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livingcomputermuseum.UniBone/10.03_app_demo/2_src/menu_devices.cpp
Josh Dersch 8eff2a4e10 Rewrote lower-level DMA and IRQ handling: DMA and IRQ requests are now queued and will run to completion on their own
without help from the device code (just call request_DMA and when it returns the DMA transfer is complete.)  Fixed
request_DMA to chunk DMA transfers larger than 1024 bytes to avoid overrunning the mailbox's shared memory.  Fixed
concurrency issues with DMA requests -- a race condition could cause DMA request data to get clobbered.

RT-11 now boots, MSCP behavior is now very reliable.
2019-05-04 03:30:26 +02:00

367 lines
13 KiB
C++

/* menu_devices.cpp: user sub menu
Copyright (c) 2018, Joerg Hoppe
j_hoppe@t-online.de, www.retrocmp.com
Permission is hereby granted, free of charge, to any person obtaining a
copy of this software and associated documentation files (the "Software"),
to deal in the Software without restriction, including without limitation
the rights to use, copy, modify, merge, publish, distribute, sublicense,
and/or sell copies of the Software, and to permit persons to whom the
Software is furnished to do so, subject to the following conditions:
The above copyright notice and this permission notice shall be included in
all copies or substantial portions of the Software.
THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL
JOERG HOPPE BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER
IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN
CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.
16-Nov-2018 JH created
*/
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <stdbool.h>
#include "inputline.h"
#include "mcout.h"
#include "menus.hpp" // own
#include "gpios.hpp"
#include "mailbox.h"
#include "iopageregister.h"
#include "parameter.hpp"
#include "unibus.h"
#include "memoryimage.hpp"
#include "unibusadapter.hpp"
#include "unibusdevice.hpp"
#include "panel.hpp"
#include "demo_io.hpp"
#include "demo_regs.hpp"
#include "rl11.hpp"
#include "rk11.hpp"
#include "uda.hpp"
#include "cpu.hpp"
void menus_c::menu_devices(void) {
bool ready = false;
bool show_help = true;
bool memory_installed = false;
device_c *cur_device = NULL;
unibusdevice_c *unibuscontroller = NULL;
unsigned n_fields;
char *s_choice;
char s_opcode[256], s_param[2][256];
iopageregisters_init();
// UNIBUS activity
buslatches_output_enable(true);
unibusadapter->worker_start();
if (unibus->arbitration_active)
unibus->emulation_logic_start(); // PRU is active UNIBUS node
// 2 demo controller
//demo_io_c demo_io;
//demo_regs_c demo_regs; // mem at 160000: RT11 crashes?
// cpu_c cpu;
// create RL11 + drives
RL11_c RL11; // instantiates also 4 RL01/02 drives
cur_device = NULL;
paneldriver->reset(); // reset I2C, restart worker()
// create RK11 + drives
rk11_c RK05;
// Create UDA50
uda_c UDA50;
// demo_io.install();
//demo_io.worker_start();
//demo_regs.install();
//demo_regs.worker_start();
RL11.install();
RL11.connect_to_panel();
RL11.worker_start();
RK05.install();
RK05.worker_start();
UDA50.install();
UDA50.worker_start();
// cpu.install();
// cpu.worker_start();
while (!ready) {
if (show_help) {
show_help = false; // only once
printf("\n");
printf("*** Test of device parameter interface and states.\n");
print_arbitration_info(" ");
if (cur_device) {
printf(" Current device is \"%s\"\n", cur_device->name.value.c_str());
if (unibuscontroller)
printf(" UNIBUS unibuscontroller base address = %06o\n",
unibuscontroller->base_addr.value);
} else
printf(" No current device selected\n");
if (memory_installed) {
printf(
" UNIBUS memory (physical or emulated) installed from %06o to %06o.\n",
emulated_memory_start_addr, emulated_memory_end_addr);
} else
printf(" NO UNIBUS memory installed ... device test limited!\n");
printf("\n");
printf("m i Install (emulate) max UNIBUS memory\n");
if (memory_installed) {
printf("m f [word] Fill UNIBUS memory (with 0 or other octal value)\n");
