In a Mil-Std 1553 Bus, one of the Remote Terminals (Terminal Address 4) would like to send the altitude of the aircraft, 100oft (16-bit unsigned integer) from one of its subsystems, radio altimeter (subaddress 2) to a display subsystem (subaddress 7) at another Remote Terminal (Terminal Address 9). a. Please explain the information transfer on the bus. b. Please provide binary representation for one of the messages.

In a Mil-Std 1553 Bus, one of the Remote Terminals (Terminal Address 4) would like to send the altitude of the aircraft, 100oft (16-bit unsigned integer) from one of its subsystems, radio altimeter (subaddress 2) to a display subsystem (subaddress 7) at another Remote Terminal (Terminal Address 9). a. Please explain the information transfer on the bus. b. Please provide binary representation for one of the messages.

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

In a Mil-Std 1553 Bus, one of the Remote Terminals (Terminal Address 4)would like to send the altitude of the aircraft, 1000ft (16-bit unsigned integer)from one of its subsystems, radio altimeter (subaddress 2) to a display subsystem(subaddress 7) at another Remote Terminal (Terminal Address 9). a. Please explain the information transfer on the bus. b. Please provide binary representation for one of the messages.
Difference between address bus & data bus is: Select one: a. Address bus is bidirectional while data bus Is unidirectional. b. Data wires are only for data signals. C. None of the options given here. d. Both carry bits in either directions. e. Address bus is only for addressing signals.
True/False During the 'READ' of the SRAM structure studied in the class, the bit and bit_bar are both precharged to a high, and then the word line is turned high. This will always result in one of the bit or the bit_bar lines to start tending to go low, while the other remains at the precharged levels.
II. IMPLEMENTATION OF SIMPLE SYSTEMS. Implement the given RTL below using bus connection and tri-state buffers. Assume that the given control signals are mutually exclusive, and all registers are 4-bit wide. You may include additional flip-flop pins if necessary. V: c€ E, DEE W: DEB, E €1 (high) X: DEC, BEC, A€c Y: cEA, E E A Z: AD, B E0 (low)
Suppose a computer system has a common bus system for 8 registers of 16 bits each.The bus is constructed with multiplexers.a. How many selection inputs are there in each multiplexer?b. What size of multiplexers are needed?c. How many multiplexers are there in the bus?d. Draw the block diagram for this computer common bus system design.
a.) In the computer system, the Bus is said to be a collection of wires through which datais transmitted. The bus could be unidirectional or bidirectional depending on what isbeing done at a time. With reference to the type of buses explain this phenomena orprinciple. b.) How does the size or width of a Bus affect or influence the architecture of a computersystem with regards to data transmission? Explain with examples. c.) Explain the purpose of the Registers and Flags in the operation of the CPU
Suppose the connection of A and B ports for an 8086 circuit is as follows. An information parallel to port A or Access is provided using the push button. (button / key). 74LS47 (BCD-> display converter) to the B port 7-segment display is placed at the output of the converter. From Display's inputs between a-g. Whichever is 1, characters are created by giving the corresponding LED light on the display. 74LS47 received from port B.It transforms the binary information to show the correct number on the display.According to this,a) By dividing the number of the information in port A, the values in d0, d2, d4 and d6 (in this order), write the code showing the result in the 0-F range on the display (if the result is two digits, it is enough to show).
Part 1: Write the corresponding RISC-V code that implements the above C function as a callee/procedure within your main function (main is the caller). Part 2: Assume that variable i is initialized to 60 (decimal) and j initialized to 30 (decimal). What is the total number of RISC-V instructions executed when we have the maximum possible iterations? When does that happen?
Asynchronous serial communication is made between the keyboard peripheral and the digital computer. The "A" character printed from the keyboard will be transferred to the CPU. (Note: take the start and end bits as 1 bit long and the character bits as 8 bits long. Since ASCII is 7 bits, add a bit 0 to the most significant bit.) In the asynchronous serial communication connection, explain the operations from the keyboard to the digital computer only, through this example. Also, explain the types of errors that can be encountered in this connection, through this example.
II. IMPLEMENTATION OF SIMPLE SYSTEMS. Implement the given RTL below using bus connection and multiplexers and/or tri-state buffers. Assume that the given control signals are all mutually exclusive, and all registers are 4-bit wide. You may include additional flip-flop pins if necessary. A: W + Z,V + 1(high) B: X + V,Z + V C: X +W,Y + 0 (low) D: V + Y,W + Y,z-Y E: Y + X,Z + X
4) Obtain the truth table for a 2-to-1 word-sized mux where the two input buses and output bus are all 2-bits wide. Use IN0_1, IN0_1, IN1_0, IN1_1, S for the inputs and OUT_0 and OUT_1 for the outputs. Obtain the schematic diagram for a possible implementation of such a mux following the example given in Figure 3.3 correctly.
A 16-bit address bus is carrying the address 4567H and is partially decoded with lines A15 and A13 being unused. Which one of these addresses would access a different hardware location: (a) E567H. (b) 4567H. (c) 6567H. (d) 8567H.