Theory And BackgroundIntroductionThe 74163 is a synchronous 4-bit binary counter which has the following inputs:Synchronous active low Load (LD) and Clear (CLR)Two count enable inputs P and TFour data inputs A, B, C and DThe counter generates 4-bit output and a ripple carry output (RCO) to enable counterscascading.The Synchronous Reset (Clear) input overrides all other control inputs, but is active onlyduring the rising clock edge.The counter will count up Count if both ENP and ENT are asserted.Data inputs A, B, C and D will be loaded if LD is asserted (overrides counting).The RCO is asserted only if ENT is asserted. So, we can set the counter to stop counting at15 by setting ENP = 0. Then, RCO = ENT.The following figures show the connection diagrams and logic diagram of the 74LS163counter:74x163RIPPLEDUTPUTSCARRYENABLEVCC outrut OALOADCLKO CLR이 LD1514151211110ENPENT14QA13QB12BacOC11QD15RCOCLEAR CLOCK AD ENABLE GNDDATA INPUTSState table for a 74163 synchronous 4-bit binary counterCurrent StateCLR L LD L ENT ENP QD QC QB QA QD* QC* QB* QA* _RCO*InputsOutputs1DAQDQCQCQBQB1QA11QDQA1111111111111111111111111111111111.1.1111111111111111111111111111111111111111111111111 Design Problem:Using the 74163 and any necessary logic, design a counter that counts continuously in thefollowing sequence: 0 to 32 skipping 13 then repeats.Discussion:• Modify the counter such that it can be count to 63.Discuss your experience in the laboratory and any problems with the procedure.Show the circuit for the design problem only. Include in your report.Make sure to include the pin numbers of the gates used.You do NOT have to show the package outline, just the pin numbers of the gates.

Answered: Image /qna-images/answer/a8720df4-b064-4417-9eb2-20cdc34b6ff0.jpg

Design Problem: Using the 74163 and any necessary logic, design a counter that counts continuously in the following sequence: 0 to 32 skipping 13 then repeats. Discussion: • Modify the counter such that it can be count to 63. Discuss your experience in the laboratory and any problems with the procedure. Show the circuit for the design problem only. Include in your report. Make sure to include the pin numbers of the gates used. You do NOT have to show the package outline, just the pin numbers of the gates.

Design Problem: Using the 74163 and any necessary logic, design a counter that counts continuously in the following sequence: 0 to 32 skipping 13 then repeats. Discussion: • Modify the counter such that it can be count to 63. Discuss your experience in the laboratory and any problems with the procedure. Show the circuit for the design problem only. Include in your report. Make sure to include the pin numbers of the gates used. You do NOT have to show the package outline, just the pin numbers of the gates.

Database System Concepts

7th Edition

ISBN:9780078022159

Author:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Publisher:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Chapter1: Introduction

Section: Chapter Questions

Problem 1PE

See similar textbooks

Similar questions

Assemble the circuit below and apply the logic levels to inputs A and B. Get the truth table of the logic gates and their expressions
1- Convert the following logic gate circuit into a Boolean expression. Write Boolean subexpression next to each gate. t1 t2 | t4 t3
IV. PROCEDURES: For the AND gate look on the data sheets, connect the circuit on Breadboard and test the gate. Using logic switches SW1 and SW2, apply the logic levels 0 and 1 to gate inputs Create a truth table and record the results Also simulate the given gate using the Circuit Wizard simulation software Obtain the corresponding circuit diagram using the simulation software of the Boolean expression F((A,B,C)= АВ* AC * ВС From the obtain circuit diagram develop the corresponding truth table From the figure below obtain the equivalent Boolean expression and develop its corresponding truth Table АП сПо- Boolean Expression: Z= (AB)(CD)
For the following circuit a. Write the output expression. b. Implement the logic circuit using only NOR Gates.
Task: DL34. In digital electronics, a NAND gate (NOT-AND) is a logic gate which produces an output which is false only if all its inputs are true; thus, its output is complement to that of an AND gate. A LOW (0) output results only if all the inputs to the gate are HIGH (1); if any input is LOw (0), a HIGH (1) output results. A NAND gate is made using transistors and junction diodes. Minimum number of NAND gates required to implement the following binary equation (A'+B') (C+D)?
Draw logic diagram of the circuit that implement the original and simplified expression in part 4. This is included with part 4 above
Task 5: Logic circuits with multiple outputs Find the Boolean expression of the outputs of the following circuit, D = E = Draw the circuit on EWB and simulate it to fill-in its truth table shown below (use logic converter please). Note: You need to use the logic converter two times, once for the output D, and another time for the second output E.
Design circuit that has an input w and an output z. The circuit is a sequence detector that produces z = 1 when the previous two values of w were 00 or 11; otherwise z = 0. Use W=0101100010101110101011100010 a) For this problem design the circuit using JK flipflops, draw the state diagram, true table, logic circuit.b) Do the same that as part A but this time use D flipflops: draw the state diagram, true table, logic circuit.
Task 3: Digital logic circuit analysis - Finding the Boolean expression of a given circuit Find the Boolean expression of the following circuit, draw the circuit on EWB and simulate it to fill-in its truth table shown below. W = Note: the logic converter tool from EWB to fill-in the following table. For that, you need to connect the A, B and C inputs of the logic converter to X, Y and Z lines, respectively. Further, you need to connect the "out' line of the logic converter to W. As shown in the following diagram DAB Logic Converter 00000000 A CDE FOH Conversions Al - 10 Y W ****-***
Draw the circuit schematic for f = xỹ + yz and then convert the schematic to NAND gates using the steps illustrated in the textbook.
Part2: Layout of basic logic gates (Layout) In this part you will design the layout the basic logic gates listed below. For each gate you have to: 1- Build the layout of the gate and show a snapshot of your work. 2- Show that your design is working by testing input combinations Required Gates: 1- 3-input NOR gate 2- 2-input NAND gate
First, you must create a logic circuit using only basic gates such as AND, OR, NOR, NAND, NOT, etc. to implement an ADDER capable of adding two 4 bit binary numbers. Second, you must create a logic circuit using only basic gates such as AND, OR, NOR, NAND, NOT, etc. to implement a Subtractor that is capable of subtracting the second number from the first, by converting the second number into its 2's complement form and then adding the resulting number to the first number. You do not need to worry about accomodating the addition or subtraction of negative numbers. Finally, create a limited ALU (Arithmetic logic unit) circuit using Logism that implements a Full Adder circuit capable of adding 2 – 4 bit binary numbers and subtracting 2- 4 bit binary numbers. Also, implement the ability to select a bitwise AND operation and a bitwise OR operation. For the ALU it is acceptable to use the Adder and Subtractor circuits that are listed under the "Arithmetic" folder in Logism. (Logism tips and…