printf("m d Dump UNIBUS memory to disk\n");
}
printf("ld List all defined devices\n");
printf("sd <dev> Select \"current device\"\n");
if (cur_device) {
printf("p <param> <val> Set parameter value of current device\n");
printf("p <param> Get parameter value of current device\n");
printf("p panel Force parameter update from panel\n");
printf("p Show all parameter of current device\n");
}
if (unibuscontroller) {
printf("d <regname> <val> Deposit octal value into named device register\n");
printf("e <regname> Examine single device register (regno decimal)\n");
printf("e Examine all device registers\n");
printf("d <addr> <val> Deposit octal val into UNIBUS address.\n");
printf("e <addr> Deposit octal val into UNIBUS address.\n");
}
printf("dl c|s|f Debug log: Clear, Show on console, dump to File.\n");
printf(" (file = %s)\n", logger->default_filepath.c_str());
printf("init Pulse UNIBUS INIT\n");
printf("pwr Simulate UNIBUS power cycle (ACLO/DCLO)\n");
printf("q Quit\n");
}
s_choice = getchoice();
printf("\n");
try {
n_fields = sscanf(s_choice, "%s %s %s", s_opcode, s_param[0], s_param[1]);
if (!strcasecmp(s_opcode, "q")) {
ready = true;
} else if (!strcasecmp(s_opcode, "init")) {
unibus->init();
} else if (!strcasecmp(s_opcode, "pwr")) {
unibus->powercycle();
} else if (!strcasecmp(s_opcode, "dl") && n_fields == 2) {
if (!strcasecmp(s_param[0], "c")) {
logger->clear();
printf("Debug log cleared.\n");
} else if (!strcasecmp(s_param[0], "s"))
logger->dump();
else if (!strcasecmp(s_param[0], "f"))
logger->dump(logger->default_filepath);
} else if (!strcasecmp(s_opcode, "m") && n_fields == 2
&& !strcasecmp(s_param[0], "i")) {
// install (emulate) max UNIBUS memory
emulate_memory();
memory_installed = true;
show_help = true; // menu struct changed
} else if (memory_installed && !strcasecmp(s_opcode, "m") && n_fields >= 2
&& !strcasecmp(s_param[0], "f")) {
// clear UNIBUS memory
bool timeout;
uint16_t fillword = 0;
if (n_fields == 3)
fillword = strtol(s_param[1], NULL, 8);
membuffer->set_addr_range(emulated_memory_start_addr, emulated_memory_end_addr);
membuffer->fill(fillword);
// write buffer-> UNIBUS
printf(
"Fill memory with %06o, writing UNIBUS memory[%06o:%06o] with blocksize %u words\n",
fillword, emulated_memory_start_addr, emulated_memory_end_addr,
unibus->dma_wordcount);
unibus->mem_write(membuffer->data.words, emulated_memory_start_addr,
emulated_memory_end_addr, unibus->dma_wordcount, &timeout);
if (timeout)
printf("Error writing UNIBUS memory!\n");
} else if (memory_installed && !strcasecmp(s_opcode, "m") && n_fields == 2
&& !strcasecmp(s_param[0], "d")) {
// dump UNIBUS memory to disk
const char * filename = "memory.dump";
bool timeout;
// 1. read UNIBUS memory
uint32_t end_addr = unibus->test_sizer() - 2;
printf("Reading UNIBUS memory[0:%06o] with DMA blocks of %u words\n", end_addr,
unibus->dma_wordcount);
// clear memory buffer, to be sure content changed
membuffer->set_addr_range(0, end_addr);
membuffer->fill(0);
unibus->mem_read(membuffer->data.words, 0, end_addr, unibus->dma_wordcount,
&timeout);
if (timeout)
printf("Error reading UNIBUS memory!\n");
else {
// 1. read UNIBUS memory
printf("Saving to file \"%s\"\n", filename);
membuffer->save_binary(filename, end_addr + 2);
}
} else if (!strcasecmp(s_opcode, "ld") && n_fields == 1) {
list<device_c *>::iterator it;
cout << "Registered devices:\n";
for (it = device_c::mydevices.begin(); it != device_c::mydevices.end(); ++it)
cout << "- " << (*it)->name.value << " (type is " << (*it)->type_name.value
<< ")\n";
} else if (!strcasecmp(s_opcode, "sd") && n_fields == 2) {
list<device_c *>::iterator it;
bool found = false;
for (it = device_c::mydevices.begin(); it != device_c::mydevices.end(); ++it)
if (!strcasecmp((*it)->name.value.c_str(), s_param[0])) {
found = true;
cur_device = *it;
}
if (!found)
cout << "Device \"" << s_param[0] << "\" not found.\n";
else {
printf("Current device is \"%s\"\n", cur_device->name.value.c_str());
