8 Commits

Author SHA1 Message Date
2227b084a1 saving current changes 2026-05-20 16:52:35 +01:00
263efec2a5 fixed working version of matrix multiplcation 2026-04-20 13:35:58 +01:00
12ce7e7ade ported over barnes 2026-04-16 13:51:31 +01:00
b14264eb45 ported matrix mul and richards 2026-04-15 17:27:30 +01:00
365a35e61b ported memaccess 2026-04-09 17:03:39 +01:00
746dce577f updated sub module 2026-04-09 14:06:18 +01:00
0e8b7f38dc l1 tlb performance metrics working 2026-04-09 13:31:59 +01:00
af459956b7 enabled performance counters 2026-04-09 01:13:56 +01:00
54 changed files with 6601 additions and 286106 deletions

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/*
* File: barnes_hut.c
* --------------
* Implements the Barnes Hut algorithm for n-body
* simulation with galaxy-like initial conditions.
* Uses OpenGl and GLUT for graphics. Written by:
* Joel Backsell, Kim Torberntsson & Alexander Bilock.
* Source: https://github.com/KimTorberntsson/Barnes-Hut/blob/master/barnes_hut.c
*/
#include <stdlib.h>
#include <math.h>
#include <stdio.h>
#include <math.h>
// #include <time.h>
// #include <GLUT/glut.h>
#include "barnes_hut.h"
// #include "graphics.h"
void free(void *ptr);
void *malloc(size_t size);
//Some constants and global variables
int N = 10;
const double L = 1, W = 1, dt = 1e-3, alpha = 0.25, V = 50, epsilon = 1e-1, grav = 0.04; //grav should be 100/N
double *x, *y, *u, *v, *force_x, *force_y, *mass;
struct node_t *root;
// -------- Modified by Akilan ----------
double my_sqrt(double x) {
if (x <= 0) return 0;
double guess = x;
for (int i = 0; i < 10; i++) {
guess = 0.5 * (guess + x / guess);
}
return guess;
}
#define PI 3.141592653589793
double wrap_angle(double x) {
while (x > PI) x -= 2*PI;
while (x < -PI) x += 2*PI;
return x;
}
double my_sin(double x) {
x = wrap_angle(x);
double x2 = x * x;
return x
- (x * x2) / 6
+ (x * x2 * x2) / 120
- (x * x2 * x2 * x2) / 5040;
}
double my_cos(double x) {
x = wrap_angle(x);
double x2 = x * x;
return 1
- x2 / 2
+ (x2 * x2) / 24
- (x2 * x2 * x2) / 720;
}
// --------------------------------------
// -------- Modified by Akilan ----------
static unsigned int seed = 123456789; // must be initialized somehow
unsigned int rand_test(void)
{
seed = (1103515245 * seed + 12345);
return (seed >> 16) & 0x7FFF; // 15-bit result
}
// ---------------------------------------
/*
* Function for producing a random number between two double values
*/
double frand(double xmin, double xmax) {
return xmin + (xmax-xmin)*rand_test()/RAND_MAX;
}
/*
* Prints the time between two clocks in seconds
*/
// void print_time(clock_t s, clock_t e)
// {
// printf("Time: %f seconds\n", (double)(e-s)/CLOCKS_PER_SEC);
// }
/*
* This function is called every time GLUT refreshes the display.
*/
// void display(void) {
// //Do a time step
// time_step();
// //Draw points
// drawPoints(x, y, N);
// }
/*
* Updates the positions of the particles of a time step.
*/
void time_step(void) {
//Allocate memory for root
root = malloc(sizeof(struct node_t));
set_node(root);
root->min_x = 0; root->max_x = 1; root->min_y = 0; root->max_y = 1;
//Put particles in tree
for(int i = 0; i < N; i++) {
put_particle_in_tree(i, root);
}
//Calculate mass and center of mass
calculate_mass(root);
calculate_center_of_mass_x(root);
calculate_center_of_mass_y(root);
//Calculate forces
update_forces();
//Update velocities and positions
for(int i = 0; i < N; i++) {
double ax = force_x[i]/mass[i];
double ay = force_y[i]/mass[i];
u[i] += ax*dt;
v[i] += ay*dt;
x[i] += u[i]*dt;
y[i] += v[i]*dt;
/* This of course doesn't make any sense physically,
* but makes sure that the particles stay within the
* bounds. Normally the particles won't leave the
* area anyway.
*/
bounce(&x[i], &y[i], &u[i], &v[i]);
}
//Free memory
free_node(root);
free(root);
}
/*
* If a particle moves beyond any of the boundaries then bounce it back
*/
void bounce(double *x, double *y, double *u, double *v) {
double W = 1.0f, H = 1.0f;
if(*x > W) {
*x = 2*W - *x;
*u = -*u;
}
if(*x < 0) {
*x = -*x;
*u = -*u;
}
if(*y > H) {
*y = 2*H - *y;
*v = -*v;
}
if(*y < 0) {
*y = -*y;
*v = -*v;
}
}
/*
* Puts a particle recursively in the Barnes Hut quad-tree.
*/
void put_particle_in_tree(int new_particle, struct node_t *node) {
//If no particle is assigned to the node
if(!node->has_particle) {
node->particle = new_particle;
node->has_particle = 1;
}
//If the node has no children
else if(!node->has_children) {
//Allocate and initiate children
node->children = malloc(4*sizeof(struct node_t));
for(int i = 0; i < 4; i++) {
set_node(&node->children[i]);
}
//Set boundaries for the children
node->children[0].min_x = node->min_x; node->children[0].max_x = (node->min_x + node->max_x)/2;
node->children[0].min_y = node->min_y; node->children[0].max_y = (node->min_y + node->max_y)/2;
node->children[1].min_x = (node->min_x + node->max_x)/2; node->children[1].max_x = node->max_x;
node->children[1].min_y = node->min_y; node->children[1].max_y = (node->min_y + node->max_y)/2;
node->children[2].min_x = node->min_x; node->children[2].max_x = (node->min_x + node->max_x)/2;
node->children[2].min_y = (node->min_y + node->max_y)/2; node->children[2].max_y = node->max_y;
node->children[3].min_x = (node->min_x + node->max_x)/2; node->children[3].max_x = node->max_x;
node->children[3].min_y = (node->min_y + node->max_y)/2; node->children[3].max_y = node->max_y;
//Put old particle into the appropriate child
place_particle(node->particle, node);
//Put new particle into the appropriate child
place_particle(new_particle, node);
//It now has children
node->has_children = 1;
}
//Add the new particle to the appropriate children
else {
//Put new particle into the appropriate child
place_particle(new_particle, node);
}
}
/*
* Puts a particle in the right child of a node with children.
*/
void place_particle(int particle, struct node_t *node) {
if(x[particle] <= (node->min_x + node->max_x)/2 && y[particle] <= (node->min_y + node->max_y)/2) {
put_particle_in_tree(particle, &node->children[0]);
} else if(x[particle] > (node->min_x + node->max_x)/2 && y[particle] < (node->min_y + node->max_y)/2) {
put_particle_in_tree(particle, &node->children[1]);
} else if(x[particle] < (node->min_x + node->max_x)/2 && y[particle] > (node->min_y + node->max_y)/2) {
put_particle_in_tree(particle, &node->children[2]);
} else {
put_particle_in_tree(particle, &node->children[3]);
}
}
/*
* Sets initial values for a new node
*/
void set_node(struct node_t *node) {
node->has_particle = 0;
node->has_children = 0;
}
/*
* Frees memory for a node and its children recursively.
*/
void free_node(struct node_t *node){
if(node->has_children){
free_node(&node->children[0]);
free_node(&node->children[1]);
free_node(&node->children[2]);
free_node(&node->children[3]);
free(node->children);
}
}
/*
* Displays the boundaries of the tree using OpenGL and GLUT.
* Used for debugging purposes.
*/
// void display_tree(struct node_t *node) {
// drawRect(node->min_x, node->max_x, node->min_y, node->max_y);
// if(node->has_children == 1) {
// for(int i = 0; i < 4; i++) {
// display_tree(&node->children[i]);
// }
// }
// }
/*
* Calculates the total mass for the node. It recursively updates the mass
* of itself and all of its children.
*/
double calculate_mass(struct node_t *node) {
if(!node->has_particle) {
node->total_mass = 0;
} else if(!node->has_children) {
node->total_mass = mass[node->particle];
} else {
node->total_mass = 0;
for(int i = 0; i < 4; i++) {
node->total_mass += calculate_mass(&node->children[i]);
}
}
return node->total_mass;
}
/*
* Calculates the x-position of the centre of mass for the
* node. It recursively updates the position of itself and
* all of its children.
*/
double calculate_center_of_mass_x(struct node_t *node) {
if(!node->has_children) {
node->c_x = x[node->particle];
} else {
node->c_x = 0;
double m_tot = 0;
for(int i = 0; i < 4; i++) {
if(node->children[i].has_particle) {
node->c_x += node->children[i].total_mass*calculate_center_of_mass_x(&node->children[i]);
m_tot += node->children[i].total_mass;
}
}
node->c_x /= m_tot;
}
return node->c_x;
}
/*
* Calculates the y-position of the centre of mass for the
* node. It recursively updates the position of itself and
* all of its children.
*/
double calculate_center_of_mass_y(struct node_t *node) {
if(!node->has_children) {
node->c_y = y[node->particle];
} else {
node->c_y = 0;
double m_tot = 0;
for(int i = 0; i < 4; i++) {
if(node->children[i].has_particle) {
node->c_y += node->children[i].total_mass*calculate_center_of_mass_y(&node->children[i]);
m_tot += node->children[i].total_mass;
}
}
node->c_y /= m_tot;
}
return node->c_y;
}
/*
* Calculates the forces in a time step of all particles in
* the simulation using the Barnes Hut quad tree.
*/
void update_forces(){
for(int i = 0; i < N; i++) {
force_x[i] = 0;
force_y[i] = 0;
update_forces_help(i, root);
}
}
/*
* Help function for calculating the forces recursively
* using the Barnes Hut quad tree.
*/
void update_forces_help(int particle, struct node_t *node) {
//The node is a leaf node with a particle and not the particle itself
if(!node->has_children && node->has_particle && node->particle != particle) {
double r = my_sqrt((x[particle] - node->c_x)*(x[particle] - node->c_x) + (y[particle] - node->c_y)*(y[particle] - node->c_y));
calculate_force(particle, node, r);
}
//The node has children
else if(node->has_children) {
//Calculate r and theta
double r = my_sqrt((x[particle] - node->c_x)*(x[particle] - node->c_x) + (y[particle] - node->c_y)*(y[particle] - node->c_y));
double theta = (node->max_x - node->min_x)/r;
/* If the distance to the node's centre of mass is far enough, calculate the force,
* otherwise traverse further down the tree
*/
if(theta < 0.5){
calculate_force(particle, node, r);
} else {
update_forces_help(particle, &node->children[0]);
update_forces_help(particle, &node->children[1]);
update_forces_help(particle, &node->children[2]);
update_forces_help(particle, &node->children[3]);
}
}
}
/*
* Calculates and updates the force of a particle from a node.
*/
void calculate_force(int particle, struct node_t *node, double r){
double temp = -grav*mass[particle]*node->total_mass/((r + epsilon)*(r + epsilon)*(r + epsilon));
force_x[particle] += (x[particle] - node->c_x)*temp;
force_y[particle] += (y[particle] - node->c_y)*temp;
}
/*
* Main function.
*/
int main(void) {
//The first arguments sets if the graphics should be used
// int graphics = 1;
// if (argc > 1) {
// graphics = atoi(argv[1]);
// }
//The second argument sets the number of time steps
int time_steps = 3;
// if (argc > 2) {
// time_steps = atoi(argv[2]);
// }
//Initiate memory for the vectors
x = (double *)malloc(N*sizeof(double));
y = (double *)malloc(N*sizeof(double));
u = (double *)malloc(N*sizeof(double));
v = (double *)malloc(N*sizeof(double));
// -------- Modified by Akilan ----------
force_x = (double *)malloc(N*sizeof(double));
force_y = (double *)malloc(N*sizeof(double));
// --------------------------------------
mass = (double *)malloc(N*sizeof(double));
//Set the initial values
// for(int i = 0; i < N; i++) {
// mass[i] = 1;
// double R = frand(0, L/4);
// double theta = frand(0, 2*M_PI);
// x[i] = L/2 + R*my_cos(theta);
// y[i] = W/2 + alpha*R*my_sin(theta);
// double R_prim = my_sqrt(pow(x[i] - L/2, 2) + pow(y[i] - W/2, 2));
// u[i] = -V*R_prim*my_sin(theta);
// v[i] = V*R_prim*my_cos(theta);
// }
for (int i = 0; i < N; i++) {
mass[i] = 1;
double R = frand(0, L/4);
double theta = frand(0, 2*PI);
double c = my_cos(theta);
double s = my_sin(theta);
x[i] = L/2 + R * c;
y[i] = W/2 + alpha * R * s;
double dx = x[i] - L/2;
double dy = y[i] - W/2;
double R_prim = my_sqrt(dx*dx + dy*dy);
u[i] = -V * R_prim * s;
v[i] = V * R_prim * c;
}
/* Run the GLUT display function if the graphics mode is on.
* Otherwise just run the simulations without graphics
*/
// if (graphics) {
// // Initialize the graphics routines
// graphicsInit(&argc, argv, display);
// //Used for the display window
// glutMainLoop();
// } else {
//Begin taking time
// long start = clock();
//The main loop
for(int i = 0; i < time_steps; i++) {
time_step();
}
//Stop taking time and print elapsed time
// long stop = clock();
// print_time(start, stop);
// }
//Free memory
free(x);
free(y);
free(u);
free(v);
free(force_x);
free(force_y);
free(mass);
return 0;
}

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/*
* File: barnes_hut.h
* --------------
* Header file for barnes_hut.c
* Written by:
* Joel Backsell, Kim Torberntsson & Alexander Bilock.
*/
#ifndef Barnes_Hut_barnes_hut_h
#define Barnes_Hut_barnes_hut_h
/*
* Struct that represents a node of the Barnes Hut quad tree.
*/
struct node_t {
int particle;
int has_particle;
int has_children;
double min_x, max_x, min_y, max_y, total_mass, c_x, c_y;
struct node_t *children;
};
//Function for producing a random number between two double values.
double frand(double xmin, double xmax);
//Prints the time between two clocks in seconds
// void print_time(clock_t s, clock_t e);
//OpenGL method for displaying the particles
// void display(void);
//Calculates the positions of a time step
// void time_step(void);
//If a particle moves beyond any of the boundaries then bounce it back
void bounce(double *x, double *y, double *u, double *v);
//Functions for handling the placement of particles in the tree
void put_particle_in_tree(int new_particle, struct node_t *node);
void place_particle(int particle, struct node_t *node);
void set_node(struct node_t *node);
void free_node(struct node_t *node);
void display_tree(struct node_t *node);
//Functions for calculating the mass and centre of mass of the tree
double calculate_mass(struct node_t *node);
double calculate_center_of_mass_x(struct node_t *node);
double calculate_center_of_mass_y(struct node_t *node);
//Functions for the force calculations
void update_forces();
void update_forces_help(int particle, struct node_t *node);
void calculate_force(int particle, struct node_t *node, double r);
#endif

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# scp ../../encoding.h home-1:/home/akilan/
# scp ../../entry.S home-1:/home/akilan/
# scp ../../link.ld home-1:/home/akilan/
# scp ../../riscv_test_p.h home-1:/home/akilan/
# scp ../../riscv_test.h home-1:/home/akilan/
# scp ../../string.c home-1:/home/akilan/
# scp ../../vm.c home-1:/home/akilan/
# scp ../../test.S home-1:/home/akilan/
# scp ../../test_macros.h home-1:/home/akilan/
# scp ../../malloc.c home-1:/home/akilan/
# scp ../../test.c home-1:/home/akilan/
scp barnes_hut.c home-1:/home/akilan/
scp barnes_hut.h home-1:/home/akilan/
# GCC compile
# ssh home-1 'cd /home/akilan/ && export PATH=/opt/riscv/bin:$PATH && riscv64-unknown-elf-gcc -DENTROPY=0xf21e02b -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -mabi=lp64 -T link.ld vm.c string.c entry.S test.S -o testC'
# Clang compile (architecture Regular RISCV)
ssh home-1 'clang --target=riscv64-unknown-elf -DENTROPY=0xf21e02b -DDEFINE_MALLOC -DDEFINE_FREE --gcc-toolchain=/opt/riscv -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -fno-builtin-malloc -mabi=lp64 -T link.ld vm.c string.c malloc.c entry.S test.S barnes_hut.c -o testC -lm -lgcc'
# Clang using the cheri clang compiler
# ssh home-1 'cd cheri/output/sdk/bin/ && ./clang --target=riscv64-unknown-freebsd -DENTROPY=0xf21e02b --sysroot=cheribsd-riscv64-for-purecap-rootfs.cfg -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -march=rv64imafdcxcheri -mabi=lp64d -T link.ld vm.c string.c entry.S test.S -o testC'
scp home-1:/home/akilan/testC ../../../
# scp home-1:/home/akilan/cheri/output/sdk/bin/testC .
# riscv64-unknown-elf-gcc \
# -march=rv64imac \
# -mabi=lp64 \
# -nostartfiles \
# -fno-builtin \
# -T link.ld \
# entry.S vm.c string.c \
# clang \
# --target=riscv64-unknown-elf \
# -march=rv64imac \
# -mabi=lp64 \
# -nostdlib \
# -nostartfiles \
# -fuse-ld=lld \
# -T link.ld \
# entry.S vm.c string.c \
# -I. \
# -o output.elf%

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scp ../../encoding.h home-1:/home/akilan/
scp ../../entry.S home-1:/home/akilan/
scp ../../link.ld home-1:/home/akilan/
scp ../../riscv_test_p.h home-1:/home/akilan/
scp ../../riscv_test.h home-1:/home/akilan/
scp ../../string.c home-1:/home/akilan/
scp ../../vm.c home-1:/home/akilan/
scp ../../test.S home-1:/home/akilan/
scp ../../test_macros.h home-1:/home/akilan/
scp ../../malloc.c home-1:/home/akilan/
# scp ../../test.c home-1:/home/akilan/
scp glibc.c home-1:/home/akilan/
# GCC compile
# ssh home-1 'cd /home/akilan/ && export PATH=/opt/riscv/bin:$PATH && riscv64-unknown-elf-gcc -DENTROPY=0xf21e02b -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -mabi=lp64 -T link.ld vm.c string.c entry.S test.S -o testC'
# Clang compile (architecture Regular RISCV)
ssh home-1 'clang --target=riscv64-unknown-elf -DENTROPY=0xf21e02b -DDEFINE_MALLOC -DDEFINE_FREE --gcc-toolchain=/opt/riscv -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -fno-builtin-malloc -mabi=lp64 -T link.ld vm.c string.c malloc.c entry.S test.S glibc.c -o testC'
# Clang using the cheri clang compiler
# ssh home-1 'cd cheri/output/sdk/bin/ && ./clang --target=riscv64-unknown-freebsd -DENTROPY=0xf21e02b --sysroot=cheribsd-riscv64-for-purecap-rootfs.cfg -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -march=rv64imafdcxcheri -mabi=lp64d -T link.ld vm.c string.c entry.S test.S -o testC'
scp home-1:/home/akilan/testC ../../../
# scp home-1:/home/akilan/cheri/output/sdk/bin/testC .
# riscv64-unknown-elf-gcc \
# -march=rv64imac \
# -mabi=lp64 \
# -nostartfiles \
# -fno-builtin \
# -T link.ld \
# entry.S vm.c string.c \
# clang \
# --target=riscv64-unknown-elf \
# -march=rv64imac \
# -mabi=lp64 \
# -nostdlib \
# -nostartfiles \
# -fuse-ld=lld \
# -T link.ld \
# entry.S vm.c string.c \
# -I. \
# -o output.elf%

