Reference no: EM133565094

Object-Oriented Software Development

Learning outcome 1: Demonstrate understanding of classes, constructors, objects, data types and instantiation; Convert data types using wrapper methods and objects.

Learning outcome 2: Independently analyse customer requirements and design object-oriented programs using scope, inheritance, and other design techniques; Create classes and objects that access variables and modifier keywords. Develop methods using parameters and return values.

Learning outcome 3: Demonstrate adaptability in building control and loop structures in an object-oriented environment; Demonstrate use of user defined data structures and array manipulation.

Tank Circuit Program
Adapt your program in Part A to do the following:

Create a Component Class with variables such as Name, Description, Manufacturer, Cost, Obsolete (Y/N)

Create a Capacitor Class that inherent from the Component Class with Constructors, Accessors/Mutators (getters/setters) as appropriate. e.g. variables E, A, D, C.
Create an Inductor Class that inherent from the Component Class with Constructors, Accessors/Mutators (getters/setters) as appropriate. e.g. variables L.

The types in this program the types of components are as follows:

Name: Capacitors	Name: Inductors
Description: Store electrical charges.   Warning: Do not use electrolytic capacitors in tank circuits.	Description: Store electrical charges.
Manufacturers: Siemens	Manufacturers: Motorola
Cost: $0.50	Cost: $0.25
Obsolete: No	Obsolete: No

In a Main driver function:

Loop Creating Capacitors instants (until the user Enters "N") Loop Creating Inductors instants (until the user Enters "N")
Populate an arrayList of Components (e.g. tankCircuit[]) while looping //acts like a bill of materials, all the components in the circuit.
If there are two Capacitors (assume they are connected in parallel) add them together before calculating the resonant frequency.
If there are two Inductors (assume they are connected in series) add them together before calculating.

Calculate the Tank Circuit Resonant Frequency, costs of the overall circuit and output to the screen with the description as shown in the sample run.
Here is a sample run:

Sample 1:
John Smith JS00001

Are you adding a capacitors? Y Enter Capacitor Area (mm^2): 5
Enter Capacitor separated distance (mm): 0.5 Are you adding a capacitors? Y
Enter Capacitor Area (mm^2): 5

Enter Capacitor separated distance (mm): 0.5 Are you adding a capacitors? N
Are you adding an inductor? Y

Enter Inductance of the inductor (uH): 1 Are you adding an inductor? N
John Smith's LC Tank Circuit Resonate Frequency: 11.96 MHz Using:
Capacitors, 8.85 pF, Store electrical charges. Warning: Do not use electrolytic capacitors in tank circuits.

Capacitors, 8.85 pF, Store electrical charges. Warning: Do not use electrolytic capacitors in tank circuits.

Inductors, 1uH, Store electrical charges.

Total Cost: $1.25

Submit the following items:

1. Submit this Word document with the following:
a. Explain your Design, Control, Flexibility, Error Control of your code
b. Copy of your code as Appendix (screenshot - includes comments in your code)
c. Screenshot of the output of your code as Appendix (3 times with expected values, 2 times with non-expected values - such as a zero as an input)