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RTLPlayground/cmd_parser.c
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/*
* A Command parser for RTL Switch configuration
*/
// #define DEBUG
// #define REGDBG 1
#include <8051.h>
#include "cmd_parser.h"
#include "rtl837x_common.h"
#include "rtl837x_port.h"
#include "rtl837x_flash.h"
#include "rtl837x_phy.h"
#include "rtl837x_regs.h"
#include "rtl837x_sfr.h"
#include "rtl837x_stp.h"
#include "rtl837x_igmp.h"
#include "rtl837x_bandwidth.h"
#include "rtl837x_lldp.h"
#include "rtl837x_storm.h"
#include "rtl837x_trap.h"
#include "sfp.h"
#include "dhcp.h"
#include "syslog.h"
#include "dns.h"
#include "ntp.h"
#include "uip/uip.h"
#include "version.h"
#include "machine.h"
#include "rtl837x_leds.h"
#include "phy.h"
#pragma codeseg BANK2
#pragma constseg BANK2
extern __code const struct machine machine;
extern __xdata bool stp_enabled;
extern __code const uint8_t log_to_phys_port[9];
extern __xdata bool lldp_enabled;
extern volatile __xdata uint32_t ticks;
extern volatile __xdata uint8_t sfr_data[4];
extern __code const uint8_t * __code const greeting;
extern __code const uint8_t * __code const hex;
extern __xdata uint8_t flash_buf[FLASH_BUF_SIZE];
extern __xdata struct flash_region_t flash_region;
extern __xdata char passwd[21];
extern __xdata uint16_t session_timeout;
extern __xdata struct dhcp_state dhcp_state;
__xdata uint8_t vlan_names[VLAN_NAMES_SIZE];
__xdata uint16_t vlan_ptr;
__xdata char port_names[9][PORT_NAME_SIZE];
extern __xdata uint16_t management_vlan;
extern __xdata struct uip_eth_addr uip_ethaddr;
__xdata uint8_t gpio_last_value[8] = { 0 };
// Temporatly for str to hex convertion value.
// Support up to 32_bits.
__xdata uint8_t hexvalue[4] = { 0 };
// Buffer for writing to flash 0x1fd000, copy to 0x1fe000
__xdata uint8_t cmd_buffer[CMD_BUF_SIZE];
__xdata char save_cmd;
__xdata uint8_t ip[4];
__xdata uint8_t mac_parse_result[6];
/* Scratch for parse_syslog(), in xdata: a local here would take internal RAM
* the linker has none of. */
__xdata uint8_t syslog_port_was_on;
// These variables combined create a Fixed-capacity vector/bounded buffer.
// `N_WORDS`: The total number of command arguments that can be tracked.
// `cmd_words_len` stores the number of arguments found inside `cmd_buffer`
// `cmd_words_b` stores the index into `cmd_buffer`, check `cmd_words_len` is index is valid.
#define N_WORDS 15
__xdata uint8_t cmd_words_len;
__xdata uint8_t cmd_words_b[N_WORDS];
__xdata uint8_t cmd_history[CMD_HISTORY_SIZE];
__xdata uint16_t cmd_history_ptr;
// Error set by commands
__xdata uint8_t err_status;
__xdata uint16_t atoi_results_short;
__xdata uint8_t atoi_results_u8;
inline uint8_t isletter(uint8_t l)
{
// return (l >= 'a' && l <= 'z') || (l >= 'A' && l <= 'Z');
// Make it lowercase
l |= 0x20;
l -= 'a';
return (l <= ('z'-'a'));
}
inline uint8_t isnumber(uint8_t l)
{
// return (l >= '0' && l <= '9');
l -= '0';
return (l <= ('9'-'0'));
}
uint8_t cmd_compare(uint8_t start, __code const uint8_t * cmd)
{
if (cmd_words_len == 0 || start > (cmd_words_len - 1)) {
return 0;
}
uint8_t i = cmd_words_b[start];
uint8_t j = 0;
do {
uint8_t c = cmd[j];
uint8_t b = cmd_buffer[i];
// cmd is guaranteed to be NUL-terminated.
if (c == NUL) {
if ((b == ' ') || (b == NUL)) {
// Match
return 1;
}
break;
}
if (b != c) {
break;
}
j += 1;
i += 1;
} while (i < CMD_BUF_SIZE);
// No match
return 0;
}
/* Converts ascii-hex array into value.
returns number of hexvalue[] entries has been written.
return value = 0 means error.
*/
uint8_t atoi_hex(uint8_t idx)
{
uint8_t h_idx = 0;
uint8_t val = 0;
uint8_t c;
while(1) {
c = cmd_buffer[idx];
if (c == NUL || c == ' ') {
break;
}
// swap hex nibbles
val = (val >> 4) | (val << 4);
if (c - '0' < 10) {
val |= c - '0';
} else {
c |= 0x20;
c -= 'a';
if (c > 5) {
h_idx = 0;
break;
}
val |= c + 10;
}
idx++;
hexvalue[h_idx >> 1] = val;
if (h_idx & 1 == 1) {
val = 0;
}
h_idx++;
}
if (h_idx & 1) {
hexvalue[h_idx >> 1] <<= 4;
hexvalue[3] = hexvalue[3] >> 4 | (hexvalue[2] << 4);
hexvalue[2] = hexvalue[2] >> 4 | (hexvalue[1] << 4);
hexvalue[1] = hexvalue[1] >> 4 | (hexvalue[0] << 4);
hexvalue[0] >>= 4;
}
return ((h_idx + 1) >> 1);
}
// Returns 0 or the number of digits taken into account for conversion.