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/* Benchmark malloc and free functions.
Copyright (C) 2019-2021 Free Software Foundation, Inc.
This file is part of the GNU C Library.
The GNU C Library is free software; you can redistribute it and/or
modify it under the terms of the GNU Lesser General Public
License as published by the Free Software Foundation; either
version 2.1 of the License, or (at your option) any later version.
The GNU C Library is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
Lesser General Public License for more details.
You should have received a copy of the GNU Lesser General Public
License along with the GNU C Library; if not, see
<https://www.gnu.org/licenses/>. */
// modified by Daan Leijen to fit the bench suite and add lifo/fifo free order.
// #include <pthread.h>
// #include <stdio.h>
// #include <stdlib.h>
// #include <sys/resource.h>
// #include "malloc.h"
// #include <cheriintrin.h>
#include <stdint.h>
#include <stddef.h>
// #define malloc MALLOCCHERI
// #define free FREECHERI
// #include "bench-timing.h"
// #include "json-lib.h"
// void free(void * __capability ptr);
// void * __capability malloc(size_t size);
void* malloc(size_t size);
void free(void *ptr);
/* Benchmark the malloc/free performance of a varying number of blocks of a
given size. This enables performance tracking of the t-cache and fastbins.
It tests 3 different scenarios: single-threaded using main arena,
multi-threaded using thread-arena, and main arena with SINGLE_THREAD_P
false. */
// source: https://github.com/daanx/mimalloc-bench/blob/master/bench/glibc-bench/bench-malloc-thread.c
#define NUM_ITERS 20
#define NUM_ALLOCS 4
#define MAX_ALLOCS 1600
// Daan: disable timing
typedef long timing_t;
#define TIMING_NOW(s)
#define TIMING_DIFF(e,start,stop)
typedef struct
{
size_t iters;
size_t size;
int n;
timing_t elapsed;
} malloc_args;
static void
do_benchmark(malloc_args *args, char **arr)
{
// timing_t start, stop;
size_t iters = args->iters;
size_t size = args->size;
int n = args->n;
// TIMING_NOW (start);
for (int j = 0; j < iters; j++)
{
for (int i = 0; i < n; i++) {
arr[i] = malloc (size);
for(int g = 0; g < size; g++) { arr[i][g] =(char)g; }
}
// free half in fifo order
for (int i = 0; i < n/2; i++) {
free (arr[i]);
arr[i] = NULL;
}
// and the other half in lifo order
for(int i = n-1; i >= n/2; i--) {
free(arr[i]);
arr[i] = NULL;
}
}
// TIMING_NOW (stop);
// TIMING_DIFF (args->elapsed, start, stop);
}
static malloc_args tests[3][NUM_ALLOCS];
static int allocs[NUM_ALLOCS] = { 25, 100, 400, MAX_ALLOCS };
// static void *
// thread_test (void *p)
// {
// char **arr = (char**)p;
// /* Run benchmark multi-threaded. */
// for (int i = 0; i < NUM_ALLOCS; i++)
// do_benchmark (&tests[2][i], arr);
// return p;
// }
void
bench (unsigned long size)
{
size_t iters = NUM_ITERS;
char**arr = (char**)malloc (MAX_ALLOCS * sizeof (void*));
//char * __capability * __capability arr = malloc(MAX_ALLOCS * sizeof(char * __capability));
for (int t = 0; t < 3; t++)
for (int i = 0; i < NUM_ALLOCS; i++)
{
tests[t][i].n = allocs[i];
tests[t][i].size = size;
tests[t][i].iters = iters / allocs[i];
/* Do a quick warmup run. */
if (t == 0)
do_benchmark (&tests[0][i], arr);
}
/* Run benchmark single threaded in main_arena. */
for (int i = 0; i < NUM_ALLOCS; i++)
do_benchmark (&tests[0][i], arr);
/* Run benchmark in a thread_arena. */
// pthread_t t;
// pthread_create (&t, NULL, thread_test, (void*)arr);
// pthread_join (t, NULL);
/* Repeat benchmark in main_arena with SINGLE_THREAD_P == false. */
// for (int i = 0; i < NUM_ALLOCS; i++)
// do_benchmark (&tests[1][i], arr);
free (arr);
arr = NULL;
/*
json_ctx_t json_ctx;
json_init (&json_ctx, 0, stdout);
json_document_begin (&json_ctx);
json_attr_string (&json_ctx, "timing_type", TIMING_TYPE);
json_attr_object_begin (&json_ctx, "functions");
json_attr_object_begin (&json_ctx, "malloc");
char s[100];
double iters2 = iters;
json_attr_object_begin (&json_ctx, "");
json_attr_double (&json_ctx, "malloc_block_size", size);
struct rusage usage;
getrusage (RUSAGE_SELF, &usage);
json_attr_double (&json_ctx, "max_rss", usage.ru_maxrss);
for (int i = 0; i < NUM_ALLOCS; i++)
{
sprintf (s, "main_arena_st_allocs_%04d_time", allocs[i]);
json_attr_double (&json_ctx, s, tests[0][i].elapsed / iters2);
}
for (int i = 0; i < NUM_ALLOCS; i++)
{
sprintf (s, "main_arena_mt_allocs_%04d_time", allocs[i]);
json_attr_double (&json_ctx, s, tests[1][i].elapsed / iters2);
}
for (int i = 0; i < NUM_ALLOCS; i++)
{
sprintf (s, "thread_arena__allocs_%04d_time", allocs[i]);
json_attr_double (&json_ctx, s, tests[2][i].elapsed / iters2);
}
json_attr_object_end (&json_ctx);
json_attr_object_end (&json_ctx);
json_attr_object_end (&json_ctx);
json_document_end (&json_ctx);
*/
}
// static void usage (const char *name)
// {
// fprintf (stderr, "%s: <alloc_size>\n", name);
// exit (1);
// }
int main (void)
{
// INITREGULARALLOC();
long size = 3;
// if (argc == 2)
// size = strtol (argv[1], NULL, 0);
// if (argc > 2 || size <= 0)
// usage (argv[0]);
bench (size);
// bench (2*size);
// bench (4*size);
// bench (8*size);
// bench (16*size);
// bench (32*size);
return 0;
}

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scp ../../encoding.h home-1:/home/akilan/
scp ../../entry.S home-1:/home/akilan/
scp ../../link.ld home-1:/home/akilan/
scp ../../riscv_test_p.h home-1:/home/akilan/
scp ../../riscv_test.h home-1:/home/akilan/
scp ../../string.c home-1:/home/akilan/
scp ../../vm.c home-1:/home/akilan/
scp ../../test.S home-1:/home/akilan/
scp ../../test_macros.h home-1:/home/akilan/
scp ../../malloc.c home-1:/home/akilan/
# scp ../../test.c home-1:/home/akilan/
scp matrixmul.c home-1:/home/akilan/
# GCC compile
# ssh home-1 'cd /home/akilan/ && export PATH=/opt/riscv/bin:$PATH && riscv64-unknown-elf-gcc -DENTROPY=0xf21e02b -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -mabi=lp64 -T link.ld vm.c string.c entry.S test.S -o testC'
# Clang compile (architecture Regular RISCV)
ssh home-1 'clang --target=riscv64-unknown-elf -DENTROPY=0xf21e02b -DDEFINE_MALLOC -DDEFINE_FREE --gcc-toolchain=/opt/riscv -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -fno-builtin-malloc -mabi=lp64 -T link.ld vm.c string.c malloc.c entry.S test.S matrixmul.c -o testC'
# Clang using the cheri clang compiler
# ssh home-1 'cd cheri/output/sdk/bin/ && ./clang --target=riscv64-unknown-freebsd -DENTROPY=0xf21e02b --sysroot=cheribsd-riscv64-for-purecap-rootfs.cfg -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -march=rv64imafdcxcheri -mabi=lp64d -T link.ld vm.c string.c entry.S test.S -o testC'
scp home-1:/home/akilan/testC ../../../
# scp home-1:/home/akilan/cheri/output/sdk/bin/testC .
# riscv64-unknown-elf-gcc \
# -march=rv64imac \
# -mabi=lp64 \
# -nostartfiles \
# -fno-builtin \
# -T link.ld \
# entry.S vm.c string.c \
# clang \
# --target=riscv64-unknown-elf \
# -march=rv64imac \
# -mabi=lp64 \
# -nostdlib \
# -nostartfiles \
# -fuse-ld=lld \
# -T link.ld \
# entry.S vm.c string.c \
# -I. \
# -o output.elf%

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@@ -0,0 +1,205 @@
// Source: https://github.com/ivanbgd/Matrix-Multiplication-MatMul-C/blob/master/matmul_1d_seq.c
#define MATMUL_1D
#ifdef MATMUL_1D
/* Matrices are represented as 1-D arrays in memory.
* That means they are contiguous in memory.
* Minimum dimension is 1, not 0, and internal dimensions must match. */
#include <math.h>
// #include <omp.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <time.h>
void free(void *ptr);
void *malloc(size_t size);
/* Initializes vector or matrix, sequentially, with indices. */
void init_seq(double *a, const unsigned n_rows_a, const unsigned n_cols_a) {
for (size_t i = 0; i < n_rows_a; i++) {
for (size_t j = 0; j < n_cols_a; j++) {
a[i*n_cols_a + j] = 2.0;
}
}
}
// static unsigned int seed = 123456789; // must be initialized somehow
// unsigned int rand_test(void)
// {
// seed = (1103515245 * seed + 12345);
// return (seed >> 16) & 0x7FFF; // 15-bit result
// }
// /* Initializes vector or matrix, randomly. */
// void init_rand(double *a, const unsigned n_rows_a, const unsigned n_cols_a) {
// for (size_t i = 0; i < n_rows_a; i++) {
// for (size_t j = 0; j < n_cols_a; j++) {
// a[i*n_cols_a + j] = rand_test() / 32767.0;
// // rand_test() / (double)RAND_MAX;
// }
// }
// }
/* Takes and returns a new matrix, t, which is a transpose of the original one, m.
It's also flat in memory, i.e., 1-D, but it should be looked at as a transpose
of m, meaning, n_rows_t == n_cols_m, and n_cols_t == n_rows_m.
The original matrix m stays intact. */
double *transpose(const double *m, const unsigned n_rows_m, const unsigned n_cols_m, double *t) {
for (size_t i = 0; i < n_rows_m; i++) {
for (size_t j = 0; j < n_cols_m; j++) {
t[j*n_rows_m + i] = m[i*n_cols_m + j];
}
}
return t;
}
/* Dot product of two arrays, or matrix product
* Allocates and returns an array.
* This variant doesn't transpose matrix b, and it's a lot slower. */
double *dot_simple(const double *a, const unsigned n_rows_a, const unsigned n_cols_a,\
const double *b, const unsigned n_rows_b, const unsigned n_cols_b) {
if (n_cols_a != n_rows_b) {
// printf("#columns A must be equal to #rows B!\n");
// system("pause");
// exit(-2);
}
double *c = malloc(n_rows_a * n_cols_b * sizeof(*c));
if (c == NULL) {
// printf("Couldn't allocate memory!\n");
// system("pause");
// exit(-1);
}
for (size_t i = 0; i < n_rows_a; i++) {
for (size_t k = 0; k < n_cols_b; k++) {
double sum = 0.0;
for (size_t j = 0; j < n_cols_a; j++) {
sum += a[i*n_cols_a + j] * b[j*n_cols_b + k];
}
c[i*n_cols_b + k] = sum;
}
}
return c;
}
/* Dot product of two arrays, or matrix product
* Allocates and returns an array.
* This variant transposes matrix b, and it's a lot faster. */
double *dot(const double *a, const unsigned n_rows_a, const unsigned n_cols_a, \
const double *b, const unsigned n_rows_b, const unsigned n_cols_b) {
if (n_cols_a != n_rows_b) {
// printf("#columns A must be equal to #rows B!\n");
// system("pause");
// exit(-2);
}
double *bt = malloc(n_rows_b * n_cols_b * sizeof(*b));
double *c = malloc(n_rows_a * n_cols_b * sizeof(*c));
if ((c == NULL) || (bt == NULL)) {
// printf("Couldn't allocate memory!\n");
// system("pause");
// exit(-1);
}
bt = transpose(b, n_rows_b, n_cols_b, bt);
for (size_t i = 0; i < n_rows_a; i++) {
for (size_t k = 0; k < n_cols_b; k++) {
double sum = 0.0;
for (size_t j = 0; j < n_cols_a; j++) {
sum += a[i*n_cols_a + j] * bt[k*n_rows_b + j];
}
c[i*n_cols_b + k] = sum;
}
}
free(bt);
return c;
}
/* Prints vector, or matrix. */
// void print(const double *a, const unsigned n_rows_a, const unsigned n_cols_a) {
// for (size_t i = 0; i < n_rows_a; i++) {
// for (size_t j = 0; j < n_cols_a; j++) {
// printf("%8.3f ", a[i*n_cols_a + j]);
// }
// printf("\n");
// }
// printf("\n");
// }
int main(void) {
/* Intializes random number generator */
// time_t t;
// srand((unsigned)time(&t));
// srand(0);
/* For measuring time */
double t0, t1;
const unsigned scale = 2;
const unsigned n_rows_a = 4 * scale;
const unsigned n_cols_a = 3 * scale;
const unsigned n_rows_b = 3 * scale;
const unsigned n_cols_b = 2 * scale;
double *a = malloc(n_rows_a * n_cols_a * sizeof(*a));
double *b = malloc(n_rows_b * n_cols_b * sizeof(*b));
double *c = NULL;
double *d = NULL;
if (!a || !b) {
// printf("Couldn't allocate memory!\n");
// system("pause");
// exit(-1);
}
// init_rand(a, n_rows_a, n_cols_a);
// init_rand(b, n_rows_b, n_cols_b);
init_seq(a, n_rows_a, n_cols_a);
init_seq(b, n_rows_b, n_cols_b);
// t0 = omp_get_wtime();
c = dot_simple(a, n_rows_a, n_cols_a, b, n_rows_b, n_cols_b);
// t1 = omp_get_wtime();
// printf("Dot Simple: Elapsed time %.3f s\n", t1 - t0);
// t0 = omp_get_wtime();
d = dot(a, n_rows_a, n_cols_a, b, n_rows_b, n_cols_b);
// t1 = omp_get_wtime();
// printf("Dot: Elapsed time %.3f s\n", t1 - t0);
if (scale == 1) {
// printf("Matrix A:\n");
// print(a, n_rows_a, n_cols_a);
// // printf("Matrix B:\n");
// print(b, n_rows_b, n_cols_b);
// // printf("Matrix C:\n");
// print(c, n_rows_a, n_cols_b);
// // printf("Matrix D:\n");
// print(d, n_rows_a, n_cols_b);
}
free(a);
free(b);
free(c);
free(d);
// system("pause");
return(0);
}
#endif // MATMUL_1D

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scp ../../encoding.h home-1:/home/akilan/
scp ../../entry.S home-1:/home/akilan/
scp ../../link.ld home-1:/home/akilan/
scp ../../riscv_test_p.h home-1:/home/akilan/
scp ../../riscv_test.h home-1:/home/akilan/
scp ../../string.c home-1:/home/akilan/
scp ../../vm.c home-1:/home/akilan/
scp ../../test.S home-1:/home/akilan/
scp ../../test_macros.h home-1:/home/akilan/
scp ../../malloc.c home-1:/home/akilan/
# scp ../../test.c home-1:/home/akilan/
scp memaccess.c home-1:/home/akilan/
# GCC compile
# ssh home-1 'cd /home/akilan/ && export PATH=/opt/riscv/bin:$PATH && riscv64-unknown-elf-gcc -DENTROPY=0xf21e02b -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -mabi=lp64 -T link.ld vm.c string.c entry.S test.S -o testC'
# Clang compile (architecture Regular RISCV)
ssh home-1 'clang --target=riscv64-unknown-elf -DENTROPY=0xf21e02b -DDEFINE_MALLOC -DDEFINE_FREE --gcc-toolchain=/opt/riscv -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -fno-builtin-malloc -mabi=lp64 -T link.ld vm.c string.c malloc.c entry.S test.S memaccess.c -o testC'
# Clang using the cheri clang compiler
# ssh home-1 'cd cheri/output/sdk/bin/ && ./clang --target=riscv64-unknown-freebsd -DENTROPY=0xf21e02b --sysroot=cheribsd-riscv64-for-purecap-rootfs.cfg -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -march=rv64imafdcxcheri -mabi=lp64d -T link.ld vm.c string.c entry.S test.S -o testC'
scp home-1:/home/akilan/testC ../../../
# scp home-1:/home/akilan/cheri/output/sdk/bin/testC .
# riscv64-unknown-elf-gcc \
# -march=rv64imac \
# -mabi=lp64 \
# -nostartfiles \
# -fno-builtin \
# -T link.ld \
# entry.S vm.c string.c \
# clang \
# --target=riscv64-unknown-elf \
# -march=rv64imac \
# -mabi=lp64 \
# -nostdlib \
# -nostartfiles \
# -fuse-ld=lld \
# -T link.ld \
# entry.S vm.c string.c \
# -I. \
# -o output.elf%

