In this problem we want to modify the single cycle datapath shown below (also in in slide #1 of"chapter3_single_cycle_datapaths.pptx") so that it supports execution of a new instruction called jumpregister (jr).PCAddReadaddressInstruction[31:0)Instruction [25:21)Instruction [20:16]Instruction Instruction [15:11]memory(DMUXTRegDstInstruction [15:0]RegWriteReadregister 1Readregister 2Readdata 1WriteReadregister data 2Writedata Registers16Sign-extendInstruction [5:0]32Shiftleft 2/ALUSrc(OMUXI)ALUAddresultZeroALU ALUresultALUcontrolALUOP#copy contents of "rs" register to PC (PC = $rs)PCSrc( E3XMemWriteReaddataAddressDataWrite memorydataMemReadMemtoReg(-MUXO)jr $rsYou are allowed to add new control signal(s), wire(s), muxe(s) to support this instruction. First brieflyexplain the required modifications. Then indicate the value of each control signal (RegDst, RegWrite,ALUSrc, ALUOP, MemRead, Mem Write, MemToReg). You must use "X" for control signals whenapplicable. Modification should not effect the functionality of other instructions we have covered so far.

Jump instruction resemble the branch but it computes the PC in different way and it is…

this problem we want to modify the single cycle datapath shown below (also in in slide 1 of hapter3_single_cycle_datapaths.pptx") so that it supports execution of a new instruction called ju gister (jr). Add Read address Instruction (31:0) Instruction [25:21] Instruction [20:16] Instruction Instruction [15:11) memory XEMO) RegDst Instruction [15:0] RegWrite Read register 1 Read register 2 Read data 1 Write Read register data 2 Write data Registers 16 Sign- extend Instruction [5:0] 83 Shift left 2 ALUSre -XCMO ALU Addresult Zero ALU ALU ALU control PCSic ALUOP $rs # copy contents of "rs" register to PC (PC = $rs) NEW O MemWrite Read data Address result Data Write memory data MemRead ou are allowed to add new control signal(s), wire(s), muxe(s) to support this instruction. First brie plain the required modifications. Then indicate the value of each control signal (RegDst, RegWrit LUSrc, ALUOp, MemRead, MemWrite, Mem ToReg). You must use "X" for control signals when plicable. Modification should not effect the functionality of other instructions we have covered so

this problem we want to modify the single cycle datapath shown below (also in in slide 1 of hapter3_single_cycle_datapaths.pptx") so that it supports execution of a new instruction called ju gister (jr). Add Read address Instruction (31:0) Instruction [25:21] Instruction [20:16] Instruction Instruction [15:11) memory XEMO) RegDst Instruction [15:0] RegWrite Read register 1 Read register 2 Read data 1 Write Read register data 2 Write data Registers 16 Sign- extend Instruction [5:0] 83 Shift left 2 ALUSre -XCMO ALU Addresult Zero ALU ALU ALU control PCSic ALUOP $rs # copy contents of "rs" register to PC (PC = $rs) NEW O MemWrite Read data Address result Data Write memory data MemRead ou are allowed to add new control signal(s), wire(s), muxe(s) to support this instruction. First brie plain the required modifications. Then indicate the value of each control signal (RegDst, RegWrit LUSrc, ALUOp, MemRead, MemWrite, Mem ToReg). You must use "X" for control signals when plicable. Modification should not effect the functionality of other instructions we have covered so

