For the midterm exam you should be able to:

• Use correct units of measurement for information, time, and rate (frequency)
• Use correct measurement prefixes for units of information, time, and rate and to represent a given value with different prefixes
• Perform calculations involving measures of information, time, and rate without a calculator
• Represent logic functions using truth tables, Boolean equations, and logic networks
• Represent a function given in one form into either of the other two
• Define terms: minterm, literal, propagation delay
• Minimize logic functions using Karnaugh maps and algebraic reduction, and to draw a logic network for the minimized function
• Compute the gate input count measure of complexity for a logic network
• Compute the worst-case propagation delay through a logic network
• Draw the gates to implement multiplexers with various numbers of data inputs
• Draw a diagram showing how to construct a multiplexer with n output using n one-output multiplexers
• Tell the output value(s) of a multiplexer given the input values
• Draw the gates to implement any one of the four functions in a 4-bit carry-lookahead unit
• Explain the rationale for adding a carry-lookahead unit to the design of a parallel adder
• Draw the gates to implement one slice of the MIPS ALU for use with a carry-lookahead unit
• Define or identify Quartus terminology: pins, bus lines, node lines, block diagram file, pin assignment, device programmer, bus and node naming, top-level module, testbed.
• Describe the operation of the DE1 I/O elements: switches, keys, seven segment displays, and LEDs.
• Given hexadecimal values for A, B, and f in the following table, fill in the corresponding values for CVNZ (the condition code bits) and Result, both expressed as hexadecimal values:

  A	B	f	CVNZ	Result

• Perform the negation operation on both positive and negative two’s complement numbers
• Define the Carry, Overflow, Negative, and Zero condition code bits
• Perform the sign-extension operation on two’s complement values
• Tell the difference between combinational and sequential logic circuits
• Identify the inputs and outputs of a an edge-triggered D-type flip-flop, and identify which ones correspond to the present state and next state of the device