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@@ -0,0 +1,364 @@
/*
memaccesstest.c
Author Alex Bordei at bigstep
All rights reserved.
*/
// source: https://github.com/bigstepinc/memaccesstest/tree/master
// #include <stdio.h>
// #include <cheriintrin.h>
#include <stddef.h>
#include <stdint.h>
// #include <stdlib.h>
// #include <pthread.h>
// #include "config.h"
// #ifndef __MACH__
// #include <time.h>
// #else
// #include <mach/mach_time.h>
// #endif
// #include "malloc.h"
// #define malloc MALLOCCHERI
// #define free FREECHERI
#define NPAD 7
#define MIN_WSS sizeof(struct l)
#define MAX_WSS 32
void free(void *ptr);
void *malloc(size_t size);
// struct l{
// struct l *n;
// struct l *p;
// long int pad[NPAD-1];
// };
struct l{
struct l *n;
struct l *p;
long int pad[NPAD-1];
};
// uint64_t rand64()
// {
// // Combin 4 parts of low 16-bit of each rand()
// uint64_t R0 = (uint64_t)random() << 48;
// uint64_t R1 = (uint64_t)random() << 48 >> 16;
// uint64_t R2 = (uint64_t)random() << 48 >> 32;
// uint64_t R3 = (uint64_t)random() << 48 >> 48;
// return R0 | R1 | R2 | R3;
// };
#ifdef DEBUG
// void print_ll_lin(struct l *root,unsigned long working_set_size)
// {
// struct l *current=root->n;
// unsigned long count;
// printf("0");
// count=0;
// while(current!=root)
// {
// // printf("->%ld",current-root);
// current=current->n;
// count++;
// if(count>working_set_size/sizeof(struct l))
// {
// // printf("Error:cycle!");
// break;
// }
// }
// // printf("\n");
// }
// void print_ll_lin_back(struct l *root,unsigned long working_set_size)
// {
// struct l *current=root->p;
// unsigned long count;
// printf("0");
// count=0;
// while(current!=root)
// {
// // printf("->%ld",current-root);
// current=current->p;
// count++;
// if(count>working_set_size/sizeof(struct l))
// {
// // printf("Error:cycle!");
// break;
// }
// }
// printf("\n");
// }
// void print_ll(struct l *root,unsigned long working_set_size)
// {
// unsigned long i;
// for(i=0;i<(working_set_size/sizeof(struct l));i++)
// printf("DEBUG: %ld<-%ld->%ld\n",(root+i)->p-root,i,((root+i)->n)-root);
// printf("DEBUG ");
// print_ll_lin(root, working_set_size);
// printf("DEBUG ");
// print_ll_lin_back(root, working_set_size);
// }
#endif
// void build_sequencial_ll(struct l * root, long working_set_size)
void build_sequencial_ll(struct l *root, long working_set_size)
{
unsigned long i;
struct l *current;
for(i=0;i<(working_set_size/sizeof(struct l));i++)
{
current=root+i;
if(i==(working_set_size/sizeof(struct l)-1))
current->n=root;
else
current->n=current+1;
if(i==0)
current->p=root+working_set_size/sizeof(struct l)-1;
else
current->p=current-1;
}
}
// void build_random_ll(struct l *root, long working_set_size)
// {
// unsigned long i;
// struct l *a;
// struct l *b;
// struct l *oldan;
// struct l *oldbn;
// struct l *oldap;
// struct l *oldbp;
// unsigned long rnd;
// unsigned long tries;
// build_sequencial_ll(root, working_set_size);
// //construct the array of elements
// //link the list to the next element in the array
// for(i=1;i<(working_set_size/sizeof(struct l)-1);i++)
// {
// a=(root+i);
// b=a;
// tries=5;
// while((b==a || b==root) && tries)
// {
// rnd=rand64() % (working_set_size/sizeof(struct l)-1);
// b=root+rnd;
// tries--;
// }
// if(!tries)
// continue;
// oldan=a->n; //a->n is lost along the way
// oldbn=b->n; //b->n is lost along the way
// oldap=a->p; //a->p is lost along the way
// oldbp=b->p; //b->p is lost along the way
// a->p->n=b;
// b->p->n=a;
// if(b!=oldan)
// {
// b->n=oldan;
// oldan->p=b;
// }
// else
// {
// b->n=a;
// a->p=b;
// }
// if(a!=oldbn)
// {
// a->n=oldbn;
// oldbn->p=a;
// }
// else
// {
// a->n=b;
// b->p=a;
// }
// if(b!=oldap)
// b->p=oldap;
// else
// b->p=a;
// if(a!=oldbp)
// a->p=oldbp;
// else
// a->p=b;
// #ifdef DEBUG
// printf("DEBUG: Round i=%ld\n",i);
// printf("DEBUG: A=%ld B=%ld\n",a-root,b-root);
// print_ll(root, working_set_size);
// #endif
// }
// }
struct thread_start_data
{
struct l *root;
unsigned long working_set_size;
int thread_index;
};
void * walk(void *param)
{
struct thread_start_data *data=param;
unsigned long start,end;
struct l *root=data->root;
// struct l* current=root->n;
struct l *current = root->n;
// #ifdef __MACH__
// start=mach_absolute_time();
// #else
// struct timespec ts;
// clock_gettime(CLOCK_MONOTONIC_RAW,&ts);
// start=ts.tv_nsec;
// #endif
/////////////////////////////////////
//traverse the linked list
while(current!=root)
{
// #ifdef ADDTEST
// current->pad[0]+=current->n->pad[0];
// #endif
// #ifdef INCTEST
// current->pad[0]++;
// #endif
current=current->n;
}
/////////////////////////////////////
// #ifdef __MACH__
// end=mach_absolute_time();
// #else
// clock_gettime(CLOCK_MONOTONIC_RAW,&ts);
// end=ts.tv_nsec;
// #endif
// printf("%d,%ld,%ld,%ld\n",data->thread_index,data->working_set_size, end-start, data->working_set_size/sizeof(struct l));
// free(data);
return NULL;
}
int main(void)
{
// clock_t tic = clock();
// INITREGULARALLOC();
//#ifdef DEBUG
// printf("DEBUG:sizeof(struct l)=%ld\n",sizeof(struct l));
// #endif
struct l *root;
unsigned long working_set_size;
int i;
// struct thread_start_data *tdata;
struct thread_start_data *tdata;
// pthread_t threads[NTHREADS];
root=malloc(MAX_WSS/sizeof(struct l) * sizeof(struct l));
for(working_set_size=MIN_WSS;working_set_size<MAX_WSS;working_set_size=working_set_size<<1)
{
// #ifdef DEBUG
// printf("DEBUG:Working set size=%ld elements=%ld\n",working_set_size,working_set_size/sizeof(struct l));
// #endif
// clock_t toc = clock();
// printf("Elapsed build get here before ll: %f seconds\n", (double)(toc - tic) / CLOCKS_PER_SEC);
// #ifdef RANDOM_LIST
// build_random_ll(root, working_set_size);
// #else
// clock_t tic1 = clock();
build_sequencial_ll(root, working_set_size);
// build_sequencial_ll(root, working_set_size);
// clock_t toc1 = clock();
// printf("Elapsed build ll: %f seconds\n", (double)(toc1 - tic1) / CLOCKS_PER_SEC);
// #endif
// #if NTHREADS>0
// for(i=0;i<NTHREADS;i++)
// {
// tdata= malloc(sizeof(struct thread_start_data));
// tdata->thread_index=i;
// tdata->root=root;
// tdata->working_set_size=working_set_size;
// pthread_create(&threads[i], NULL, walk, (void*) tdata);
// }
// for(i=0;i<NTHREADS;i++)
// pthread_join(threads[i],NULL);
// #else
tdata = malloc(sizeof(struct thread_start_data));
tdata->thread_index=0;
tdata->root=root;
tdata->working_set_size=working_set_size;
// clock_t tic2 = clock();
for (int i = 0; i < 64; i++) {
walk(tdata);
}
// tdata = malloc(sizeof(struct thread_start_data));
// tdata->thread_index=0;
// tdata->root=root;
// tdata->working_set_size=working_set_size;
// // clock_t tic2 = clock();
// for (int i = 0; i < 64; i++) {
// walk(tdata);
// }
// clock_t toc2 = clock();
// printf("Elapsed build walk: %f seconds\n", (double)(toc2 - tic2) / CLOCKS_PER_SEC);
// #endif
}
// printf("-----------------------------------------------");
free(root);
root = NULL;
return 0;
}

View File

@@ -0,0 +1,46 @@
scp ../../encoding.h home-1:/home/akilan/
scp ../../entry.S home-1:/home/akilan/
scp ../../link.ld home-1:/home/akilan/
scp ../../riscv_test_p.h home-1:/home/akilan/
scp ../../riscv_test.h home-1:/home/akilan/
scp ../../string.c home-1:/home/akilan/
scp ../../vm.c home-1:/home/akilan/
scp ../../test.S home-1:/home/akilan/
scp ../../test_macros.h home-1:/home/akilan/
scp ../../malloc.c home-1:/home/akilan/
# scp ../../test.c home-1:/home/akilan/
scp richards.c home-1:/home/akilan/
# GCC compile
# ssh home-1 'cd /home/akilan/ && export PATH=/opt/riscv/bin:$PATH && riscv64-unknown-elf-gcc -DENTROPY=0xf21e02b -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -mabi=lp64 -T link.ld vm.c string.c entry.S test.S -o testC'
# Clang compile (architecture Regular RISCV)
ssh home-1 'clang --target=riscv64-unknown-elf -DENTROPY=0xf21e02b -DDEFINE_MALLOC -DDEFINE_FREE --gcc-toolchain=/opt/riscv -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -fno-builtin-malloc -mabi=lp64 -T link.ld vm.c string.c malloc.c entry.S test.S richards.c -o testC'
# Clang using the cheri clang compiler
# ssh home-1 'cd cheri/output/sdk/bin/ && ./clang --target=riscv64-unknown-freebsd -DENTROPY=0xf21e02b --sysroot=cheribsd-riscv64-for-purecap-rootfs.cfg -mcmodel=medany -nostdlib -nostartfiles -ffreestanding -fno-builtin -march=rv64imafdcxcheri -mabi=lp64d -T link.ld vm.c string.c entry.S test.S -o testC'
scp home-1:/home/akilan/testC ../../../
# scp home-1:/home/akilan/cheri/output/sdk/bin/testC .
# riscv64-unknown-elf-gcc \
# -march=rv64imac \
# -mabi=lp64 \
# -nostartfiles \
# -fno-builtin \
# -T link.ld \
# entry.S vm.c string.c \
# clang \
# --target=riscv64-unknown-elf \
# -march=rv64imac \
# -mabi=lp64 \
# -nostdlib \
# -nostartfiles \
# -fuse-ld=lld \
# -T link.ld \
# entry.S vm.c string.c \
# -I. \
# -o output.elf%

View File

@@ -0,0 +1,455 @@
// clang-format off
/* C version of the systems programming language benchmark
** Author: M. J. Jordan Cambridge Computer Laboratory.
**
** Modified by: M. Richards, Nov 1996
** to be ANSI C and runnable on 64 bit machines + other minor changes
** Modified by: M. Richards, 20 Oct 1998
** made minor corrections to improve ANSI compliance (suggested
** by David Levine)
** Modified by: Jeremy Singer, 25 May 2022
** adapted to use uintptr_t for compatibility with architectures
** that do not have word-sized pointers (e.g. CHERI)
** also adapted to use Boehm-Demers-Weiser GC instead of system
** malloc, when compiled with -DGC
**
** Compile with, say
**
** gcc -o bench bench.c
**
** or
**
** gcc -o bench100 -Dbench100 bench.c (for a version that obeys
** the main loop 100x more often)
*/
// #include <stdio.h>
#include <stdint.h>
#include <stddef.h>
// #include <stdlib.h>
// #include "harness.h"
// #include "stddefines.h"
// #ifdef GC
// #include "gc.h"
// #define MALLOC GC_MALLOC
// #else
// #define MALLOC malloc
// #endif // GC
// #define malloc tiny_malloc
// #define free tiny_free
void* malloc(size_t);
void free(void*);
#ifdef bench100
#define Count 10000*100
#define Qpktcountval 2326410
#define Holdcountval 930563
#else
#define Count 10000
#define Qpktcountval 23246
#define Holdcountval 9297
#endif
#define TRUE 1
#define FALSE 0
#define MAXINT 32767
#define BUFSIZE 3
#define I_IDLE 1
#define I_WORK 2
#define I_HANDLERA 3
#define I_HANDLERB 4
#define I_DEVA 5
#define I_DEVB 6
#define PKTBIT 1
#define WAITBIT 2
#define HOLDBIT 4
#define NOTPKTBIT !1
#define NOTWAITBIT !2
#define NOTHOLDBIT 0XFFFB
#define S_RUN 0
#define S_RUNPKT 1
#define S_WAIT 2
#define S_WAITPKT 3
#define S_HOLD 4
#define S_HOLDPKT 5
#define S_HOLDWAIT 6
#define S_HOLDWAITPKT 7
#define K_DEV 1000
#define K_WORK 1001
struct packet
{
struct packet *p_link;
int p_id;
int p_kind;
int p_a1;
char p_a2[BUFSIZE+1];
};
struct task
{
struct task *t_link;
int t_id;
int t_pri;
struct packet *t_wkq;
int t_state;
struct task *(*t_fn)(struct packet *);
uintptr_t t_v1;
uintptr_t t_v2;
};
char alphabet[28] = "0ABCDEFGHIJKLMNOPQRSTUVWXYZ";
struct task *tasktab[11] = {(struct task *)10,0,0,0,0,0,0,0,0,0,0};
struct task *tasklist = 0;
struct task *tcb;
long taskid;
uintptr_t v1;
uintptr_t v2;
int qpktcount = 0;
int holdcount = 0;
int tracing = 0;
int layout = 0;
void append(struct packet *pkt, struct packet *ptr);
void createtask(int id,
int pri,
struct packet *wkq,
int state,
struct task *(*fn)(struct packet *),
uintptr_t v1,
uintptr_t v2)
{
struct task *t = (struct task *)malloc(sizeof(struct task));
tasktab[id] = t;
t->t_link = tasklist;
t->t_id = id;
t->t_pri = pri;
t->t_wkq = wkq;
t->t_state = state;
t->t_fn = fn;
t->t_v1 = v1;
t->t_v2 = v2;
tasklist = t;
}
struct packet *pkt(struct packet *link, int id, int kind)
{
int i;
struct packet *p = (struct packet *)malloc(sizeof(struct packet));
for (i=0; i<=BUFSIZE; i++)
p->p_a2[i] = 0;
p->p_link = link;
p->p_id = id;
p->p_kind = kind;
p->p_a1 = 0;
return (p);
}
void trace(char a)
{
if ( --layout <= 0 )
{
// printf("\n");
layout = 50;
}
// printf("%c", a);
}
void schedule()
{
while ( tcb != 0 )
{
struct packet *pkt;
struct task *newtcb;
pkt=0;
switch ( tcb->t_state )
{
case S_WAITPKT:
pkt = tcb->t_wkq;
tcb->t_wkq = pkt->p_link;
tcb->t_state = tcb->t_wkq == 0 ? S_RUN : S_RUNPKT;
case S_RUN:
case S_RUNPKT:
taskid = tcb->t_id;
v1 = tcb->t_v1;
v2 = tcb->t_v2;
if (tracing) {
trace(taskid+'0');
}
newtcb = (*(tcb->t_fn))(pkt);
tcb->t_v1 = v1;
tcb->t_v2 = v2;
tcb = newtcb;
break;
case S_WAIT:
case S_HOLD:
case S_HOLDPKT:
case S_HOLDWAIT:
case S_HOLDWAITPKT:
tcb = tcb->t_link;
break;
default:
return;
}
}
}
struct task *wait_task(void)
{
tcb->t_state |= WAITBIT;
return (tcb);
}
struct task *holdself(void)
{
++holdcount;
tcb->t_state |= HOLDBIT;
return (tcb->t_link) ;
}
struct task *findtcb(int id)
{
struct task *t = 0;
if (1<=id && id<=(long)tasktab[0])
t = tasktab[id];
// if (t==0) printf("\nBad task id %d\n", id);
return(t);
}
struct task *release(int id)
{
struct task *t;
t = findtcb(id);
if ( t==0 ) return (0);
t->t_state &= NOTHOLDBIT;
if ( t->t_pri > tcb->t_pri ) return (t);
return (tcb) ;
}
struct task *qpkt(struct packet *pkt)
{
struct task *t;
t = findtcb(pkt->p_id);
if (t==0) return (t);
qpktcount++;
pkt->p_link = 0;
pkt->p_id = taskid;
if (t->t_wkq==0)
{
t->t_wkq = pkt;
t->t_state |= PKTBIT;
if (t->t_pri > tcb->t_pri) return (t);
}
else
{
append(pkt, (struct packet *)&(t->t_wkq));
}
return (tcb);
}
struct task *idlefn(struct packet *pkt)
{
if ( --v2==0 ) return ( holdself() );
if ( (v1&1) == 0 )
{
v1 = ( v1>>1) & MAXINT;
return ( release(I_DEVA) );
}
else
{
v1 = ( (v1>>1) & MAXINT) ^ 0XD008;
return ( release(I_DEVB) );
}
}
struct task *workfn(struct packet *pkt)
{
if ( pkt==0 ) return ( wait_task() );
else
{
int i;
v1 = I_HANDLERA + I_HANDLERB - v1;
pkt->p_id = v1;
pkt->p_a1 = 0;
for (i=0; i<=BUFSIZE; i++)
{
v2++;
if ( v2 > 26 ) v2 = 1;
(pkt->p_a2)[i] = alphabet[v2];
}
return ( qpkt(pkt) );
}
}
struct task *handlerfn(struct packet *pkt)
{
if ( pkt!=0) {
append(pkt, (struct packet *)(pkt->p_kind==K_WORK ? &v1 : &v2));
}
if ( v1!=0 ) {
int count;
struct packet *workpkt = (struct packet *)v1;
count = workpkt->p_a1;
if ( count > BUFSIZE ) {
v1 = (uintptr_t)(((struct packet *)v1)->p_link);
return ( qpkt(workpkt) );
}
if ( v2!=0 ) {
struct packet *devpkt;
devpkt = (struct packet *)v2;
v2 = (uintptr_t)(((struct packet *)v2)->p_link);
devpkt->p_a1 = workpkt->p_a2[count];
workpkt->p_a1 = count+1;
return( qpkt(devpkt) );
}
}
return wait_task();
}
struct task *devfn(struct packet *pkt)
{
if ( pkt==0 )
{
if ( v1==0 ) return ( wait_task() );
pkt = (struct packet *)v1;
v1 = 0;
return ( qpkt(pkt) );
}
else
{
v1 = (uintptr_t)pkt;
if (tracing) trace(pkt->p_a1);
return ( holdself() );
}
}
void append(struct packet *pkt, struct packet *ptr)
{
pkt->p_link = 0;
while ( ptr->p_link ) ptr = ptr->p_link;
ptr->p_link = pkt;
}
int bench() {
struct packet *wkq = 0;
// printf("Bench mark starting\n");
createtask(I_IDLE, 0, wkq, S_RUN, idlefn, 1, Count);
wkq = pkt(0, 0, K_WORK);
wkq = pkt(wkq, 0, K_WORK);
createtask(I_WORK, 1000, wkq, S_WAITPKT, workfn, I_HANDLERA, 0);
wkq = pkt(0, I_DEVA, K_DEV);
wkq = pkt(wkq, I_DEVA, K_DEV);
wkq = pkt(wkq, I_DEVA, K_DEV);
// createtask(I_HANDLERA, 2000, wkq, S_WAITPKT, handlerfn, 0, 0);
// wkq = pkt(0, I_DEVB, K_DEV);
// wkq = pkt(wkq, I_DEVB, K_DEV);
// wkq = pkt(wkq, I_DEVB, K_DEV);
// createtask(I_HANDLERB, 3000, wkq, S_WAITPKT, handlerfn, 0, 0);
// wkq = 0;
// createtask(I_DEVA, 4000, wkq, S_WAIT, devfn, 0, 0);
// createtask(I_DEVB, 5000, wkq, S_WAIT, devfn, 0, 0);
tcb = tasklist;
qpktcount = holdcount = 0;
// printf("Starting\n");
tracing = FALSE;
layout = 0;
schedule();
// printf("\nfinished\n");
// if (!(qpktcount == Qpktcountval && holdcount == Holdcountval)) {
// printf("qpkt count = %d holdcount = %d\n", qpktcount, holdcount);
// printf("These results are incorrect");
// exit(1);
// }
// printf("\nend of run\n");
return qpktcount;
}
int inner_loop(int inner) {
int r = 0;
while (inner > 0) {
r += bench();
inner--;
}
return r;
}
int main(void)
{
//INITREGULARALLOC();
int iterations = 2;
int warmup = 0;
int inner_iterations = 2;
// parse_argv(argc, argv, &iterations, &warmup, &inner_iterations);
// while(1);
int result = 0;
while (iterations > 0) {
// unsigned long start = microseconds();
result += inner_loop(inner_iterations);
// unsigned long elapsed = microseconds() - start;
// printf("Richards: iterations=1 runtime: %lu%s\n", elapsed, "us");
// print(elapsed);
iterations--;
}
}

View File

@@ -15,5 +15,5 @@ SECTIONS
_end = .;
__malloc_start = .;
. = . + 512;
. = . + 0x10000;
}

View File

@@ -4,41 +4,41 @@
void* malloc(size_t size);
int main(void)
{
char* a = malloc(50);
char* b = malloc(160);
// asm volatile("fence rw, rw"); // make sure store completes
// volatile uint64_t* marker = (uint64_t*)0x80001000;
// *marker = 0xCAFEBABECAFED00D; // UNIQUE SIGNATURE
int main(void) {
// char *a = malloc(30);
// char *b = malloc(16);
// if (!a || !b) return;
// // if (!a || !b) return -1;
a[0] = 'A';
// // a[1] = 'C';
// // b[0] = 'B';
// a[0] = 'A';
// a[1] = 'C';
// b[0] = 'B';
// // This will fault (out-of-bounds)
// // a[20] = 'X';
if (a[0] != 'A') {
while (1);
}
// // char* a = malloc(100);
// // char* b = malloc(200);
// if (a[1] != 'C') {
// while (1);
// }
// a[0] = 'A'; // triggers page fault if unmapped
// b[19] = 'Z';
// if (b[0] != 'B') {
// while (1);
// }
// // free(b);
// // b = NULL;
// // if (b[0] == 'B') {
// // while (1);
// // }
// char *c = malloc(16);
// // if (c[0] != 'B') {
// // while (1);
// // }
// for (int i = 0; i < 1000; i++) {
// a[i * 64] = i; // each write new cache line
// }
// while(1);
return 0;
}

View File

@@ -333,7 +333,7 @@ void vm_boot(uintptr_t test_addr)
trapframe_t tf;
memset(&tf, 0, sizeof(tf));
tf.epc = test_addr - DRAM_BASE;
// call test function
// call C benchmark function
main();
pop_tf(&tf);
}