// find base address of assoiated UNIBUS unibuscontroller
if (cur_device != NULL && dynamic_cast<unibusdevice_c *>(cur_device))
unibuscontroller = dynamic_cast<unibusdevice_c *>(cur_device);
else if (cur_device->parent != NULL
&& dynamic_cast<unibusdevice_c *>(cur_device->parent)) {
unibuscontroller = dynamic_cast<unibusdevice_c *>(cur_device->parent);
printf("Controller base address = %06o\n",
unibuscontroller->base_addr.value);
} else
unibuscontroller = NULL; // no unibuscontroller found
show_help = true;
}
} else if (cur_device && !strcasecmp(s_opcode, "p") && n_fields == 1) {
cout << "Parameters of device " << cur_device->name.value << ":\n";
print_params(cur_device, NULL);
} else if (cur_device && !strcasecmp(s_opcode, "p") && n_fields == 2
&& !strcasecmp(s_param[0], "panel")) {
paneldriver->refresh_params(cur_device);
// RL11.refresh_params_from_panel(); // all 4 drives
} else if (cur_device && !strcasecmp(s_opcode, "p") && n_fields == 2) {
// show selected
string pn(s_param[0]);
parameter_c *p = cur_device->param_by_name(pn);
if (p == NULL)
cout << "Device \"" << cur_device->name.value << "\" has no parameter \""
<< pn << "\".\n";
else
print_params(cur_device, p);
} else if (cur_device && !strcasecmp(s_opcode, "p") && n_fields == 3) {
string pn(s_param[0]);
parameter_c *p = cur_device->param_by_name(pn);
if (p == NULL)
cout << "Device \"" << cur_device->name.value << "\" has no parameter \""
<< pn << "\".\n";
else {
string sval(s_param[1]);
p->parse(sval);
print_params(cur_device, p);
}
} else if (unibuscontroller && !strcasecmp(s_opcode, "d") && n_fields == 3) {
uint32_t addr;
unibusdevice_register_t *reg = unibuscontroller->register_by_name(s_param[0]);
if (reg) // register name given
addr = reg->addr;
else
// interpret as 18 bit address
addr = strtol(s_param[0], NULL, 8);
mailbox->dma.words[0] = strtol(s_param[1], NULL, 8);
bool timeout = !unibus->dma(UNIBUS_CONTROL_DATO, addr, 1);
if (reg) {
assert(
reg
== unibuscontroller->register_by_unibus_address(
mailbox->dma.cur_addr));
printf("DEPOSIT reg #%d \"%s\" %06o <- %06o\n", reg->index, reg->name,
reg->addr, mailbox->dma.words[0]);
} else
printf("DEPOSIT %06o <- %06o\n", addr, mailbox->dma.words[0]);
if (timeout)
printf("Bus timeout at %06o.\n", mailbox->dma.cur_addr);
} else if (unibuscontroller && !strcasecmp(s_opcode, "e") && n_fields <= 2) {
unsigned blocksize = 0; // default: no EXAM
bool timeout;
uint32_t addr;
unibusdevice_register_t *reg;
if (n_fields == 2) { // single reg number given
blocksize = 1; // exam 1 word
reg = unibuscontroller->register_by_name(s_param[0]);
if (reg)
addr = reg->addr;
else
addr = strtol(s_param[0], NULL, 8); // interpret as 18 bit address
timeout = !unibus->dma(UNIBUS_CONTROL_DATI, addr, blocksize);
printf("EXAM %06o -> %06o\n", addr, mailbox->dma.words[0]);
} else { // list all regs
addr = unibuscontroller->base_addr.value; // all device registers
blocksize = unibuscontroller->register_count;
unsigned i;
timeout = !unibus->dma(UNIBUS_CONTROL_DATI, addr, blocksize);
for (i = 0; addr <= mailbox->dma.cur_addr; i++, addr += 2) {
reg = unibuscontroller->register_by_unibus_address(addr);
assert(reg);
printf("EXAM reg #%d %s %06o -> %06o\n", reg->index, reg->name,
reg->addr, mailbox->dma.words[i]);
}
}
if (timeout)
printf("Bus timeout at %06o.\n", mailbox->dma.cur_addr);
// cur_addr now on last address in block
} else {
printf("Unknown command \"%s\"!\n", s_choice);
show_help = true;
}
} catch (bad_parameter& e) {
cout << "Error : " << e.what() << "\n";
}
} // ready
// cpu.worker_stop();
// cpu.uninstall();
//RL11.worker_stop();
//RL11.disconnect_from_panel();
//RL11.uninstall();
RK05.worker_stop();
RK05.uninstall();
// UDA50.worker_stop();
// UDA50.uninstall();
//demo_regs.worker_stop();
//demo_regs.uninstall();
// demo_io.worker_stop();
// demo_io.uninstall();
if (unibus->arbitration_active)
unibus->emulation_logic_stop(); // undo
unibusadapter->worker_stop();
buslatches_output_enable(false);
}