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Faculty of Information Technology, Monash University FIT5195 Business Intelligence & Data Warehousing Assignment 2 – Business Intelligence and Data Warehouse Design

Faculty of Information Technology, Monash University FIT5195 Business Intelligence & Data Warehousing Assignment 2 – Business Intelligence and Data Warehouse Design

Faculty of Information Technology, Monash University FIT5195 Business Intelligence & Data Warehousing Assignment 2 – Business Intelligence and Data Warehouse Design Faculty of Information Technology, Monash University FIT5195 Business Intelligence & Data Warehousing Assignment 2 – Business Intelligence and Data Warehouse Design Semester 1, 2016 Assignment Overview: You have been engaged by Crowne Estate to […]

CSP2308 Assignment 2 Background:

CSP2308 Assignment 2 Background:

CSP2308 Assignment 2 Background: CSP2308 Assignment 2 Background: This is where we separate our program into a client and a server. In Assignment 1 we focused on basic input/output with streams. Assignment 2 will add network communications (sockets), more robust programming, threads and adding the ability to handle multiple remote clients. This version of the […]

A field-oriented drive system will be applied to a 230-V, 20-kW

A field-oriented drive system will be applied to a 230-V, 20-kW

A field-oriented drive system will be applied to a 230-V, 20-kW A field-oriented drive system will be applied to a 230-V, 20-kW, four-pole, 60-Hz induction motor which has the following equivalent-circuit parameters in ohms per phase referred to the stator: Rl = 0.0322 R2 = 0.0703 X1 = 0.344 X2 = 0.353 Xm = 18.6. […]

A capacitor (Figure) is made of two conducting plates of area

A capacitor (Figure) is made of two conducting plates of area

A capacitor (Figure) is made of two conducting plates of area A capacitor (Figure) is made of two conducting plates of area A separated in air by a spacing x. The terminal voltage is v, and the charge on the plates is q. The capacitance C, defined as the ratio of charge to voltage, is […]

A four-pole, 60-Hz synchronous generator has a rotor length

A four-pole, 60-Hz synchronous generator has a rotor length

A four-pole, 60-Hz synchronous generator has a rotor length A four-pole, 60-Hz synchronous generator has a rotor length of 5.2 m, diameter of 1.24 m, and air-gap length of 5.9 cm. The rotor winding consists of a series connection of 63 turns per pole with a winding factor of kr = 0.91. The peak value […]

A A-connected, 25-kW, 230-V, three-phase, six-pole, and 50-Hz sq

A A-connected, 25-kW, 230-V, three-phase, six-pole, and 50-Hz sq

A A-connected, 25-kW, 230-V, three-phase, six-pole, and 50-Hz sq A A-connected, 25-kW, 230-V, three-phase, six-pole, and 50-Hz squirrel-cage induction motor has the following equivalent-circuit parameters in ohms per phase Y: R1 = 0.045 R2 = 0.054 X1 = 0.29 X2 = 0.28 Xm = 9.6 a. Calculate the starting current and torque for this motor […]

A common industrial application of dc series motors is in

A common industrial application of dc series motors is in

A common industrial application of dc series motors is in A common industrial application of dc series motors is in crane and hoist drives. This problem relates to the computation of selected motor performance characteristics for such a drive. The specific motor concerned is a series-wound, 230-V, totally-enclosed motor having a 1/2-hour crane rating of […]

Consider the single-phase induction motor of Example 9.5 operati

Consider the single-phase induction motor of Example 9.5 operati

Consider the single-phase induction motor of Example 9.5 operati In order to raise the starting torque, the single-phase induction motor of Problem 9.13 is to be converted to a capacitor-start, capacitor-run motor. Write a MATLAB script to find the minimum value of starting capacitance required to raise the starting torque to 0.5 N 路 m.

The voltage across a 100-uF capacitor is given by the

The voltage across a 100-uF capacitor is given by the

The voltage across a 100-uF capacitor is given by the The voltage across a 100-uF capacitor is given by the expression v(t)=120sin(377t) V. Find (a)the current in the capacitor and (b) the expression for the energy stored in the element.