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@@ -0,0 +1,92 @@
import matplotlib.pyplot as plt
import numpy as np
performance_data = {
"Mem": {
"regular": {"CPU_cycles": 33940, "L1_DTLB_access": 13202, "L1_DTLB_miss": 36, "L2_DTLB_miss": 10},
"modified": {"CPU_cycles": 2457, "L1_DTLB_access": 151, "L1_DTLB_miss": 0, "L2_DTLB_miss": 0},
},
"Test_C": {
"regular": {"CPU_cycles": 34040, "L1_DTLB_access": 13284, "L1_DTLB_miss": 36, "L2_DTLB_miss": 10},
"modified": {"CPU_cycles": 2789, "L1_DTLB_access": 396, "L1_DTLB_miss": 0, "L2_DTLB_miss": 0},
},
"Glibc": {
"regular": {"CPU_cycles": 36053, "L1_DTLB_access": 14027, "L1_DTLB_miss": 36, "L2_DTLB_miss": 10},
"modified": {"CPU_cycles": 4219, "L1_DTLB_access": 783, "L1_DTLB_miss": 0, "L2_DTLB_miss": 0},
},
"Richards": {
"regular": {"CPU_cycles": 37808, "L1_DTLB_access": 14363, "L1_DTLB_miss": 10, "L2_DTLB_miss": 6},
"modified": {"CPU_cycles": 4433, "L1_DTLB_access": 874, "L1_DTLB_miss": 0, "L2_DTLB_miss": 0},
},
"Matrix_mul": {
"regular": {"CPU_cycles": 42383, "L1_DTLB_access": 17020, "L1_DTLB_miss": 14, "L2_DTLB_miss": 10},
"modified": {"CPU_cycles": 12149, "L1_DTLB_access": 4411, "L1_DTLB_miss": 0, "L2_DTLB_miss": 0},
}
}
def compute_percent_diff(regular, modified):
out = {}
for k in regular:
if k in modified and regular[k] != 0:
out[k] = ((regular[k] - modified[k]) / regular[k]) * 100
elif k in modified and regular[k] == 0 and modified[k] == 0:
out[k] = 0.0
elif k in modified and regular[k] == 0 and modified[k] != 0:
out[k] = -100.0
return out
for t, d in performance_data.items():
d["percent_diff"] = compute_percent_diff(d["regular"], d["modified"])
tests = list(performance_data.keys())
metrics = ["CPU_cycles", "L1_DTLB_access", "L1_DTLB_miss", "L2_DTLB_miss"]
# 1. Summary plot: Percent Improvement for all metrics grouped by test
x = np.arange(len(tests))
width = 0.2
fig, ax = plt.subplots(figsize=(12, 7))
for i, metric in enumerate(metrics):
values = [performance_data[t]["percent_diff"].get(metric, 0) for t in tests]
offset = (i - len(metrics)/2 + 0.5) * width
ax.bar(x + offset, values, width, label=metric.replace('_', ' ').title())
ax.set_ylabel('Percent Improvement (%)')
ax.set_title('Percent Improvement (Regular -> Modified) by Test and Metric')
ax.set_xticks(x)
ax.set_xticklabels(tests)
ax.legend()
ax.set_ylim(0, 110)
ax.grid(axis='y', linestyle='--', alpha=0.7)
fig.tight_layout()
plt.savefig('percent_improvement_summary.png')
# 2. Individual metric plots: Regular vs Modified grouped by test
y_label_map = {
"CPU_cycles": "Cycles",
"L1_DTLB_access": "Access Count",
"L1_DTLB_miss": "Miss Count",
"L2_DTLB_miss": "Miss Count"
}
for metric in metrics:
fig, ax = plt.subplots(figsize=(10, 6))
reg_vals = [performance_data[t]["regular"][metric] for t in tests]
mod_vals = [performance_data[t]["modified"][metric] for t in tests]
x_local = np.arange(len(tests))
w = 0.35
ax.bar(x_local - w/2, reg_vals, w, label='Regular', color='steelblue')
ax.bar(x_local + w/2, mod_vals, w, label='Modified', color='salmon')
# Setting dynamic y-label
ax.set_ylabel(y_label_map.get(metric, metric.replace('_', ' ').title()))
ax.set_title(f'Comparison: {metric.replace("_", " ").title()}')
ax.set_xticks(x_local)
ax.set_xticklabels(tests)
ax.legend()
ax.grid(axis='y', linestyle='--', alpha=0.7)
plt.xticks(rotation=45)
plt.tight_layout()
plt.savefig(f'grouped_comparison_{metric}.png')

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145
analysis/perf_data.py Normal file
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@@ -0,0 +1,145 @@
def compute_percent_diff(regular, modified):
percent_diff = {}
for key in regular:
if key in modified and regular[key] != 0:
percent_diff[key] = ((regular[key] - modified[key]) / regular[key]) * 100
return percent_diff
def compute_percent_diff_mod_vs_pte(modified, after_pte):
percent_diff = {}
for key in ["CPU_cycles", "L1_DTLB_access"]:
if key in modified and key in after_pte and modified[key] != 0:
percent_diff[key] = ((modified[key] - after_pte[key]) / modified[key]) * 100
return percent_diff
performance_data = {
"Mem": {
"regular": {
"CPU_cycles": 33940,
"L1_DTLB_access": 13202,
"L1_DTLB_miss": 36,
"L2_DTLB_miss": 10,
},
"modified": {
"CPU_cycles": 2457,
"L1_DTLB_access": 151,
"L1_DTLB_miss": 0,
"L2_DTLB_miss": 0,
},
"after_PTE_setup": {
"CPU_cycles": 531,
"L1_DTLB_access": 25,
"L1_DTLB_miss": 0,
"L2_DTLB_miss": 0,
},
},
"Test_C": {
"regular": {
"CPU_cycles": 34040,
"L1_DTLB_access": 13284,
"L1_DTLB_miss": 36,
"L2_DTLB_miss": 10,
},
"modified": {
"CPU_cycles": 2789,
"L1_DTLB_access": 396,
"L1_DTLB_miss": 0,
"L2_DTLB_miss": 0,
},
"after_PTE_setup": {
"CPU_cycles": 631,
"L1_DTLB_access": 107,
"L1_DTLB_miss": 0,
"L2_DTLB_miss": 0,
},
},
"Glibc": {
"regular": {
"CPU_cycles": 36053,
"L1_DTLB_access": 14027,
"L1_DTLB_miss": 36,
"L2_DTLB_miss": 10,
},
"modified": {
"CPU_cycles": 4219,
"L1_DTLB_access": 783,
"L1_DTLB_miss": 0,
"L2_DTLB_miss": 0,
},
"after_PTE_setup": {
"CPU_cycles": 2644,
"L1_DTLB_access": 850,
"L1_DTLB_miss": 0,
"L2_DTLB_miss": 0,
},
},
"Setup": {
"regular": {
"CPU_cycles": 33409,
"L1_DTLB_access": 13177,
"L1_DTLB_miss": 36,
"L2_DTLB_miss": 10,
}
},
"Richards": {
"regular": {
"CPU_cycles": 37808,
"L1_DTLB_access": 14363,
"L1_DTLB_miss": 10,
"L2_DTLB_miss": 6,
},
"modified": {
"CPU_cycles": 4433,
"L1_DTLB_access": 874,
"L1_DTLB_miss": 0,
"L2_DTLB_miss": 0,
},
"after_PTE_setup": {
"CPU_cycles": 4399,
"L1_DTLB_access": 1186,
},
},
"Matrix_mul": {
"regular": {
"CPU_cycles": 42383,
"L1_DTLB_access": 17020,
"L1_DTLB_miss": 14,
"L2_DTLB_miss": 10,
},
"modified": {
"CPU_cycles": 12149,
"L1_DTLB_access": 4411,
"L1_DTLB_miss": 0,
"L2_DTLB_miss": 0,
},
"after_PTE_setup": {
"CPU_cycles": 8974,
"L1_DTLB_access": 3843,
},
}
}
# Add percentage differences
for test, data in performance_data.items():
if "regular" in data and "modified" in data:
data["percent_diff"] = compute_percent_diff(
data["regular"], data["modified"]
)
# Add modified vs after_PTE_setup percentage differences
for test, data in performance_data.items():
if "modified" in data and "after_PTE_setup" in data:
data["mod_vs_pte_percent_diff"] = compute_percent_diff_mod_vs_pte(
data["modified"], data["after_PTE_setup"]
)
# Example usage:
print(performance_data["Mem"]["percent_diff"])
print(performance_data["Mem"]["mod_vs_pte_percent_diff"])

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@@ -60,12 +60,12 @@ import TlbTypes::*;
import SynthParam::*;
import VerificationPacket::*;
import Performance::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import PerformanceMonitor::*;
import BlueUtils::*;
import StatCounters::*;
import GenerateHPMVector::*;
`endif
// `endif
import HasSpecBits::*;
import Exec::*;
import FetchStage::*;
@@ -212,10 +212,10 @@ interface Core;
interface Vector #(SupSize, Get #(Trace_Data2)) v_to_TV;
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method Action events_llc(EventsLL events);
method Action events_tgc(EventsTGC events);
`endif
// `endif
endinterface
// fixpoint to instantiate modules
@@ -268,9 +268,9 @@ module mkCore#(CoreId coreId)(Core);
Vector #(SupSize, FIFOF #(Trace_Data2)) v_f_to_TV <- replicateM (mkFIFOF);
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
Array #(Reg #(EventsCore)) hpm_core_events <- mkDRegOR (2, unpack (0));
`endif
// `endif
// ================================================================
@@ -298,7 +298,7 @@ module mkCore#(CoreId coreId)(Core);
SpecTagManager specTagManager <- mkSpecTagManager;
ReorderBufferSynth rob <- mkReorderBufferSynth;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
Vector#(SupSize, Bag#(BagSz, CapMem, CapMem)) bags;
for(Integer i = 0; i < valueof(SupSize); i=i+1) begin
@@ -309,7 +309,7 @@ module mkCore#(CoreId coreId)(Core);
returnBags[i] <- mkSmallBag;
end
`endif
`endif
// `endif
// We have two scoreboards: one conservative and other aggressive
// - Aggressive sb is checked at rename stage, so inst after rename may be issued early
@@ -437,7 +437,7 @@ module mkCore#(CoreId coreId)(Core);
method Bool pauseExecute = globalSpecUpdate.pendingIncorrectSpec;
method correctSpec = globalSpecUpdate.correctSpec[finishAluCorrectSpecPort(i)].put;
method doStats = doStatsReg._read;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
method Bool checkTarget(CapMem ppc);
Bool ret = False;
@@ -454,7 +454,7 @@ module mkCore#(CoreId coreId)(Core);
return ret;
endmethod
`endif
`endif
// `endif
endinterface);
aluExe[i] <- mkAluExePipeline(aluExeInput);
// truly call fetch method to train branch predictor
@@ -512,12 +512,12 @@ module mkCore#(CoreId coreId)(Core);
method setRegReadyAggr_forward = writeAggr(forwardWrAggrPort);
method writeRegFile = writeCons(memWrConsPort);
method doStats = doStatsReg._read;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
method rob_getPredPC = rob.getOrigPredPC[valueof(AluExeNum)].get; // last getOrigPredPC port
method rob_getOrig_Inst = rob.getOrig_Inst[valueof(AluExeNum)].get; // last getOrig_Inst port
`endif
`endif
// `endif
endinterface);
let memExe <- mkMemExePipeline(memExeInput);
@@ -580,7 +580,7 @@ module mkCore#(CoreId coreId)(Core);
// performance counters
Reg#(Bool) doStats = coreFix.doStatsIfc; // whether data is collected
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// OOO execute stag (in AluExePipeline and MemExePipeline)
// commit stage (many in CommitStage.bsv)
@@ -608,7 +608,7 @@ module mkCore#(CoreId coreId)(Core);
// FIFO of perf resp
FIFO#(ProcPerfResp) perfRespQ <- mkFIFO1;
`endif
// `endif
// FIFO of perf req
FIFO#(ProcPerfReq) perfReqQ <- mkFIFO1;
@@ -721,7 +721,7 @@ module mkCore#(CoreId coreId)(Core);
`endif
endmethod
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
method Action updateTargets(Vector#(SupSize, Maybe#(CapMem)) targets);
for(Integer i = 0; i < valueof(SupSize); i=i+1) begin
@@ -739,7 +739,7 @@ module mkCore#(CoreId coreId)(Core);
end
endmethod
`endif
`endif
// `endif
`ifdef INCLUDE_TANDEM_VERIF
interface v_to_TV = map (toPut, v_f_to_TV);
@@ -842,7 +842,7 @@ module mkCore#(CoreId coreId)(Core);
fetchStage.flush_predictors;
// $display ("%0d: %m.rule flushBrPred", cur_cycle);
endrule
`endif
// `endif
`ifdef SELF_INV_CACHE
// Use wires to capture flush regs and empty signals. This is ok because
@@ -914,7 +914,7 @@ module mkCore#(CoreId coreId)(Core);
endrule
`endif
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// incr cycle count
(* fire_when_enabled, no_implicit_conditions *)
rule incCycleCnt(doStats);
@@ -1170,9 +1170,9 @@ module mkCore#(CoreId coreId)(Core);
perfRespQ.enq(r);
end
endrule
`endif
// `endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
// ================================================================
// Performance counters
// Each cache and TLB pair uses the same struct (EventsCache), but the cache accesses
@@ -1220,7 +1220,7 @@ module mkCore#(CoreId coreId)(Core);
rule rl_send_perf_evts;
csrf.send_performance_events (events);
endrule
`endif
// `endif
`ifdef INCLUDE_GDB_CONTROL
// ================================================================
@@ -1531,18 +1531,18 @@ module mkCore#(CoreId coreId)(Core);
interface CoreIndInv coreIndInv;
method ActionValue#(ProcPerfResp) perfResp;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
perfRespQ.deq;
return perfRespQ.first;
`else
perfReqQ.deq;
let r = perfReqQ.first;
return ProcPerfResp {
loc: r.loc,
pType: r.pType,
data: 0
};
`endif
// `else
// perfReqQ.deq;
// let r = perfReqQ.first;
// return ProcPerfResp {
// loc: r.loc,
// pType: r.pType,
// data: 0
// };
// `endif
endmethod
method terminate = csrf.terminate;
@@ -1602,9 +1602,9 @@ module mkCore#(CoreId coreId)(Core);
interface v_to_TV = map (toGet, v_f_to_TV);
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method events_llc = events_llc_reg._write;
method events_tgc = events_tgc_reg._write;
`endif
// `endif
endmodule

View File

@@ -58,10 +58,10 @@ import ISA_Decls_CHERI::*;
import Cur_Cycle :: *;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import PerformanceMonitor :: *;
import StatCounters::*;
`endif
// `endif
// ================================================================
// Project imports from Toooba
@@ -184,10 +184,10 @@ interface CsrFile;
method Action dcsr_cause_write (Bit #(3) dcsr_cause);
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
(* always_ready, always_enabled *)
method Action send_performance_events (Vector #(No_Of_Evts, Bit #(Report_Width)) evts);
`endif
// `endif
endinterface
// Fancy Reg functions
@@ -242,7 +242,7 @@ function Reg#(t) addWriteSideEffect(Reg#(t) r, Action a);
endinterface);
endfunction
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
interface PerfCountersVec;
interface Vector#(No_Of_Ctrs, Reg#(Data)) counter_vec;
interface Vector#(No_Of_Ctrs, Reg#(Data)) event_vec;
@@ -289,7 +289,7 @@ module mkPerfCountersToooba (PerfCountersVec);
endinterface;
method send_performance_events = perf_counters.send_performance_events;
endmodule
`endif
// `endif
function Bool has_csr_permission(CSR csr, Bit#(2) prv, Bool write);
Bit#(12) csr_index = pack(csr);
@@ -754,7 +754,7 @@ module mkCsrFile #(Data hartid)(CsrFile);
Reg #(Data) rg_dscratch1 <- mkConfigRegU;
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
PerfCountersVec perf_counters <- mkPerfCountersToooba;
//Reg #(Bit #(2)) rg_ctr_inhib_lsb <- mkReg (0);
@@ -762,7 +762,7 @@ module mkCsrFile #(Data hartid)(CsrFile);
//Bit #(3) ctr_inhibit_lsb = { rg_ctr_inhib_lsb [1], 0, rg_ctr_inhib_lsb [0] };
//Word ctr_inhibit = zeroExtend ({ perf_counters.read_ctr_inhibit, ctr_inhibit_lsb });
//CSR_Addr no_of_ctrs = fromInteger (valueOf (No_Of_Ctrs));
`endif
// `endif
`ifdef SECURITY
// sanctum machine CSRs
@@ -832,25 +832,25 @@ module mkCsrFile #(Data hartid)(CsrFile);
Reg#(CapReg) mScratchC_reg <- mkCsrReg(nullCap);
Ehr#(2, CapReg) mepcc_reg <- mkConfigEhr(defaultValue);
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
// Performance monitoring
Reg#(Bit#(1)) mcountinhibit_cy_reg <- mkCsrReg(0);
Reg#(Bit#(1)) mcountinhibit_ir_reg <- mkCsrReg(0);
Reg#(Data) mcountinhibit_reg = concatReg5(readOnlyReg(32'h00000000), perf_counters.inhibit, mcountinhibit_ir_reg, readOnlyReg(1'b0), mcountinhibit_cy_reg);
`endif
// `endif
rule incCycle;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
if(!unpack(mcountinhibit_cy_reg)) mcycle_ehr[1] <= mcycle_ehr[1] + 1;
`else
mcycle_ehr[1] <= mcycle_ehr[1] + 1;
`endif
// `else
// mcycle_ehr[1] <= mcycle_ehr[1] + 1;
// `endif
endrule
// Function for getting a csr given an index
function Reg#(Data) get_csr(CSR csr);
Reg#(Data) ret = readOnlyReg(64'b0);
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
let c = csr.addr;
if ((csrAddrMHPMCOUNTER3.addr <= c) && (c <= csrAddrMHPMCOUNTER31.addr))
ret = perf_counters.counter_vec[c-csrAddrMHPMCOUNTER3.addr];
@@ -858,7 +858,7 @@ module mkCsrFile #(Data hartid)(CsrFile);
ret = perf_counters.event_vec[c - csrAddrMHPMEVENT3.addr];
if ((csrAddrHPMCOUNTER3.addr <= c) && (c <= csrAddrHPMCOUNTER31.addr))
ret = perf_counters.counter_vec[c-csrAddrHPMCOUNTER3.addr];
`endif
// `endif
return (case (csr)
// User CSRs
csrAddrFFLAGS: fflags_csr;
@@ -901,10 +901,10 @@ module mkCsrFile #(Data hartid)(CsrFile);
csrAddrMIMPID: mimpid_csr;
csrAddrMHARTID: mhartid_csr;
csrAddrMCCSR: mccsr_csr;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
//csrAddrMCOUNTERINHIBIT: perf_counters.inhibit;
csrAddrMCOUNTERINHIBIT: mcountinhibit_reg;
`endif
// `endif
`ifdef SECURITY
csrAddrMEVBASE: mevbase_csr;
csrAddrMEVMASK: mevmask_csr;
@@ -1396,11 +1396,11 @@ module mkCsrFile #(Data hartid)(CsrFile);
};
method Action incInstret(SupCnt x);
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
if(!unpack(mcountinhibit_ir_reg)) minstret_ehr[1] <= minstret_ehr[1] + zeroExtend(x);
`else
minstret_ehr[1] <= minstret_ehr[1] + zeroExtend(x);
`endif
// `else
// minstret_ehr[1] <= minstret_ehr[1] + zeroExtend(x);
// `endif
endmethod
method Action setTime(Data t);
@@ -1473,7 +1473,7 @@ module mkCsrFile #(Data hartid)(CsrFile);
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method send_performance_events = perf_counters.send_performance_events;
`endif
// `endif
endmodule

View File

@@ -79,9 +79,9 @@ import MMIOAddrs::*;
import MMIOCore::*;
import DramCommon::*;
import Performance::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import StatCounters::*;
`endif
// `endif
// ----------------
// From Tooba
@@ -180,7 +180,7 @@ module mkProc (Proc_IFC);
statReqs.deq;
endrule
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
Reg#(EventsTGC) events_tgc_reg <- mkRegU;
rule broadcastPerfEvents;
for(Integer j = 0; j < valueof(CoreNum); j = j+1) begin
@@ -188,7 +188,7 @@ module mkProc (Proc_IFC);
core[j].events_tgc(events_tgc_reg);
end
endrule
`endif
// `endif
// ================================================================
// Stub out deadlock and renameDebug interfaces
@@ -361,9 +361,9 @@ module mkProc (Proc_IFC);
interface v_to_TV = core [0].v_to_TV;
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method events_tgc = events_tgc_reg._write;
`endif
// `endif
endmodule: mkProc