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

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Quiz 5: In this problem we want to set the control signals of the datapath shown below (also in in slide # 1 of "chapter3_single_cycle_datapaths.pptx") so that it supports execution of a new instruction called swi. Single Cycle Datapath: PC Read Instru- address ction [31-0] Instruction memory Sns Add Ins 1 [25-21] 1 [20-16] [15-11]. 1[10-0] RegWrite Read register 1 Read register 2 Write register Write data Read data 1 Read data 2 Read Ins Write 3ns Sign extend 2ns MemWrite Read Read address data Write address Read Gns Write data Write 10ns ins ALUSTO1 MemRead ALU Result 2ns ALUOP1 -XEWO) ins ALUSrc2 ALUSrc3 x=3 ins ALU Result 2ns ALUOP2 swi rd, rs, rt, imm # Memory [R[rs]]= R[rt], R[rd] =R [rs]+R [rt]+Imm #this instruction copies contents of "rt" register into the main memory addressed by the "rs" register. In the same cycle it add "rs" and "rt" register contents along with the "imm" field of the instruction and writes the final result into the "rd" register. You are NOT allowed to…
2. Consider the recursion relation. 2n-1 a1 1 and an+1 = an 2n+1 Write a script that uses a for loop to fill a 1 x 100 array with the first 100 a's. Note: There are faster and more elegant ways to do these calculations but we're practicing control structures.
Q2: Besides the while-loop in Q1, I want to implement a 2nd while-loop running in parallel with the first while: while(1) { wt(1); XX); } However, on an MCU there is no parallelism. (For ex., on Arduino I can define only one loop() function.) Write a single while that does the job of both whiles. (a) Write it in a procedural style. (b) Write it the super-loop style (state-machine with fixed heartbeat).
Computer organization and assembly language Please help me with this. I have to write line by line what each line of codes does. CODE IS BELOW: .model small .386 .stack 100h .data msg1 db 13, 10, "Enter any number --> ", "$" msg2 db "Enter an operation +,- * or / --> ",13, 10, "$" msg3 db "The Operation is --> ", "$" msg4 db "The result is --> ", "$" By_base dd 21 by_10 dd 10 ; 32 bits variable with initial value = 10 sp_counter db 0 ; 8 bits variable with initial value of zero disp_number dd 0 ; 32 bits variable with initial value = 0 disp_number2 dd 0 disp_number3 dd 0 op_type db 0 last_key dd 0 ; 32 bits variable with initial value of zero remainder db 0 .code main proc mov ax,@data;set up datasegment movds,ax mov dx,offset msg1 call display_message callm_keyin calloperation mov dx,offset msg1 calldisplay_message callm_keyin cmpop_type, "+" jnz short skip_plus callop_plus skiP_plus: cmp op_type, "-" jnz short skip_minus callop_minus…
Download the skeleton program simplearithmetic2.asm from our course Canvas site (look in the Modules section) and take a look at it. You are supposed to implement the arithmetic function: 2*a+b-16*c-60, where: a = -5, b=12, c = 5. You have to ensure that variables a, b, c, MUST be stored in registers $t0,$t1,$t2, respectively, and that the result MUST be stored in register $t3. In addition, the multiplication factors MUST ONLY be implemented by using bit-shift left. You can use either addi or li to assign value to registers. a) Write down (or type) the missing code here after you've verified it by running it on spim. b) Write down (or type) exactly what you see printed out on your display after you run this. Is it what you expected? Why? c) In hexadecimal format, what is the value stored in register $t3 at the conclusion of this program? Explain how you got to thi. answer.
Modify the producer-consumer implementation code bellow, so that it uses monitors to handle race conditions instead of semaphores or mutexes. Use the pthread library implementation #include <pthread.h> #include <semaphore.h> #include <stdio.h> #include <stdlib.h> #define BUFFER_SIZE 20 pthread_mutex_t mutex; int count = 0; int buffer[BUFFER_SIZE]; pthread_t tid; int producers = 0, consumers = 0; void insert(int item) { while (count == BUFFER_SIZE); if (count < BUFFER_SIZE) { buffer[producers] = item; producers++; producers=producers%BUFFER_SIZE; sleep(1); } return; } int remove_item() { int item; while (count == 0); if (count > 0) { item = buffer[consumers]; buffer[consumers] = buffer[consumers - 1]; consumers++; consumers=consumers%BUFFER_SIZE; sleep(1); } return item; } void * producer(void *param) { int item; while (1) { item = rand() % BUFFER_SIZE; while (count >= BUFFER_SIZE);…
Write a code in sim8085 for the following problem: The pressure of two boilers is monitored and controlled by a microcomputer works based on microprocessor programming. A set of 6 readings of first boiler, recorded by six pressure sensors, which are stored in the memory location starting from 2050H. A corresponding set of 6 reading from the second boiler is stored at the memory location starting from 2060H. Each reading from the first set is expected to be higher than the corresponding position in the second set of readings. Write an 8085 sequence to check whether the first set of reading is higher than the second one or not. If all the readings of first set is higher than the second set, store 00 in the ‘D’ register. If any one of the readings is lower than the corresponding reading of second set, stop the process and store FF in the register ‘D’. Data (H): First set: 78, 89, 6A, 80, 90, 85 Second Set:71, 78, 65, 89, 56, 75
Create a program in C++ which simulates a direct cache. The memory array that contains the data to becached is byte addressable and can contain 256 single byte entries or lines. The cache has only 8 entriesor lines. The Data field in each line of the cache is 8 bits. Since the data stored in each line of the cache isonly 8 bits, there is no need for a line field. Only a tag field is needed which is log2(256) = 8 bits.The memory array can be filled with any values of your choice. The program should work by taking userinput of a memory address (index). This input represents the memory data that should be cached.Check the cache to see if the item is already cached. If it is not, your program should counta cache miss, and then replace the item currently in the cache with the data from the inputted address.Allow the user to input addresses (in a loop), until they so choose to end the program. The program should output the number of cache misses upon ending.
Write a program in HACK assembly, without using symbols, that computes thebitwise exclusive or (XOR) of the values stored in RAM[1] and the value of thememory location with address stored in RAM[2]. The result of the computationshould be stored in RAM[0].You can think of RAM[2] as being a pointer to where the second operand of the XORis stored.
SPIM: 1.made a program (SPIM) that can find the values of a function f(a,b) =a+b using stack and the jump and link instruction. (i.e. a=2, b=3) 2.Add the items of an array using SPIM. Find the summation of all the previous elements in a loop and show them up.
Write a C++ program to simulate a stack using an array. You should create an index (the stack pointer) to point into the stack. Initialize it to 0. The stack should grow to location [1], [2], [3], etc. Write a "push (int)" function to push an int onto the top of the stack. Also, write an "int pop" instruction to pop the data that is stored on the top of the stack. The pop instruction must return the popped data. The push and pop instructions should increment and decrement the stack pointer appropriately. Your source should contain calls to your functions demonstrating that it works. Note, that you should do several pushes and several pops to show that data is correctly stored on the stack. You can do this by showing sample runs. Cut and paste the results of the runs
What is the implementation of each instruction located in the main function of the following code? This is a sample program, i am trying to teach myself linked list and am having trouble ------------------------------------------------------------------------------- #include <iostream>#include <string> /*** node* * A node class used to make a linked list structure*/ template<typename type>struct node {node() : data(), next(nullptr) {}node(const type & value, node * link = nullptr) : data(value), next(link) {}type data;node * next;}; /*** print_list* @param list - the linked-list to print out* * Free function that prints out a linked-list space separated.* Templated so works with any node.* Use this for testing your code.*/ template<typename type>void print_list(node<type> * list) { for(node<type> * current = list; current != nullptr; current = current->next) {std::cout << current->data << ' ';}std::cout << '\n';} /***…