts is the unit used to quantify the rate at which electrical energy is transferred or consumed. It is a measure of the amount of work done or energy used per unit of time. Therefore, the statement "Electrical power is measured in watts" is correct.

The statement "A milliamp = 0.01 amps" is incorrect. In reality, a milliamp (mA) is equal to 0.001 amps (A), not 0.01 amps. The prefix "milli-" denotes a factor of 0.001, so a milliamp is one thousandth of an amp. Therefore, the correct answer is False.

Electrical continuity refers to the condition of an electrical circuit where all components are properly connected and can effectively allow the flow of electric current. This means that there are no breaks or interruptions in the circuit that would prevent the current from flowing. Therefore, the statement "Electrical continuity is a state of an electrical circuit being completely connected and able to conduct current" is true.

A prototype is not necessarily a physical model, but rather a preliminary version or sample of a product or structure. It can take various forms, including digital or virtual representations. The purpose of a prototype is to test and evaluate the design, functionality, and feasibility of the final product or structure before it is produced or implemented. Therefore, the given statement that a prototype is a physical model is incorrect.