View File

@@ -43,9 +43,9 @@ import Fabric_Defs :: *;
import SoC_Map :: *;
import CCTypes :: *;
import ProcTypes :: *;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import StatCounters::*;
`endif
// `endif
`ifdef INCLUDE_GDB_CONTROL
import DM_CPU_Req_Rsp :: *;
@@ -140,9 +140,9 @@ interface Proc_IFC;
interface Vector #(SupSize, Get #(Trace_Data2)) v_to_TV;
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method Action events_tgc(EventsTGC events);
`endif
// `endif
endinterface

View File

@@ -78,9 +78,9 @@ import CacheCore :: *;
// ----------------
// From RISCY-ooo
import ProcTypes :: *;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import StatCounters::*;
`endif
// `endif
// ----------------
// From Toooba
@@ -241,7 +241,7 @@ module mkCoreW_reset #(Reset porReset)
mkConnection (tagController.master, tag_controller_deburster.slave, reset_by all_harts_reset);
*/
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
rule report_tagController_events;
EventsCacheCore cache_core_evts = tagController.events;
EventsTGC evts = unpack(0);
@@ -256,7 +256,7 @@ module mkCoreW_reset #(Reset porReset)
`endif
proc.events_tgc(evts);
endrule
`endif
// `endif
// PLIC (Platform-Level Interrupt Controller)
PLIC_IFC_16_CoreNumX2_7 plic <- mkPLIC_16_CoreNumX2_7 (reset_by all_harts_reset);

View File

@@ -60,11 +60,11 @@ import Performance::*;
import LatencyTimer::*;
import RandomReplace::*;
import Prefetcher::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import PerformanceMonitor::*;
import BlueUtils::*;
import StatCounters::*;
`endif
// `endif
export ICRqStuck(..);
export IPRqStuck(..);
@@ -105,9 +105,9 @@ interface IBank#(
// performance
method Action setPerfStatus(Bool stats);
method Data getPerfData(L1IPerfType t);
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1I events;
`endif
// `endif
endinterface
module mkIBank#(
@@ -199,27 +199,27 @@ module mkIBank#(
LatencyTimer#(cRqNum, 10) latTimer <- mkLatencyTimer;
Count#(Bit#(32)) addedCRqs <- mkCount(0);
Count#(Bit#(32)) removedCRqs <- mkCount(0);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Reg#(Bool) doStats <- mkConfigReg(True);
Count#(Data) ldCnt <- mkCount(0);
Count#(Data) ldMissCnt <- mkCount(0);
Count#(Data) ldMissLat <- mkCount(0);
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
Array #(Reg #(EventsL1I)) perf_events <- mkDRegOR (2, unpack (0));
`endif
// `endif
function Action incrReqCnt;
action
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
ldCnt.incr(1);
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsL1I events = unpack (0);
events.evt_LD = 1;
perf_events[0] <= events;
`endif
// `endif
noAction;
endaction
endfunction
@@ -227,18 +227,18 @@ module mkIBank#(
function Action incrMissCnt(cRqIdxT idx);
action
let lat <- latTimer.done(idx);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
ldMissLat.incr(zeroExtend(lat));
ldMissCnt.incr(1);
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsL1I events = unpack (0);
events.evt_LD_MISS_LAT = saturating_truncate(lat);
events.evt_LD_MISS = 1;
perf_events[1] <= events;
`endif
// `endif
noAction;
endaction
endfunction
@@ -906,26 +906,26 @@ module mkIBank#(
`endif
method Action setPerfStatus(Bool stats);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
doStats <= stats;
`else
noAction;
`endif
// `else
// noAction;
// `endif
endmethod
method Data getPerfData(L1IPerfType t);
return (case(t)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
L1ILdCnt: ldCnt;
L1ILdMissCnt: ldMissCnt;
L1ILdMissLat: ldMissLat;
`endif
// `endif
default: 0;
endcase);
endmethod
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1I events = perf_events[0];
`endif
// `endif
endmodule

View File

@@ -63,11 +63,11 @@ import Performance::*;
import LatencyTimer::*;
import RandomReplace::*;
import Prefetcher::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import PerformanceMonitor::*;
import StatCounters::*;
import BlueUtils::*;
`endif
// `endif
export L1CRqStuck(..);
export L1PRqStuck(..);
@@ -111,9 +111,9 @@ interface L1Bank#(
// performance
method Action setPerfStatus(Bool stats);
method Data getPerfData(L1DPerfType t);
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1D events;
`endif
// `endif
endinterface
typedef struct {
@@ -207,7 +207,7 @@ module mkL1Bank#(
// performance
LatencyTimer#(cRqNum, 10) latTimer <- mkLatencyTimer; // max 1K cycle latency
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Reg#(Bool) doStats <- mkConfigReg(False);
Count#(Data) ldCnt <- mkCount(0);
Count#(Data) stCnt <- mkCount(0);
@@ -218,13 +218,13 @@ module mkL1Bank#(
Count#(Data) ldMissLat <- mkCount(0);
Count#(Data) stMissLat <- mkCount(0);
Count#(Data) amoMissLat <- mkCount(0);
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
Array #(Reg #(EventsL1D)) perf_events <- mkDRegOR (2, unpack (0));
`endif
// `endif
function Action incrReqCnt(MemOp op);
action
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
case(op)
Ld: ldCnt.incr(1);
@@ -232,8 +232,8 @@ action
Lr, Sc, Amo: amoCnt.incr(1);
endcase
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsL1D events = unpack (0);
case(op)
Ld: events.evt_LD = 1;
@@ -241,7 +241,7 @@ action
Lr, Sc, Amo: events.evt_AMO = 1;
endcase
perf_events[0] <= events;
`endif
// `endif
noAction;
endaction
endfunction
@@ -249,7 +249,7 @@ endfunction
function Action incrMissCnt(MemOp op, cRqIdxT idx);
action
let lat <- latTimer.done(idx);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
case(op)
Ld: begin
@@ -266,8 +266,8 @@ action
end
endcase
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsL1D events = unpack (0);
case(op)
Ld: begin
@@ -284,7 +284,7 @@ action
end
endcase
perf_events[1] <= events;
`endif
// `endif
noAction;
endaction
endfunction
@@ -1233,16 +1233,16 @@ endfunction
`endif
method Action setPerfStatus(Bool stats);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
doStats <= stats;
`else
noAction;
`endif
// `else
// noAction;
// `endif
endmethod
method Data getPerfData(L1DPerfType t);
return (case(t)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
L1DLdCnt: ldCnt;
L1DStCnt: stCnt;
L1DAmoCnt: amoCnt;
@@ -1252,13 +1252,13 @@ endfunction
L1DLdMissLat: ldMissLat;
L1DStMissLat: stMissLat;
L1DAmoMissLat: amoMissLat;
`endif
// `endif
default: 0;
endcase);
endmethod
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1D events = perf_events[0];
`endif
// `endif
endmodule
@@ -1495,7 +1495,7 @@ module mkL1Cache#(
end
return fold(\+ , d);
endmethod
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1D events;
EventsL1D ret = unpack(0);
for(Integer i = 0; i < valueof(bankNum); i = i+1) begin
@@ -1503,5 +1503,5 @@ module mkL1Cache#(
end
return ret;
endmethod
`endif
// `endif
endmodule

View File

@@ -55,11 +55,11 @@ import ConfigReg::*;
import RandomReplace::*;
import Prefetcher::*;
import ProcTypes::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import PerformanceMonitor::*;
import StatCounters::*;
import BlueUtils::*;
`endif
// `endif
export LLCRqStuck(..);
export LLBank(..);
@@ -111,9 +111,9 @@ interface LLBank#(
// performance
method Action setPerfStatus(Bool stats);
method Data getPerfData(LLCPerfType t);
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsLL events;
`endif
// `endif
endinterface
typedef struct {
@@ -241,7 +241,7 @@ module mkLLBank#(
PrefetcherVector#(TDiv#(childNum, 2)) dataPrefetchers <- mkPrefetcherVector(mkLLDPrefetcher);
PrefetcherVector#(TDiv#(childNum, 2)) instrPrefetchers <- mkPrefetcherVector(mkLLIPrefetcher);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Reg#(Bool) doStats <- mkConfigReg(True);
Count#(Data) dmaMemLdCnt <- mkCount(0);
Count#(Data) dmaMemLdLat <- mkCount(0);
@@ -257,14 +257,14 @@ module mkLLBank#(
Count#(Data) upRespDataCnt <- mkCount(0);
Count#(Data) dmaLdReqCnt <- mkCount(0);
Count#(Data) dmaStReqCnt <- mkCount(0);
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
Array #(Reg #(EventsLL)) perf_events <- mkDRegOR (2, unpack (0));
`endif
// `endif
function Action incrMissCnt(cRqIndexT idx, Bool isDma, Bool isInstructionAccess);
action
let lat <- latTimer.done(idx);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
if(isDma) begin
dmaMemLdCnt.incr(1);
@@ -279,13 +279,13 @@ action
normalMemLdLat.incr(zeroExtend(lat));
end
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsLL events = unpack (0);
events.evt_LD_MISS_LAT = saturating_truncate(lat); // Don't support seperate DMA counts.
events.evt_LD_MISS = 1;
perf_events[1] <= events;
`endif
// `endif
endaction
endfunction
@@ -485,7 +485,7 @@ endfunction
);
endrule
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf stats: insert new cRq fails because of full MSHR
rule cRqTransfer_new_child_block(
!cRqRetryIndexQ.notEmpty && newCRqSrc == Valid (Child) && doStats
@@ -504,7 +504,7 @@ endfunction
mshrBlocks.incr(1);
end
endrule
`endif
// `endif
// insert new cRq from DMA to MSHR and send to pipeline
rule cRqTransfer_new_dma(!cRqRetryIndexQ.notEmpty && newCRqSrc == Valid (Dma));
@@ -536,7 +536,7 @@ endfunction
fshow(r), " ; ",
fshow(cRq)
);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
if(write) begin
dmaStReqCnt.incr(1);
@@ -545,10 +545,10 @@ endfunction
dmaLdReqCnt.incr(1);
end
end
`endif
// `endif
endrule
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf stats: insert new cRq fails because of full MSHR
rule cRqTransfer_new_dma_block(
!cRqRetryIndexQ.notEmpty && newCRqSrc == Valid (Dma) && doStats
@@ -568,7 +568,7 @@ endfunction
mshrBlocks.incr(1);
end
endrule
`endif
// `endif
// send downgrade resp from child to pipeline
rule cRsTransfer;
@@ -577,14 +577,14 @@ endfunction
pipeline.send(CRs (cRs));
if (verbose)
$display("%t LL %m cRsTransfer: ", $time, fshow(cRs));
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
downRespCnt.incr(1);
if(isValid(cRs.data)) begin
downRespDataCnt.incr(1);
end
end
`endif
// `endif
endrule
rule discardPrefetchRqResult(rsToCIndexQ.notEmpty && cRqIsPrefetch[rsToCIndexQ.first.cRqId]);
@@ -596,14 +596,14 @@ endfunction
// mem resp for child req, will refill cache, send it to pipeline
(* descending_urgency = "mRsTransfer, cRsTransfer, discardPrefetchRqResult, cRqTransfer_retry, cRqTransfer_new_child, cRqTransfer_new_dma, createInstrPrefetchRq, createDataPrefetchRq" *)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// stop mshr block stats when other higher priority req is being sent to
// pipeline
(* preempts = "mRsTransfer, cRqTransfer_new_child_block" *)
(* preempts = "mRsTransfer, cRqTransfer_new_dma_block" *)
(* preempts = "cRsTransfer, cRqTransfer_new_child_block" *)
(* preempts = "cRsTransfer, cRqTransfer_new_dma_block" *)
`endif
// `endif
rule mRsTransfer(rsFromMQ.first.id.refill);
// get mem resp cRq index & data
rsFromMQ.deq;
@@ -742,11 +742,11 @@ endfunction
toMQ.enq(msg);
// don't deq info, do ld next time
doLdAfterReplace <= True;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
EventsLL events = unpack (0);
events.evt_ST_MISS = 1;
perf_events[0] <= events;
`endif
// `endif
if (verbose)
$display("%t LL %m sendToM: rep then ld: rep: ", $time, fshow(msg));
end
@@ -832,14 +832,14 @@ endfunction
}));
// release MSHR entry
cRqMshr.sendRsToDmaC.releaseEntry(n);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
upRespCnt.incr(1);
if(isValid(rsData)) begin
upRespDataCnt.incr(1);
end
end
`endif
// `endif
endrule
// send downgrade req to child
@@ -930,11 +930,11 @@ endfunction
);
// change round-robin
whichCRq <= whichCRq == fromInteger(valueOf(cRqNum) - 1) ? 0 : whichCRq + 1;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
downReqCnt.incr(1);
end
`endif
// `endif
endrule
// Final stage of pipeline: process all kinds of msg
@@ -1657,16 +1657,16 @@ endfunction
endinterface
method Action setPerfStatus(Bool stats);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
doStats <= stats;
`else
noAction;
`endif
// `else
// noAction;
// `endif
endmethod
method Data getPerfData(LLCPerfType t);
return (case(t)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
LLCDmaMemLdCnt: dmaMemLdCnt;
LLCDmaMemLdLat: dmaMemLdLat;
LLCNormalMemLdCnt: normalMemLdCnt;
@@ -1681,13 +1681,13 @@ endfunction
LLCUpRespDataCnt: upRespDataCnt;
LLCDmaLdReqCnt: dmaLdReqCnt;
LLCDmaStReqCnt: dmaStReqCnt;
`endif
// `endif
default: 0;
endcase);
endmethod
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsLL events = perf_events[0];
`endif
// `endif
endmodule
// Scheduling notes

View File

@@ -160,7 +160,7 @@ module mkSelfInvIBank#(
Fifo#(1, DebugICacheResp) cRqDoneQ <- mkBypassFifo;
`endif
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Reg#(Bool) doStats <- mkConfigReg(False);
Count#(Data) ldCnt <- mkCount(0);
Count#(Data) ldMissCnt <- mkCount(0);
@@ -186,7 +186,7 @@ module mkSelfInvIBank#(
end
endaction
endfunction
`endif
// `endif
function tagT getTag(Addr a) = truncateLSB(a);
@@ -210,10 +210,10 @@ module mkSelfInvIBank#(
}));
// enq to indexQ for in order resp
cRqIndexQ.enq(n);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter: cRq type
incrReqCnt;
`endif
// `endif
if (verbose)
$display("%t I %m cRqTransfer: ", $time,
fshow(n), " ; ",
@@ -267,10 +267,10 @@ module mkSelfInvIBank#(
fshow(slot), " ; ",
fshow(cRqToP)
);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter: start miss timer
latTimer.start(n);
`endif
// `endif
endrule
// last stage of pipeline: process req
@@ -475,10 +475,10 @@ module mkSelfInvIBank#(
"pRs must be a hit"
);
cRqHit(cOwner, procRq);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter: miss cRq
incrMissCnt(cOwner);
`endif
// `endif
end
else begin
doAssert(False, ("pRs owner must match some cRq"));
@@ -498,11 +498,11 @@ module mkSelfInvIBank#(
waitReconcileDone <= True;
if (verbose)
$display("%t I %m startReconcile", $time);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
reconcileCnt.incr(1);
end
`endif
// `endif
endrule
rule completeReconcile(needReconcile && waitReconcileDone && pipeline.reconcile_done);
needReconcile <= False;
@@ -573,21 +573,21 @@ module mkSelfInvIBank#(
endmethod
method Action setPerfStatus(Bool stats);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
doStats <= stats;
`else
noAction;
`endif
// `else
// noAction;
// `endif
endmethod
method Data getPerfData(L1IPerfType t);
return (case(t)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
L1ILdCnt: ldCnt;
L1ILdMissCnt: ldMissCnt;
L1ILdMissLat: ldMissLat;
L1IReconcileCnt: reconcileCnt;
`endif
// `endif
default: 0;
endcase);
endmethod

View File

@@ -211,7 +211,7 @@ module mkSelfInvL1Bank#(
Reg#(Bool) waitReconcileDone <- mkReg(False);
// performance
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Reg#(Bool) doStats <- mkConfigReg(False);
Count#(Data) ldCnt <- mkCount(0);
Count#(Data) stCnt <- mkCount(0);
@@ -260,7 +260,7 @@ module mkSelfInvL1Bank#(
end
endaction
endfunction
`endif
// `endif
function tagT getTag(Addr a) = truncateLSB(a);
@@ -296,10 +296,10 @@ module mkSelfInvL1Bank#(
addr: r.addr,
mshrIdx: n
}));
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter: cRq type
incrReqCnt(r.op);
`endif
// `endif
if (verbose)
$display("%t L1 %m cRqTransfer_new: ", $time,
fshow(n), " ; ",
@@ -422,10 +422,10 @@ module mkSelfInvL1Bank#(
fshow(cRqToP)
);
doAssert(slot.cs == I, "we always self-inv before req to parent");
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter: start miss timer
latTimer.start(n);
`endif
// `endif
endrule
// last stage of pipeline: process req
@@ -550,11 +550,11 @@ module mkSelfInvL1Bank#(
);
// release MSHR entry
cRqMshr.pipelineResp.releaseEntry(n);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats && needSelfInv) begin
selfInvCnt.incr(1);
end
`endif
// `endif
end
else begin
processAmo <= Valid (AmoHitInfo {
@@ -871,10 +871,10 @@ module mkSelfInvL1Bank#(
("pRs must be a hit")
);
cRqHit(cOwner, procRq, True);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter: miss cRq
incrMissCnt(procRq.op, cOwner);
`endif
// `endif
end
else begin
doAssert(False, ("pRs owner must match some cRq"));
@@ -966,11 +966,11 @@ module mkSelfInvL1Bank#(
waitReconcileDone <= True;
if (verbose)
$display("%t L1 %m startReconcile", $time);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
reconcileCnt.incr(1);
end
`endif
// `endif
endrule
rule completeReconcile(needReconcile && waitReconcileDone && pipeline.reconcile_done);
needReconcile <= False;
@@ -1021,16 +1021,16 @@ module mkSelfInvL1Bank#(
endmethod
method Action setPerfStatus(Bool stats);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
doStats <= stats;
`else
noAction;
`endif
// `else
// noAction;
// `endif
endmethod
method Data getPerfData(L1DPerfType t);
return (case(t)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
L1DLdCnt: ldCnt;
L1DStCnt: stCnt;
L1DAmoCnt: amoCnt;
@@ -1042,7 +1042,7 @@ module mkSelfInvL1Bank#(
L1DAmoMissLat: amoMissLat;
L1DSelfInvCnt: selfInvCnt;
L1DReconcileCnt: reconcileCnt;
`endif
// `endif
default: 0;
endcase);
endmethod

View File

@@ -213,7 +213,7 @@ module mkSelfInvLLBank#(
`endif
// performance
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Reg#(Bool) doStats <- mkConfigReg(False);
Count#(Data) dmaMemLdCnt <- mkCount(0);
Count#(Data) dmaMemLdLat <- mkCount(0);
@@ -245,7 +245,7 @@ module mkSelfInvLLBank#(
end
endaction
endfunction
`endif
// `endif
function tagT getTag(Addr a) = truncateLSB(a);
@@ -373,7 +373,7 @@ module mkSelfInvLLBank#(
);
endrule
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf stats: insert new cRq fails because of full MSHR
rule cRqTransfer_new_child_block(
!cRqRetryIndexQ.notEmpty && newCRqSrc == Valid (Child) && doStats
@@ -392,7 +392,7 @@ module mkSelfInvLLBank#(
mshrBlocks.incr(1);
end
endrule
`endif
// `endif
// insert new cRq from DMA to MSHR and send to pipeline
rule cRqTransfer_new_dma(!cRqRetryIndexQ.notEmpty && newCRqSrc == Valid (Dma));
@@ -422,7 +422,7 @@ module mkSelfInvLLBank#(
fshow(r), " ; ",
fshow(cRq)
);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
if(write) begin
dmaStReqCnt.incr(1);
@@ -431,10 +431,10 @@ module mkSelfInvLLBank#(
dmaLdReqCnt.incr(1);
end
end
`endif
// `endif
endrule
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf stats: insert new cRq fails because of full MSHR
rule cRqTransfer_new_dma_block(
!cRqRetryIndexQ.notEmpty && newCRqSrc == Valid (Dma) && doStats
@@ -454,7 +454,7 @@ module mkSelfInvLLBank#(
mshrBlocks.incr(1);
end
endrule
`endif
// `endif
// send downgrade resp from child to pipeline
rule cRsTransfer;
@@ -462,26 +462,26 @@ module mkSelfInvLLBank#(
cRsFromCT cRs = rsFromCQ.first;
pipeline.send(CRs (cRs));
$display("%t LL %m cRsTransfer: ", $time, fshow(cRs));
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
downRespCnt.incr(1);
if(isValid(cRs.data)) begin
downRespDataCnt.incr(1);
end
end
`endif
// `endif
endrule
// mem resp for child req, will refill cache, send it to pipeline
(* descending_urgency = "mRsTransfer, cRsTransfer, cRqTransfer_retry, cRqTransfer_new_child, cRqTransfer_new_dma" *)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// stop mshr block stats when other higher priority req is being sent to
// pipeline
(* preempts = "mRsTransfer, cRqTransfer_new_child_block" *)
(* preempts = "mRsTransfer, cRqTransfer_new_dma_block" *)
(* preempts = "cRsTransfer, cRqTransfer_new_child_block" *)
(* preempts = "cRsTransfer, cRqTransfer_new_dma_block" *)
`endif
// `endif
rule mRsTransfer(rsFromMQ.first.id.refill);
// get mem resp cRq index & data
rsFromMQ.deq;
@@ -504,10 +504,10 @@ module mkSelfInvLLBank#(
fshow(cRq), " ; ",
fshow(cSlot), " ; "
);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter: normal miss lat and cnt
incrMissCnt(n, False);
`endif
// `endif
endrule
// this mem resp is just for a DMA req, won't go into pipeline to refill cache
@@ -518,10 +518,10 @@ module mkSelfInvLLBank#(
// save data into cRq mshr & send to DMA resp IndexQ
cRqMshr.mRsDeq.setData(mRs.id.mshrIdx, Valid (mRs.data));
rsLdToDmaIndexQ_mRsDeq.enq(mRs.id.mshrIdx);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter: dma miss lat and cnt
incrMissCnt(mRs.id.mshrIdx, True);
`endif
// `endif
endrule
// send rd/wr to mem
@@ -558,10 +558,10 @@ module mkSelfInvLLBank#(
$display("%t LL %m sendToM: load only: ", $time, fshow(msg));
doAssert(!isValid(data), "cannot have data");
doAssert(!doLdAfterReplace, "doLdAfterReplace should be false");
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter: start miss timer
latTimer.start(n);
`endif
// `endif
`ifdef DEBUG_DMA
if(cRq.id matches tagged Dma .dmaId) begin
dmaRdMissQ.enq(dmaId); // DMA read takes effect
@@ -603,10 +603,10 @@ module mkSelfInvLLBank#(
toMInfoQ.deq;
doLdAfterReplace <= False;
$display("%t LL %m sendToM: rep then ld: ld: ", $time, fshow(msg));
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter: start miss timer
latTimer.start(n);
`endif
// `endif
end
else begin // do write back part
toMemT msg = Wb (WbMemRs {
@@ -698,14 +698,14 @@ module mkSelfInvLLBank#(
}));
// release MSHR entry
cRqMshr.sendRsToDmaC.releaseEntry(n);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
upRespCnt.incr(1);
if(isValid(rsData)) begin
upRespDataCnt.incr(1);
end
end
`endif
// `endif
endrule
// send downgrade req to child
@@ -787,11 +787,11 @@ module mkSelfInvLLBank#(
);
// change round-robin
whichCRq <= whichCRq == fromInteger(valueOf(cRqNum) - 1) ? 0 : whichCRq + 1;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
downReqCnt.incr(1);
end
`endif
// `endif
endrule
// Final stage of pipeline: process all kinds of msg
@@ -1417,16 +1417,16 @@ module mkSelfInvLLBank#(
endinterface
method Action setPerfStatus(Bool stats);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
doStats <= stats;
`else
noAction;
`endif
// `else
// noAction;
// `endif
endmethod
method Data getPerfData(LLCPerfType t);
return (case(t)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
LLCDmaMemLdCnt: dmaMemLdCnt;
LLCDmaMemLdLat: dmaMemLdLat;
LLCNormalMemLdCnt: normalMemLdCnt;
@@ -1439,7 +1439,7 @@ module mkSelfInvLLBank#(
LLCUpRespDataCnt: upRespDataCnt;
LLCDmaLdReqCnt: dmaLdReqCnt;
LLCDmaStReqCnt: dmaStReqCnt;
`endif
// `endif
default: 0;
endcase);
endmethod

View File

@@ -64,11 +64,11 @@ import Bypass::*;
import CHERICap::*;
import CHERICC_Fat::*;
import ISA_Decls_CHERI::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import BlueUtils::*;
import StatCounters::*;
import DReg::*;
`endif
// `endif
import Cur_Cycle :: *;
@@ -220,14 +220,14 @@ interface AluExeInput;
// performance
method Bool doStats;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
// check previous branch targets
method Bool checkTarget(CapMem ppc);
// check (previous) return targets
method Bool checkReturnTarget(CapMem ppc);
`endif
`endif
// `endif
endinterface
interface AluExePipeline;
@@ -237,11 +237,11 @@ interface AluExePipeline;
interface SpeculationUpdate specUpdate;
method Data getPerf(ExeStagePerfType t);
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
method EventsTransExe events;
`endif
`endif
// `endif
endinterface
module mkAluExePipeline#(AluExeInput inIfc)(AluExePipeline);
@@ -260,18 +260,18 @@ module mkAluExePipeline#(AluExeInput inIfc)(AluExePipeline);
Integer exeSendBypassPort = 0;
Integer finishSendBypassPort = 1;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
Array#(Reg#(EventsTransExe)) events_reg <- mkDRegOR(2, unpack(0));
`endif
`endif
// `endif
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counters
Count#(Data) exeRedirectBrCnt <- mkCount(0);
Count#(Data) exeRedirectJrCnt <- mkCount(0);
Count#(Data) exeRedirectOtherCnt <- mkCount(0);
`endif
// `endif
rule doDispatchAlu;
rsAlu.doDispatch;
@@ -336,7 +336,7 @@ module mkAluExePipeline#(AluExeInput inIfc)(AluExePipeline);
let ppc = inIfc.rob_getPredPC(x.tag);
let orig_inst = inIfc.rob_getOrig_Inst (x.tag);
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
let ppc_addr = getAddr(ppc);
let pc_addr = getAddr(pc);
@@ -361,7 +361,7 @@ module mkAluExePipeline#(AluExeInput inIfc)(AluExePipeline);
end
end
`endif
`endif
// `endif
`ifdef KONATA
$display("KONATAE\t%0d\t%0d\t0\tAlu1", cur_cycle, x.u_id);
@@ -511,7 +511,7 @@ module mkAluExePipeline#(AluExeInput inIfc)(AluExePipeline);
$display("KONATAS\t%0d\t%0d\t0\tAlu4\t%0d", cur_cycle, x.u_id, cur_cycle);
$fflush;
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
// get PC and PPC
let pc = getAddr(x.controlFlow.pc);
@@ -523,7 +523,7 @@ module mkAluExePipeline#(AluExeInput inIfc)(AluExePipeline);
events_reg[0] <= events;
end
`endif
`endif
// `endif
let train_spec_bits = 0;
`ifdef NO_SPEC_TRAINING
@@ -554,7 +554,7 @@ module mkAluExePipeline#(AluExeInput inIfc)(AluExePipeline);
if (verbose)
$display("alu mispredict pc: %x, nextPc: %x, %d",
x.controlFlow.pc, x.controlFlow.nextPc, cur_cycle);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter
if(inIfc.doStats) begin
case(x.iType)
@@ -563,7 +563,7 @@ module mkAluExePipeline#(AluExeInput inIfc)(AluExePipeline);
default: exeRedirectOtherCnt.incr(1);
endcase
end
`endif
// `endif
end
else (* nosplit *) begin
// release spec tag
@@ -603,19 +603,19 @@ module mkAluExePipeline#(AluExeInput inIfc)(AluExePipeline);
method Data getPerf(ExeStagePerfType t);
return (case(t)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
ExeRedirectBr: exeRedirectBrCnt;
ExeRedirectJr: exeRedirectJrCnt;
ExeRedirectOther: exeRedirectOtherCnt;
`endif
// `endif
default: 0;
endcase);
endmethod
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
method events = events_reg[0];
`endif
`endif
// `endif
endmodule

View File

@@ -66,9 +66,9 @@ import CHERICap::*;
import CHERICC_Fat::*;
import ISA_Decls_CHERI::*;
import RegFile::*; // Just for the interface
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import StatCounters::*;
`endif
// `endif
`ifdef RVFI
import RVFI_DII_Types::*;
@@ -151,14 +151,14 @@ interface CommitInput;
// deadlock check
method Bool checkDeadlock;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
// update branch targets
method Action updateTargets(Vector#(SupSize, Maybe#(CapMem)) targets);
// update return targets
method Action updateReturnTargets(Vector#(SupSize, Maybe#(CapMem)) returnTargets);
`endif
`endif
// `endif
`ifdef INCLUDE_TANDEM_VERIF
interface Vector #(SupSize, Put #(Trace_Data2)) v_to_TV;
@@ -197,9 +197,9 @@ interface CommitStage;
method Bool is_debug_halted;
method Action debug_resume;
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsCore events;
`endif
// `endif
endinterface
// we apply actions the end of commit rule
@@ -422,7 +422,7 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
end
// commit stage performance counters
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// inst
Count#(Data) instCnt <- mkCount(0);
Count#(Data) userInstCnt <- mkCount(0);
@@ -451,11 +451,11 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
Count#(Data) flushSecurityCnt <- mkCount(0);
Count#(Data) flushBPCnt <- mkCount(0);
Count#(Data) flushCacheCnt <- mkCount(0);
`endif
// `endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
Reg#(EventsCore) events_reg <- mkDReg(unpack(0));
`endif
// `endif
`ifdef RVFI
// RVFI trace report. Not an input?
@@ -568,11 +568,11 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
if(flushTlb) begin
`endif
inIfc.setFlushTlbs;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
flushTlbCnt.incr(1);
end
`endif
// `endif
end
// notify TLB to keep update of CSR changes
inIfc.setUpdateVMInfo;
@@ -596,28 +596,28 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
// valid because these wrong path inst/req will not interfere with
// whatever CSR changes we are making now.
if(flushSecurity) begin
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
flushSecurityCnt.incr(1);
end
`endif
// `endif
`ifndef DISABLE_SECURE_FLUSH_BP
inIfc.setFlushBrPred;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
flushBPCnt.incr(1);
end
`endif
// `endif
`endif
`ifndef DISABLE_SECURE_FLUSH_CACHE
inIfc.setFlushCaches;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
flushCacheCnt.incr(1);
end
`endif
// `endif
`endif
end
@@ -734,7 +734,7 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
// faulting mem inst may have claimed phy reg, we should not commit it;
// instead, we kill the renaming by calling killAll
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter
if(inIfc.doStats) begin
if(trap matches tagged Exception .e) begin
@@ -744,15 +744,15 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
interruptCnt.incr(1);
end
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsCore events = unpack(0);
events.evt_TRAP = 1;
if(trap matches tagged Interrupt .i) begin
events.evt_INTERRUPT = 1;
end
events_reg <= events;
`endif
// `endif
// checks
doAssert(x.rob_inst_state == Executed, "must be executed");
doAssert(x.spec_bits == 0, "cannot have spec bits");
@@ -873,7 +873,7 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
// the killed Ld should have claimed phy reg, we should not commit it;
// instead, we have kill the renaming by calling killAll
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
case(killBy)
Ld: comLdKillByLdCnt.incr(1);
@@ -881,7 +881,7 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
Cache: comLdKillByCacheCnt.incr(1);
endcase
end
`endif
// `endif
// checks
doAssert(!x.epochIncremented, "cannot increment epoch before");
@@ -1027,7 +1027,7 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
$fflush;
printCommits[0][1] <= tagged Valid x.u_id;
`endif
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
comSysCnt.incr(1);
// inst count stats
@@ -1036,14 +1036,14 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
userInstCnt.incr(1);
end
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsCore events = unpack(0);
case(x.iType)
Fence, FenceI, SFence: events.evt_FENCE = 1;
endcase
events_reg <= events;
`endif
// `endif
`ifdef CHECK_DEADLOCK
commitInst.send;
if(csrf.decodeInfo.prv == 0) begin
@@ -1148,22 +1148,22 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
Data po_mstatus = ?;
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
// update targets vector
Vector#(SupSize, Maybe#(CapMem)) targets;
// update return targets vector
Vector#(SupSize, Maybe#(CapMem)) returnTargets;
`endif
`endif
// `endif
// compute what actions to take
for(Integer i = 0; i < valueof(SupSize); i = i+1) begin
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
Maybe#(CapMem) tar = tagged Invalid;
Maybe#(CapMem) retTar = tagged Invalid;
`endif
`endif
// `endif
if(!stop && rob.deqPort[i].canDeq) begin
let x = rob.deqPort[i].deq_data;
let inst_tag = rob.deqPort[i].getDeqInstTag;
@@ -1207,7 +1207,7 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
// inst can be committed, deq it
rob.deqPort[i].deq;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
// return address stack link reg is x1 or x5
function Bool linkedR(Maybe#(ArchRIndx) register);
@@ -1230,7 +1230,7 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
end
end
`endif
`endif
// `endif
// every inst here should have been renamed, commit renaming
regRenamingTable.commit[i].commit;
@@ -1328,12 +1328,12 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
`endif
end
end
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
targets[i] = tar;
returnTargets[i] = retTar;
`endif
`endif
// `endif
end
rg_serial_num <= rg_serial_num + instret;
@@ -1359,7 +1359,7 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
end
`endif
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter
if(inIfc.doStats) begin
// branch stats
@@ -1379,8 +1379,8 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
supComUserCnt.incr(1);
end
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsCore events = unpack(0);
events.evt_BRANCH = zeroExtend(brCnt);
events.evt_JAL = zeroExtend(jmpCnt);
@@ -1400,7 +1400,7 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
inIfc.updateTargets(targets);
inIfc.updateReturnTargets(returnTargets);
`endif
`endif
// `endif
`ifdef RVFI
rvfiQ.enq(rvfis);
@@ -1446,7 +1446,7 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
method Data getPerf(ComStagePerfType t);
return (case(t)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
InstCnt: instCnt;
UserInstCnt: userInstCnt;
SupComUserCnt: supComUserCnt;
@@ -1468,7 +1468,7 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
FlushSecurityCnt: flushSecurityCnt;
FlushBPCnt: flushBPCnt;
FlushCacheCnt: flushCacheCnt;
`endif
// `endif
default: 0;
endcase);
endmethod
@@ -1509,8 +1509,8 @@ module mkCommitStage#(CommitInput inIfc)(CommitStage);
endmethod
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method events = events_reg;
`endif
// `endif
endmodule

View File

@@ -165,9 +165,9 @@ interface FetchStage;
// performance
interface Perf#(DecStagePerfType) perf;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method Bool redirect_evt;
`endif
// `endif
endinterface
// PC "compression" types to facilitate storing common upper PC bits in a
@@ -471,7 +471,7 @@ module mkFetchStage(FetchStage);
// performance counters
Fifo#(1, DecStagePerfType) perfReqQ <- mkCFFifo; // perf req FIFO
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Reg#(Bool) doStats <- mkConfigReg(False);
// decode stage redirect
Count#(Data) decRedirectBrCnt <- mkCount(0);
@@ -495,10 +495,10 @@ module mkFetchStage(FetchStage);
data: d
});
endrule
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
Reg#(Bool) redirect_evt_reg <- mkDReg(False);
`endif
// `endif
`ifdef KONATA
Reg#(Bit#(64)) uid <- mkReg(0);
Reg#(Bool) k_reset <- mkReg(True);
@@ -856,11 +856,11 @@ module mkFetchStage(FetchStage);
`endif
Maybe#(TrainNAP) trainNAP = Invalid; // training data sent to next addr pred
Bool decode_epoch_local = decode_epoch[0]; // next value for decode epoch
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter: inst being redirect by decode stage
// Note that only 1 redirection may happen in a cycle
Maybe#(IType) redirectInst = Invalid;
`endif
// `endif
Bool likely_epoch_change = False;
Maybe#(CapMem) m_push_addr = Invalid;
for (Integer i = 0; i < valueof(SupSize); i=i+1) begin
@@ -977,11 +977,11 @@ module mkFetchStage(FetchStage);
// train next addr pred when mispredict
let last_x16_pc = addPc(pc, ((in.inst_kind == Inst_32b) ? 2 : 0));
trainNAP = Valid (TrainNAP {pc: last_x16_pc, nextPc: decode_pred_next_pc});
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance stats: record decode redirect
doAssert(redirectInst == Invalid, "at most 1 decode redirect per cycle");
redirectInst = Valid (dInst.iType);
`endif
// `endif
end
end // if (!isValid(cause))
if (isValid(m_push_addr)) trainInfo.ras = trainInfo.ras + 1;
@@ -1049,7 +1049,7 @@ module mkFetchStage(FetchStage);
if (trainNAP matches tagged Valid .x) begin
napTrainByDecQ.enq(x);
end
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// performance counter: check whether redirect happens
if(redirectInst matches tagged Valid .iType &&& doStats) begin
case(iType)
@@ -1059,7 +1059,7 @@ module mkFetchStage(FetchStage);
default: decRedirectOtherCnt.incr(1);
endcase
end
`endif
// `endif
endrule
rule reportDecodePc;
@@ -1143,9 +1143,9 @@ module mkFetchStage(FetchStage);
// this redirect may be caused by a trap/system inst in commit stage
// we conservatively set wait for flush TODO make this an input parameter
waitForFlush[2] <= True;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
redirect_evt_reg <= True;
`endif
// `endif
execute_redirect_count <= execute_redirect_count + 1;
endmethod
@@ -1222,11 +1222,11 @@ module mkFetchStage(FetchStage);
interface Perf perf;
method Action setStatus(Bool stats);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
doStats <= stats;
`else
noAction;
`endif
// `else
// noAction;
// `endif
endmethod
method Action req(DecStagePerfType r);
@@ -1234,26 +1234,26 @@ module mkFetchStage(FetchStage);
endmethod
method ActionValue#(PerfResp#(DecStagePerfType)) resp;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
perfRespQ.deq;
return perfRespQ.first;
`else
perfReqQ.deq;
return PerfResp {
pType: perfReqQ.first,
data: 0
};
`endif
// `else
// perfReqQ.deq;
// return PerfResp {
// pType: perfReqQ.first,
// data: 0
// };
// `endif
endmethod
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
method Bool respValid = perfRespQ.notEmpty;
`else
method Bool respValid = perfReqQ.notEmpty;
`endif
// `else
// method Bool respValid = perfReqQ.notEmpty;
// `endif
endinterface
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method Bool redirect_evt = redirect_evt_reg._read;
`endif
// `endif
endmodule

View File

@@ -172,13 +172,13 @@ module mkFpuMulDivExePipeline#(FpuMulDivExeInput inIfc)(FpuMulDivExePipeline);
FpuExec fpuExec <- mkFpuExecPipeline;
// fpu/mul/div performance counters
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Count#(Data) exeIntMulCnt <- mkCount(0);
Count#(Data) exeIntDivCnt <- mkCount(0);
Count#(Data) exeFpFmaCnt <- mkCount(0);
Count#(Data) exeFpDivCnt <- mkCount(0);
Count#(Data) exeFpSqrtCnt <- mkCount(0);
`endif
// `endif
rule doDispatchFpuMulDiv;
rsFpuMulDiv.doDispatch;
@@ -345,11 +345,11 @@ module mkFpuMulDivExePipeline#(FpuMulDivExeInput inIfc)(FpuMulDivExePipeline);
`else
doFinish(resp.dst, resp.tag, resp.res.data, resp.res.fflags);
`endif
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
exeFpFmaCnt.incr(1);
end
`endif
// `endif
endrule
rule doFinishFpDiv;
@@ -360,11 +360,11 @@ module mkFpuMulDivExePipeline#(FpuMulDivExeInput inIfc)(FpuMulDivExePipeline);
`else
doFinish(resp.dst, resp.tag, resp.res.data, resp.res.fflags);
`endif
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
exeFpDivCnt.incr(1);
end
`endif
// `endif
endrule
rule doFinishFpSqrt;
@@ -375,11 +375,11 @@ module mkFpuMulDivExePipeline#(FpuMulDivExeInput inIfc)(FpuMulDivExePipeline);
`else
doFinish(resp.dst, resp.tag, resp.res.data, resp.res.fflags);
`endif
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
exeFpSqrtCnt.incr(1);
end
`endif
// `endif
endrule
rule doFinishIntMul;
@@ -390,11 +390,11 @@ module mkFpuMulDivExePipeline#(FpuMulDivExeInput inIfc)(FpuMulDivExePipeline);
`else
doFinish(resp.dst, resp.tag, resp.data, 0);
`endif
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
exeIntMulCnt.incr(1);
end
`endif
// `endif
endrule
rule doFinishIntDiv;
@@ -405,11 +405,11 @@ module mkFpuMulDivExePipeline#(FpuMulDivExeInput inIfc)(FpuMulDivExePipeline);
`else
doFinish(resp.dst, resp.tag, resp.data, 0);
`endif
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
exeIntDivCnt.incr(1);
end
`endif
// `endif
endrule
interface recvBypass = map(getRecvBypassDataIfc, bypassWire);
@@ -426,13 +426,13 @@ module mkFpuMulDivExePipeline#(FpuMulDivExeInput inIfc)(FpuMulDivExePipeline);
method Data getPerf(ExeStagePerfType t);
return (case(t)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
ExeIntMulCnt: exeIntMulCnt;
ExeIntDivCnt: exeIntDivCnt;
ExeFpFmaCnt: exeFpFmaCnt;
ExeFpDivCnt: exeFpDivCnt;
ExeFpSqrtCnt: exeFpSqrtCnt;
`endif
// `endif
default: 0;
endcase);
endmethod

View File

@@ -75,12 +75,12 @@ import CHERICap::*;
import CHERICC_Fat::*;
import ISA_Decls_CHERI::*;
import CacheUtils::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import PerformanceMonitor::*;
import BlueUtils::*;
import StatCounters::*;
import DReg::*;
`endif
// `endif
import Cur_Cycle :: *;
@@ -241,12 +241,12 @@ interface MemExeInput;
// performance
method Bool doStats;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
method CapMem rob_getPredPC(InstTag t);
method Bit #(32) rob_getOrig_Inst (InstTag t);
`endif
`endif
// `endif
endinterface
interface MemExePipeline;
@@ -262,12 +262,12 @@ interface MemExePipeline;
interface Server#(void, void) reconcile;
`endif
method Data getPerf(ExeStagePerfType t);
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsCore events;
`ifdef CONTRACTS_VERIFY
method EventsTransExe events_trans;
`endif
`endif
// `endif
endinterface
module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
@@ -281,7 +281,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
// These are always included as they are used by both stat counter systems.
LatencyTimer#(LdQSize, 10) ldMemLatTimer <- mkLatencyTimer;
LatencyTimer#(SBSize, 10) stMemLatTimer <- mkLatencyTimer;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// load issue stall
Count#(Data) exeLdStallByLdCnt <- mkCount(0);
Count#(Data) exeLdStallByStCnt <- mkCount(0);
@@ -305,14 +305,14 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
Count#(Data) exeFenceCnt <- mkCount(0);
Count#(Data) exeFenceAcqCnt <- mkCount(0);
Count#(Data) exeFenceRelCnt <- mkCount(0);
`endif
// `endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
Array #(Reg #(EventsCore)) events_reg <- mkDRegOR (5, unpack (0));
`ifdef CONTRACTS_VERIFY
Reg#(EventsTransExe) events_trans_reg <- mkDReg(unpack(0));
`endif
`endif
// `endif
// reservation station
ReservationStationMem rsMem <- mkReservationStationMem;
@@ -376,17 +376,17 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
end
// perf: load mem latency
let lat <- ldMemLatTimer.done(tag);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
exeLdMemLat.incr(zeroExtend(lat));
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsCore events = unpack(0);
events.evt_LOAD_WAIT = saturating_truncate(lat);
events.evt_MEM_CAP_LOAD_TAG_SET = (d.tag) ? 1 : 0;
events_reg[1] <= events;
`endif
// `endif
endmethod
method Action respLrScAmo(DProcReqId id, MemTaggedData d);
respLrScAmoQ.enq(d);
@@ -404,17 +404,17 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
end
// perf: store mem latency
let lat <- stMemLatTimer.done(0);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
exeStMemLat.incr(zeroExtend(lat));
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsCore events = unpack(0);
if (pack(waitSt.shiftedBE) == -1) events.evt_MEM_CAP_STORE = 1;
events.evt_STORE_WAIT = saturating_truncate(lat);
events_reg[2] <= events;
`endif
// `endif
// now figure out the data to be written
CLineMemDataByteEn be = replicate(replicate(False));
Line data = unpack(0);
@@ -431,17 +431,17 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
if(verbose) $display("[Store resp] idx = %x, ", idx, fshow(e));
// perf: store mem latency
let lat <- stMemLatTimer.done(idx);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
exeStMemLat.incr(zeroExtend(lat));
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsCore events = unpack(0);
if (pack(e.byteEn) == -1) events.evt_MEM_CAP_STORE = 1;
events.evt_STORE_WAIT = saturating_truncate(lat);
events_reg[2] <= events;
`endif
// `endif
return tuple2(unpack(pack(e.byteEn)), e.line); // return SB entry
endmethod
`endif
@@ -503,12 +503,12 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
spec_bits: x.spec_bits
});
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf: load to use latency
if(x.data.ldstq_tag matches tagged Ld .idx) begin
ldToUseLatTimer.start(idx);
end
`endif
// `endif
endrule
`ifdef RVFI
@@ -564,11 +564,11 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
if(x.ldstq_tag matches tagged St .stTag) begin
MemTaggedData d = x.mem_func == Amo ? toMemData : shiftData; // XXX don't shift for AMO
lsq.updateData(stTag, d);
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
EventsCore events = unpack(0);
events.evt_MEM_CAP_STORE_TAG_SET = (d.tag) ? 1 : 0;
events_reg[4] <= events;
`endif
// `endif
end
`ifdef KONATA
@@ -744,7 +744,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
);
let pc = inIfc.rob_getPC(x.tag);
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
function Bool is_16b_inst (Bit #(n) inst);
return (inst [1:0] != 2'b11);
@@ -758,7 +758,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
events_trans_reg <= events_trans;
end
`endif
`endif
// `endif
`ifdef KONATA
$display("KONATAE\t%0d\t%0d\t0\tMem3", cur_cycle, x.u_id);
@@ -795,11 +795,11 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
});
end
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(isValid(cause) && inIfc.doStats) begin
exeTlbExcepCnt.incr(1);
end
`endif
// `endif
endrule
//=======================================================
@@ -822,10 +822,10 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
`else
SBSearchRes sbRes = stb.search(info.paddr, info.shiftedBE);
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
EventsCore events = unpack(0);
if (info.shiftedBE == DataMemAccess (unpack(~0))) events.evt_MEM_CAP_LOAD = 1;
`endif
// `endif
// search LSQ
LSQIssueLdResult issRes <- lsq.issueLd(info.tag, info.paddr, info.shiftedBE, sbRes);
if(verbose) begin
@@ -839,12 +839,12 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
if(forward.dst matches tagged Valid .dst) begin
inIfc.setRegReadyAggr_forward(dst.indx);
end
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf: load forward
if(inIfc.doStats) begin
exeLdForwardCnt.incr(1);
end
`endif
// `endif
end
else if(issRes == ToCache) begin
reqLdQ.enq(tuple4(zeroExtend(info.tag), info.paddr, info.shiftedBE == TagMemAccess, info.pcHash));
@@ -852,7 +852,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
ldMemLatTimer.start(info.tag);
end
else if(issRes matches tagged Stall .stallBy) begin
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf: load stall
if(inIfc.doStats) begin
case(stallBy)
@@ -862,14 +862,14 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
default: doAssert(False, "unknow stall reason");
endcase
end
`endif
// `endif
end
else begin
doAssert(False, "load is stalled");
end
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
events_reg[0] <= events;
`endif
// `endif
endaction
endfunction
@@ -911,14 +911,14 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
inIfc.rob_setExecuted_doFinishMem_RegData (res.instTag, res.data);
`endif
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf: load to use latency
let lat <- ldToUseLatTimer.done(tag);
if(inIfc.doStats) begin
exeLdToUseLat.incr(zeroExtend(lat));
exeLdToUseCnt.incr(1);
end
`endif
// `endif
`ifdef RVFI
LdStQTag idx = tagged Ld tag;
memData[pack(idx)] <= truncate(pack(res.data)); // TODO use fromMem?
@@ -1029,7 +1029,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
if(verbose) $display("[doDeqLdQ_Lr_issue] ", fshow(lsqDeqLd), "; ", fshow(req));
// check
doAssert(!isValid(lsqDeqLd.killed), "cannot be killed");
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
if(lsqDeqLd.acq) begin
exeLrScAmoAcqCnt.incr(1);
@@ -1038,7 +1038,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
exeLrScAmoRelCnt.incr(1);
end
end
`endif
// `endif
endrule
`ifdef SELF_INV_CACHE
@@ -1320,7 +1320,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
`endif
);
if(verbose) $display("[doDeqStQ_Fence] ", fshow(lsqDeqSt));
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
exeFenceCnt.incr(1);
if(lsqDeqSt.acq) begin
@@ -1330,7 +1330,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
exeFenceRelCnt.incr(1);
end
end
`endif
// `endif
endrule
// issue non-MMIO Sc/Amo without fault when
@@ -1373,7 +1373,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
};
reqLrScAmoQ.enq(req);
if(verbose) $display("[doDeqStQ_ScAmo_issue] ", fshow(lsqDeqSt), "; ", fshow(req));
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
if(lsqDeqSt.acq) begin
exeLrScAmoAcqCnt.incr(1);
@@ -1382,7 +1382,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
exeLrScAmoRelCnt.incr(1);
end
end
`endif
// `endif
endrule
`ifdef SELF_INV_CACHE
@@ -1435,16 +1435,16 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
!lsqDeqSt.isMMIO, "must be non-MMIO Sc/Amo");
doAssert(!isValid(lsqDeqSt.fault), "no fault");
// stats for successful SC
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats && lsqDeqSt.memFunc == Sc && resp == fromInteger(valueof(ScSuccVal))) begin
exeScSuccessCnt.incr(1);
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsCore events = unpack(0);
events.evt_SC_SUCCESS = 1;
events_reg[3] <= events;
`endif
// `endif
endrule
// issue MMIO St/Amo when
@@ -1482,7 +1482,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
if(verbose) $display("[doDeqStQ_MMIO_issue] ", fshow(lsqDeqSt), "; ", fshow(req));
// MMIO may cause exception, must have spec tag, and only can be St/Amo
doAssert(lsqDeqSt.memFunc == St || lsqDeqSt.memFunc == Amo, "must be St/Amo");
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
if(lsqDeqSt.acq) begin
exeLrScAmoAcqCnt.incr(1);
@@ -1491,7 +1491,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
exeLrScAmoRelCnt.incr(1);
end
end
`endif
// `endif
endrule
`ifdef SELF_INV_CACHE
@@ -1661,7 +1661,7 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
method Data getPerf(ExeStagePerfType t);
return (case(t)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
ExeLdStallByLd: exeLdStallByLdCnt;
ExeLdStallBySt: exeLdStallByStCnt;
ExeLdStallBySB: exeLdStallBySBCnt;
@@ -1677,14 +1677,14 @@ module mkMemExePipeline#(MemExeInput inIfc)(MemExePipeline);
ExeFenceAcqCnt: exeFenceAcqCnt;
ExeFenceRelCnt: exeFenceRelCnt;
ExeFenceCnt: exeFenceCnt;
`endif
// `endif
default: 0;
endcase);
endmethod
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method events = events_reg[0];
`ifdef CONTRACTS_VERIFY
method events_trans = events_trans_reg;
`endif
`endif
// `endif
endmodule

View File

@@ -73,10 +73,10 @@ import ConfigReg::*;
import CHERICap::*;
import CHERICC_Fat::*;
import ISA_Decls_CHERI::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import StatCounters::*;
import DReg::*;
`endif
// `endif
import Cur_Cycle :: *;
@@ -116,9 +116,9 @@ interface RenameStage;
// performance count
method Data getPerf(ExeStagePerfType t);
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsTransExe events;
`endif
// `endif
// deadlock check
interface Get#(RenameStuck) renameInstStuck;
@@ -150,15 +150,15 @@ module mkRenameStage#(RenameInput inIfc)(RenameStage);
// performance counter
Count#(Data) supRenameCnt <- mkCount(0);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
`ifdef SECURITY
Count#(Data) specNoneCycles <- mkCount(0);
Count#(Data) specNonMemCycles <- mkCount(0);
`endif
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
Reg#(EventsTransExe) events_reg <- mkDReg(unpack(0));
`endif
// `endif
// deadlock check
`ifdef CHECK_DEADLOCK
// timer to check deadlock
@@ -421,7 +421,7 @@ module mkRenameStage#(RenameInput inIfc)(RenameStage);
end
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
`ifdef CONTRACTS_VERIFY
let validPc = (x.orig_inst[1:0] != 2'b11) ? addPc(pc,2) : addPc(pc,4);
if((ppc != validPc)) begin
@@ -430,7 +430,7 @@ module mkRenameStage#(RenameInput inIfc)(RenameStage);
events_reg <= events;
end
`endif
`endif
// `endif
`ifdef CHECK_DEADLOCK
renameCorrectPath.send;
@@ -636,11 +636,11 @@ module mkRenameStage#(RenameInput inIfc)(RenameStage);
$display("KONATAS\t%0d\t%d\t0\tRnm", cur_cycle, x.u_id);
$fflush;
`endif
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
EventsTransExe events = unpack(0);
events.evt_RENAMED_INST = 1;
events_reg <= events;
`endif
// `endif
// record if we issue an CSR inst. TODO also for SCRs?
if(dInst.iType == Csr) begin
@@ -660,14 +660,14 @@ module mkRenameStage#(RenameInput inIfc)(RenameStage);
Bool specNone = !machineMode && csrf.rd(csrAddrMSPEC) == zeroExtend(mSpecNone);
Bool specNonMem = machineMode || csrf.rd(csrAddrMSPEC) == zeroExtend(mSpecNonMem);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
rule incSpecNoneCycles(inIfc.doStats && specNone);
specNoneCycles.incr(1);
endrule
rule incSpecNonMemCycles(inIfc.doStats && specNonMem);
specNonMemCycles.incr(1);
endrule
`endif
// `endif
// first inst is mem inst
function Bool isMemInst(ExecFunc f);
@@ -1251,20 +1251,20 @@ module mkRenameStage#(RenameInput inIfc)(RenameStage);
// otherwise this rule may block other rules forever
when(doCorrectPath, noAction);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(inIfc.doStats) begin
if(renameCnt > 1) begin
supRenameCnt.incr(1);
end
end
`else
supRenameCnt.incr(zeroExtend(renameCnt));
`endif
`ifdef PERFORMANCE_MONITORING
// `else
// supRenameCnt.incr(zeroExtend(renameCnt));
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsTransExe events = unpack(0);
events.evt_RENAMED_INST = zeroExtend(renameCnt);
events_reg <= events;
`endif
// `endif
`ifdef CHECK_DEADLOCK
if(doCorrectPath) begin
@@ -1284,20 +1284,20 @@ module mkRenameStage#(RenameInput inIfc)(RenameStage);
method Data getPerf(ExeStagePerfType t);
return (case(t)
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
SupRenameCnt: supRenameCnt;
`ifdef SECURITY
SpecNoneCycles: specNoneCycles;
SpecNonMemCycles: specNoneCycles;
`endif
`endif
// `endif
default: 0;
endcase);
endmethod
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method events = events_reg;
`endif
// `endif
`ifdef INCLUDE_GDB_CONTROL
method Action debug_halt_req ();

View File

@@ -52,12 +52,12 @@ import LatencyTimer::*;
import HasSpecBits::*;
import Vector::*;
import Ehr::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import PerformanceMonitor::*;
import CCTypes::*;
import BlueUtils::*;
import StatCounters::*;
`endif
// `endif
export DTlbReq(..);
export DTlbResp(..);
@@ -123,9 +123,9 @@ interface DTlb#(type instT);
// performance
interface Perf#(L1TlbPerfType) perf;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1D events;
`endif
// `endif
endinterface
typedef FullAssocTlb#(DTlbSize) DTlbArray;
@@ -210,7 +210,7 @@ module mkDTlb#(
// perf counters
LatencyTimer#(DTlbReqNum, 12) latTimer <- mkLatencyTimer; // max latency: 4K cycles
Fifo#(1, L1TlbPerfType) perfReqQ <- mkCFFifo;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Fifo#(1, PerfResp#(L1TlbPerfType)) perfRespQ <- mkCFFifo;
Reg#(Bool) doStats <- mkConfigReg(False);
Count#(Data) accessCnt <- mkCount(0);
@@ -242,11 +242,12 @@ module mkDTlb#(
rule incrAllMissCycles(doStats);
function Bool isMiss(DTlbWait x) = x != None;
when(all(isMiss, readVReg(pendWait)), allMissCycles.incr(1));
$display("L1TlballMissCycles = %0d", allMissCycles);
endrule
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
Array #(Reg #(EventsL1D)) perf_events <- mkDRegOR (3, unpack (0));
`endif
// `endif
// do flush: start when all misses resolve
Bool noMiss = all(\== (False) , readVReg(pendValid_noMiss));
@@ -257,11 +258,11 @@ module mkDTlb#(
flushRqToPQ.enq(?);
waitFlushP <= True;
if(verbose) $display("[DTLB] flush begin");
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
EventsL1D ev = unpack(0);
ev.evt_TLB_FLUSH = 1;
perf_events[2] <= ev;
`endif
// `endif
endrule
rule doFinishFlush(needFlush && waitFlushP);
@@ -357,24 +358,28 @@ module mkDTlb#(
// perf: miss
let lat <- latTimer.done(idx);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
if(isValid(respForOtherReq)) begin
missPeerLat.incr(zeroExtend(lat));
$display("L1 TLB miss");
$display("L1TLBmissPeerLat = %0d", missPeerLat);
missPeerCnt.incr(1);
end
else begin
missParentLat.incr(zeroExtend(lat));
missParentCnt.incr(1);
$display("L1 TLB parent miss");
$display("L1TLBmissParentCnt = %0d", missParentCnt);
end
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsL1D ev = unpack(0);
ev.evt_TLB_MISS_LAT = saturating_truncate(lat);
ev.evt_TLB_MISS = 1;
perf_events[0] <= ev;
`endif
// `endif
// conflict with wrong spec
wrongSpec_doPRs_conflict.wset(?);
endrule
@@ -508,12 +513,13 @@ module mkDTlb#(
$display("[DTLB] req (hit): idx %d; ", idx, fshow(r),
"; ", fshow(trans_result));
end
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf: hit under miss
if(doStats && readVReg(pendWait) != replicate(None)) begin
hitUnderMissCnt.incr(1);
$display("L1TlbhitUnderMissCnt = %0d", hitUnderMissCnt);
end
`endif
// `endif
end
else begin
// page fault
@@ -565,17 +571,18 @@ module mkDTlb#(
if(verbose) $display("DTLB %m req (bare): ", fshow(r));
end
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf: access
if(doStats) begin
$display("L1 TLB inc");
accessCnt.incr(1);
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsL1D ev = unpack(0);
ev.evt_TLB = 1;
perf_events[1] <= ev;
`endif
// `endif
// conflict with wrong spec
wrongSpec_procReq_conflict.wset(?);
endmethod
@@ -632,11 +639,11 @@ module mkDTlb#(
interface Perf perf;
method Action setStatus(Bool stats);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
doStats <= stats;
`else
noAction;
`endif
// `else
// noAction;
// `endif
endmethod
method Action req(L1TlbPerfType r);
@@ -644,27 +651,27 @@ module mkDTlb#(
endmethod
method ActionValue#(PerfResp#(L1TlbPerfType)) resp;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
perfRespQ.deq;
return perfRespQ.first;
`else
perfReqQ.deq;
return PerfResp {
pType: perfReqQ.first,
data: 0
};
`endif
// `else
// perfReqQ.deq;
// return PerfResp {
// pType: perfReqQ.first,
// data: 0
// };
// `endif
endmethod
method Bool respValid;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
return perfRespQ.notEmpty;
`else
return perfReqQ.notEmpty;
`endif
// `else
// return perfReqQ.notEmpty;
// `endif
endmethod
endinterface
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1D events = perf_events[0];
`endif
// `endif
endmodule

View File

@@ -50,12 +50,12 @@ import Cntrs::*;
import SafeCounter::*;
import CacheUtils::*;
import LatencyTimer::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import PerformanceMonitor::*;
import CCTypes::*;
import BlueUtils::*;
import StatCounters::*;
`endif
// `endif
// currently blocking
typedef `L1_TLB_SIZE ITlbSize;
@@ -92,9 +92,9 @@ interface ITlb;
// performance
interface Perf#(L1TlbPerfType) perf;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1I events;
`endif
// `endif
endinterface
typedef FullAssocTlb#(ITlbSize) ITlbArray;
@@ -134,7 +134,7 @@ module mkITlb(ITlb::ITlb);
// perf counters
LatencyTimer#(2, 12) latTimer <- mkLatencyTimer; // max latency: 4K cycles
Fifo#(1, L1TlbPerfType) perfReqQ <- mkCFFifo;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Fifo#(1, PerfResp#(L1TlbPerfType)) perfRespQ <- mkCFFifo;
Reg#(Bool) doStats <- mkConfigReg(False);
Count#(Data) accessCnt <- mkCount(0);
@@ -154,10 +154,10 @@ module mkITlb(ITlb::ITlb);
data: d
});
endrule
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
Array #(Reg #(EventsL1I)) perf_events <- mkDRegOR (3, unpack (0));
`endif
// `endif
// do flush: only start when all misses resolve
rule doStartFlush(needFlush && !waitFlushP && !isValid(miss));
@@ -166,11 +166,11 @@ module mkITlb(ITlb::ITlb);
flushRqToPQ.enq(?);
waitFlushP <= True;
if(verbose) $display("ITLB %m: flush begin");
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
EventsL1I ev = unpack(0);
ev.evt_TLB_FLUSH = 1;
perf_events[2] <= ev;
`endif
// `endif
endrule
rule doFinishFlush(needFlush && waitFlushP && !isValid(miss));
@@ -225,17 +225,17 @@ module mkITlb(ITlb::ITlb);
miss <= Invalid;
let lat <- latTimer.done(0);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
missLat.incr(zeroExtend(lat));
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsL1I ev = unpack(0);
ev.evt_TLB_MISS_LAT = saturating_truncate(lat);
ev.evt_TLB_MISS = 1;
perf_events[0] <= ev;
`endif
// `endif
endrule
// we check no pending req only at Commit when Fetch1 stage has been
@@ -345,11 +345,11 @@ module mkITlb(ITlb::ITlb);
$display("ITLB %m req (miss): ", fshow(vaddr));
end
latTimer.start(0);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
missCnt.incr(1);
end
`endif
// `endif
end
end
else begin
@@ -358,16 +358,16 @@ module mkITlb(ITlb::ITlb);
if (verbose) $display("ITLB %m req (bare): ", fshow(vaddr));
end
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
accessCnt.incr(1);
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsL1I ev = unpack(0);
ev.evt_TLB = 1;
perf_events[1] <= ev;
`endif
// `endif
endmethod
endinterface
interface Get response = toGet(hitQ);
@@ -384,11 +384,11 @@ module mkITlb(ITlb::ITlb);
interface Perf perf;
method Action setStatus(Bool stats);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
doStats <= stats;
`else
noAction;
`endif
// `else
// noAction;
// `endif
endmethod
method Action req(L1TlbPerfType r);
@@ -396,27 +396,27 @@ module mkITlb(ITlb::ITlb);
endmethod
method ActionValue#(PerfResp#(L1TlbPerfType)) resp;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
perfRespQ.deq;
return perfRespQ.first;
`else
perfReqQ.deq;
return PerfResp {
pType: perfReqQ.first,
data: 0
};
`endif
// `else
// perfReqQ.deq;
// return PerfResp {
// pType: perfReqQ.first,
// data: 0
// };
// `endif
endmethod
method Bool respValid;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
return perfRespQ.notEmpty;
`else
return perfReqQ.notEmpty;
`endif
// `else
// return perfReqQ.notEmpty;
// `endif
endmethod
endinterface
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1I events = perf_events[0];
`endif
// `endif
endmodule

View File

@@ -59,9 +59,9 @@ import SelfInvL1Pipe::*;
import SelfInvL1Bank::*;
import SelfInvIPipe::*;
import SelfInvIBank::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import StatCounters::*;
`endif
// `endif
export L1Num;
export LgL1WayNum;
@@ -188,9 +188,9 @@ interface DCoCache;
method Bool flush_done;
method Action resetLinkAddr;
interface Perf#(L1DPerfType) perf;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1D events;
`endif
// `endif
interface ChildCacheToParent#(L1Way, void) to_parent;
@@ -208,7 +208,7 @@ module mkDCoCache#(L1ProcResp#(DProcReqId) procResp)(DCoCache);
// perf counters
Fifo#(1, L1DPerfType) perfReqQ <- mkCFFifo;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Fifo#(1, PerfResp#(L1DPerfType)) perfRespQ <- mkCFFifo;
rule doPerf;
@@ -219,7 +219,7 @@ module mkDCoCache#(L1ProcResp#(DProcReqId) procResp)(DCoCache);
data: d
});
endrule
`endif
// `endif
`ifdef SELF_INV_CACHE
// change the reconcile ifc to a FIFO ifc to avoid scheduling issues
@@ -261,28 +261,28 @@ module mkDCoCache#(L1ProcResp#(DProcReqId) procResp)(DCoCache);
perfReqQ.enq(r);
endmethod
method ActionValue#(PerfResp#(L1DPerfType)) resp;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
perfRespQ.deq;
return perfRespQ.first;
`else
perfReqQ.deq;
return PerfResp {
pType: perfReqQ.first,
data: 0
};
`endif
// `else
// perfReqQ.deq;
// return PerfResp {
// pType: perfReqQ.first,
// data: 0
// };
// `endif
endmethod
method Bool respValid;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
return perfRespQ.notEmpty;
`else
return perfReqQ.notEmpty;
`endif
// `else
// return perfReqQ.notEmpty;
// `endif
endmethod
endinterface
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1D events = cache.events;
`endif
// `endif
interface to_parent = cache.to_parent;
@@ -382,9 +382,9 @@ interface ICoCache;
method Action flush;
method Bool flush_done;
interface Perf#(L1IPerfType) perf;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1I events;
`endif
// `endif
interface ChildCacheToParent#(L1Way, void) to_parent;
@@ -407,7 +407,7 @@ module mkICoCache(ICoCache);
let cache <- mkIBankWrapper;
Fifo#(1, L1IPerfType) perfReqQ <- mkCFFifo;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Fifo#(1, PerfResp#(L1IPerfType)) perfRespQ <- mkCFFifo;
rule doPerf;
@@ -418,7 +418,7 @@ module mkICoCache(ICoCache);
data: d
});
endrule
`endif
// `endif
interface Server to_proc;
interface request = cache.to_proc.req;
@@ -436,28 +436,28 @@ module mkICoCache(ICoCache);
perfReqQ.enq(r);
endmethod
method ActionValue#(PerfResp#(L1IPerfType)) resp;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
perfRespQ.deq;
return perfRespQ.first;
`else
perfReqQ.deq;
return PerfResp {
pType: perfReqQ.first,
data: 0
};
`endif
// `else
// perfReqQ.deq;
// return PerfResp {
// pType: perfReqQ.first,
// data: 0
// };
// `endif
endmethod
method Bool respValid;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
return perfRespQ.notEmpty;
`else
return perfReqQ.notEmpty;
`endif
// `else
// return perfReqQ.notEmpty;
// `endif
endmethod
endinterface
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsL1I events = cache.events;
`endif
// `endif
interface to_parent = cache.to_parent;

View File

@@ -54,12 +54,12 @@ import SetAssocTlb::*;
import L2SetAssocTlb::*;
import TranslationCache::*;
import LatencyTimer::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import PerformanceMonitor::*;
import CCTypes::*;
import BlueUtils::*;
import StatCounters::*;
`endif
// `endif
// for SV39 only
@@ -120,9 +120,9 @@ interface L2Tlb;
// performace
interface Perf#(L2TlbPerfType) perf;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsLL events;
`endif
// `endif
endinterface
typedef FullAssocTlb#(`L2_TLB_HUGE_SIZE) L2FullAssocTlb;
@@ -220,7 +220,7 @@ module mkL2Tlb(L2Tlb::L2Tlb);
// FIFO for perf req
Fifo#(1, L2TlbPerfType) perfReqQ <- mkCFFifo;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Fifo#(1, PerfResp#(L2TlbPerfType)) perfRespQ <- mkCFFifo;
Reg#(Bool) doStats <- mkConfigReg(False);
Count#(Data) instMissCnt <- mkCount(0);
@@ -285,10 +285,10 @@ module mkL2Tlb(L2Tlb::L2Tlb);
data: d
});
endrule
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
Array #(Reg #(EventsLL)) perf_events <- mkDRegOR (3, unpack (0));
`endif
// `endif
// when flushing is true, since both I and D TLBs have finished flush and
// is waiting for L2 to flush, all I/D TLB req must have been responded.
@@ -301,11 +301,11 @@ module mkL2Tlb(L2Tlb::L2Tlb);
// check no req
doAssert(!rqFromCQ.notEmpty, "cannot have new req");
doAssert(readVEhr(0, pendValid) == replicate(False), "cannot have pending req");
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
EventsLL ev = unpack(0);
ev.evt_TLB_FLUSH = 1;
perf_events[2] <= ev;
`endif
// `endif
endrule
rule doWaitFlush(flushing && waitFlushDone && tlb4KB.flush_done && transCache.flush_done);
@@ -377,7 +377,7 @@ module mkL2Tlb(L2Tlb::L2Tlb);
});
// req is done
pendValid_tlbResp[idx] <= False;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf: hit under miss
function Bool otherMiss(L2TlbReqIdx i);
return pendValid_tlbResp[i] && pendWait_tlbResp[i] != None && i != idx;
@@ -386,7 +386,7 @@ module mkL2Tlb(L2Tlb::L2Tlb);
if(any(otherMiss, idxVec)) begin
hitUnderMissCnt.incr(1);
end
`endif
// `endif
endaction
endfunction
@@ -410,7 +410,7 @@ module mkL2Tlb(L2Tlb::L2Tlb);
pageHit(entry);
tlb4KB.deqResp(Invalid); // just deq 4KB array
tlbMG.updateRepByHit(respMG.index); // update replacement in MG array
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
if(cRq.child == I) begin
instHugePageHitCnt.incr(1);
@@ -419,12 +419,12 @@ module mkL2Tlb(L2Tlb::L2Tlb);
dataHugePageHitCnt.incr(1);
end
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsLL ev = unpack(0);
ev.evt_TLB = 1;
perf_events[1] <= ev;
`endif
// `endif
end
else if(resp4KB.hit) begin
// hit on 4KB page
@@ -433,11 +433,11 @@ module mkL2Tlb(L2Tlb::L2Tlb);
pageHit(entry);
// update 4KB array replacement, no need to touch MG array
tlb4KB.deqResp(Valid (resp4KB.way));
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
EventsLL ev = unpack(0);
ev.evt_TLB = 1;
perf_events[1] <= ev;
`endif
// `endif
end
else begin
// miss, deq resp
@@ -446,7 +446,7 @@ module mkL2Tlb(L2Tlb::L2Tlb);
transCache.req(cRq.vpn, vm_info.asid);
transCacheReqQ.enq(idx);
// perf: TLB miss
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
latTimer.start(idx);
if(doStats) begin
if(cRq.child == I) begin
@@ -456,12 +456,12 @@ module mkL2Tlb(L2Tlb::L2Tlb);
dataMissCnt.incr(1);
end
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsLL ev = unpack(0);
ev.evt_TLB_MISS = 1;
perf_events[0] <= ev;
`endif
// `endif
end
endrule
@@ -517,11 +517,11 @@ module mkL2Tlb(L2Tlb::L2Tlb);
// duplicate req
pendWait_transCacheResp[idx] <= WaitPeer (i);
doAssert(pendValid_transCacheResp[i], "peer must be valid");
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
peerSavedMemReqCnt.incr(1);
end
`endif
// `endif
end
else begin
// no one has requested before, req memory
@@ -536,7 +536,7 @@ module mkL2Tlb(L2Tlb::L2Tlb);
fshow(vm_info), "; ", fshow(resp), "; ",
fshow(level), "; ", fshow(pteAddr));
end
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf: saved page walks
if(doStats) begin
Data saved = zeroExtend(maxPageWalkLevel - level);
@@ -545,9 +545,10 @@ module mkL2Tlb(L2Tlb::L2Tlb);
end
else begin
dataSavedPageWalks.incr(saved);
$display("L2TlbdataSavedPageWalks = %0d", dataPageWalks);
end
end
`endif
// `endif
endrule
// page walk is preempted by tlb resp rule and trans cache resp rule, i.e.,
@@ -588,10 +589,10 @@ module mkL2Tlb(L2Tlb::L2Tlb);
// req is done
pendValid_pageWalk[idx] <= False;
pendWait_pageWalk[idx] <= None;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// incr miss latency
incrMissLat(cRq.child, idx);
`endif
// `endif
endaction
endfunction
@@ -656,11 +657,11 @@ module mkL2Tlb(L2Tlb::L2Tlb);
// walk
if(otherReqSamePTE(idx, newPTEAddr, readVReg(pendWait_pageWalk)) matches tagged Valid .i) begin
pendWait_pageWalk[idx] <= WaitPeer (i);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
peerSavedMemReqCnt.incr(1);
end
`endif
// `endif
end
else begin
memReqQ.enq(TlbMemReq {
@@ -695,17 +696,17 @@ module mkL2Tlb(L2Tlb::L2Tlb);
child: cRq.child,
entry: Valid (entry)
});
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
// page table walks are counted as accesses
EventsLL ev = unpack(0);
ev.evt_TLB = 1;
perf_events[1] <= ev;
`endif
// `endif
// update TLB array
if(entry.level > 0) begin
// add to mega/giga page tlb
tlbMG.addEntry(entry);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
if(doStats) begin
if(cRq.child == I) begin
instHugePageMissCnt.incr(1);
@@ -714,12 +715,12 @@ module mkL2Tlb(L2Tlb::L2Tlb);
dataHugePageMissCnt.incr(1);
end
end
`endif
`ifdef PERFORMANCE_MONITORING
// `endif
// `ifdef PERFORMANCE_MONITORING
EventsLL ev = unpack(0);
ev.evt_TLB_MISS = 1;
perf_events[0] <= ev;
`endif
// `endif
end
else begin
// 4KB page, add to 4KB TLB
@@ -728,13 +729,13 @@ module mkL2Tlb(L2Tlb::L2Tlb);
// req is done
pendValid_pageWalk[idx] <= False;
pendWait_pageWalk[idx] <= None;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// incr miss latency
incrMissLat(cRq.child, idx);
`endif
// `endif
end
end
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
// perf: page walk done once
if(doStats) begin
if(cRq.child == I) begin
@@ -742,9 +743,10 @@ module mkL2Tlb(L2Tlb::L2Tlb);
end
else begin
dataPageWalks.incr(1);
$display("L2TlbdataPageWalks = %0d", dataPageWalks);
end
end
`endif
// `endif
endrule
method Action updateVMInfo(VMInfo vmI, VMInfo vmD); //if(!isValid(pendReq));
@@ -776,11 +778,11 @@ module mkL2Tlb(L2Tlb::L2Tlb);
interface Perf perf;
method Action setStatus(Bool stats);
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
doStats <= stats;
`else
noAction;
`endif
// `else
// noAction;
// `endif
endmethod
method Action req(L2TlbPerfType r);
@@ -788,27 +790,27 @@ module mkL2Tlb(L2Tlb::L2Tlb);
endmethod
method ActionValue#(PerfResp#(L2TlbPerfType)) resp;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
perfRespQ.deq;
return perfRespQ.first;
`else
perfReqQ.deq;
return PerfResp {
pType: perfReqQ.first,
data: 0
};
`endif
// `else
// perfReqQ.deq;
// return PerfResp {
// pType: perfReqQ.first,
// data: 0
// };
// `endif
endmethod
method Bool respValid;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
return perfRespQ.notEmpty;
`else
return perfReqQ.notEmpty;
`endif
// `else
// return perfReqQ.notEmpty;
// `endif
endmethod
endinterface
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsLL events = perf_events[0];
`endif
// `endif
endmodule

View File

@@ -55,9 +55,9 @@ import SelfInvLLBank::*;
import L1CoCache::*;
import LLCDmaConnect::*;
import Performance::*;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
import StatCounters::*;
`endif
// `endif
// Last-Level
@@ -257,9 +257,9 @@ interface LLCache;
interface Get#(LLCStuck) cRqStuck;
// performance
interface Perf#(LLCPerfType) perf;
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsLL events;
`endif
// `endif
endinterface
`ifdef SECURITY
@@ -315,7 +315,7 @@ module mkLLCache(LLCache);
// perf counters
Fifo#(1, LLCPerfType) perfReqQ <- mkCFFifo;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
Fifo#(1, PerfResp#(LLCPerfType)) perfRespQ <- mkCFFifo;
rule doPerf;
@@ -326,7 +326,7 @@ module mkLLCache(LLCache);
data: d
});
endrule
`endif
// `endif
`ifdef SECURITY
`ifndef DISABLE_SECURE_LLC
@@ -449,26 +449,26 @@ module mkLLCache(LLCache);
perfReqQ.enq(r);
endmethod
method ActionValue#(PerfResp#(LLCPerfType)) resp;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
perfRespQ.deq;
return perfRespQ.first;
`else
perfReqQ.deq;
return PerfResp {
pType: perfReqQ.first,
data: 0
};
`endif
// `else
// perfReqQ.deq;
// return PerfResp {
// pType: perfReqQ.first,
// data: 0
// };
// `endif
endmethod
method Bool respValid;
`ifdef PERF_COUNT
// `ifdef PERF_COUNT
return perfRespQ.notEmpty;
`else
return perfReqQ.notEmpty;
`endif
// `else
// return perfReqQ.notEmpty;
// `endif
endmethod
endinterface
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
method EventsLL events = cache.events;
`endif
// `endif
endmodule

View File

@@ -1070,11 +1070,11 @@ endfunction
function x addPc(x cap, Bit#(12) inc) provisos (Add#(f, 12, c), CHERICap::CHERICap#(x, a, b, c, d, e)) = setAddrUnsafe(cap, getAddr(cap) + signExtend(inc));
`ifdef PERFORMANCE_MONITORING
// `ifdef PERFORMANCE_MONITORING
typedef 8 Report_Width;
typedef 64 Counter_Width;
typedef 29 No_Of_Ctrs;
`endif
// `endif
function Bit#(outWidth) hash(Bit#(inWidth) in)
provisos(Add#(a__, inWidth, TMul#(TDiv#(inWidth, outWidth), outWidth)),

View File

@@ -1,12 +1,5 @@
Let me know if this message works well on behalf of all of us.
Hi Jan,
This is a very small gesture from Jose, Mathews, Yukang and Akilan. We have transferred 200 pounds equally contributed by all of us. As you are moving in and settling into your new place, we hope this can help you and Samantha cover certain expenses like buying furniture or for your very efficient interrail travel pass in the near future.
We will definetely miss the german embassy in Slatefort. Happy new year in advance from all of us!
Regards,
Jose, Mathews, Yukang and Akilan
(Your UK representation of transportation
reform)
- [ ] Benchmarks to port over:
- [ ] Barnes (3)
- [ ] Matrix multiplication (2)
- [ ] Richards (1)