// Stops at any non-digit '0'-'9' char or more than 3 bytes.
uint8_t atoi_byte(uint8_t idx)
{
uint8_t cnt = 0;
uint8_t num = 0;
uint8_t * ptr = &cmd_buffer[idx];
while (1) {
uint8_t val = *ptr++ - '0';
if (val > 9)
break;
if (num > 25 || (num == 25 && val > 5) || cnt >= 3)
return 0;
num = (num * 10) + val;
cnt++;
}
atoi_results_u8 = num;
return cnt;
}
// Returns 0 or the number of digits taken into account for conversion.
// Stops at any non-digit '0'-'9' char or bytes is more then 5.
uint8_t atoi_short(uint8_t idx)
{
uint8_t cnt = 0;
atoi_results_short = 0;
uint8_t *ptr = &cmd_buffer[idx];
while (1) {
uint8_t val = *ptr++ - '0';
if (val > 9)
break;
if (atoi_results_short > 6553 || (atoi_results_short == 6553 && val > 5) || cnt >= 5)
return 0;
atoi_results_short = (atoi_results_short * 10) + val;
cnt++;
}
return cnt;
}
/* Parse, validate and translate phys_to_log_port physical port argument.
* The CPU-port, i.e. port 0, is not a valid argument.
* returns 0 when on parser error or invalid value.
* returns non-zero number of characters consumed.
* Store the value in atoi_results_u8.
*/
uint8_t cmd_parse_port(uint8_t idx) {
uint8_t port = cmd_buffer[idx] - '0' - 1;
if (port > 8)
return 0;
port = machine.phys_to_log_port[port];
if (port < machine.min_port || port > machine.max_port)
return 0;
atoi_results_u8 = port;
return 1;
}
// Same as cmd_parse_port() but additionally check for trailing SPACE or NUL.
// returns 0 when on parser error or invalid value or no SPACE or no NUL.
// returns non-zero number of characters consumed including the SPACE.
uint8_t cmd_parse_port_separator(uint8_t idx) {
uint8_t ret = cmd_parse_port(idx);
if (ret != 0) {
idx += ret;
uint8_t c = cmd_buffer[idx];
if (c == ' ') {
ret++;
} else if (c != NUL)
ret = 0;
}
return ret;
}
// Same as cmd_parse_port_separator() but additionally allow CPU-port.
// returns 0 when on parser error or invalid value or no SPACE or no NUL.
// returns number of characters consumed including the SPACE.
uint8_t cmd_parse_port_cpu_separator(uint8_t idx) {
uint8_t ret = cmd_parse_port(idx);
if (ret == 0 && cmd_buffer[idx] == '0') {
ret = 1;
atoi_results_u8 = CPU_PORT;
}
if (ret != 0) {
idx += ret;
uint8_t c = cmd_buffer[idx];
if (c == ' ') {
ret++;
} else if (c != NUL)
ret = 0;
}
return ret;
}
// check if the cmd_buffer[idx] is a SPACE.
__bit cmd_is_space(uint8_t idx) {
return cmd_buffer[idx] == ' ';
}
// check if the cmd_buffer[idx] is a SPACE or NUL.
__bit cmd_is_space_or_nul(uint8_t idx) {
uint8_t c = cmd_buffer[idx];
return c == ' ' || c == NUL;
}
// Parse an IPv4 address
// returns 0 when on parse error or invalid value or it don't ends with SPACE or NUL.
// returns non-zero number of characters consumed including the SPACE.
uint8_t parse_ip(uint8_t idx)
{
uint8_t b = 0;
uint8_t ret;
uint8_t idx_start = idx;
while(1) {
ret = atoi_byte(idx);
if (ret == 0)
goto err;
idx += ret;
ip[b++] = atoi_results_u8;
ret = cmd_buffer[idx];
if (b == 4) {
if (ret == ' ') {
idx++;
break;
}
if (ret == NUL)
break;
goto err;
}
idx++;
if (ret != '.')
goto err;
}
return idx - idx_start;
err:
print_string("Error in IP format\n");
return 0;
}
// Prints an IPv4 address.
void print_ip(__xdata uint8_t * ptr) __banked
{
uint8_t idx = 0;
uint8_t num;
while(1) {
num = *ptr++;
itoa(num);
if (++idx == 4)
break;
write_char('.');
}
}
// Prints a MAC address.
void print_mac(__xdata uint8_t *ptr) __banked
{
uint8_t idx = 0;
uint8_t num;
while (1) {
num = *ptr++;
print_byte(num);
if (++idx == 6)
break;
write_char(':');
}
}
// Parses a MAC address "aa:bb:cc:dd:ee:ff" (":" or "-" separators) from
// cmd_buffer starting at idx into the global mac_parse_result[6]. Each octet
// must be exactly two hex digits with a separator between octets and nothing
// trailing, so repeated separators, missing digits or a trailing hex digit are
// rejected. Returns the number of bytes consumed, or 0 on error.
uint8_t parse_mac(uint8_t idx)
{
uint8_t b = 0;
uint8_t c = ':';
do {
if (c != ':' && c != '-')
goto err;
__bit again = true;
uint8_t v = 0;
while(1) {
c = cmd_buffer[idx++];
c -= '0';
if (c > 9) {
c |= 0x20;
c += '0' - 'a';
if (c > 5)
goto err;
c += 10;
}
// force swap-instr.
v = (v << 4) | (v >> 4);
v |= c;
if (again)
again = false;
else
break;
}
mac_parse_result[b++] = v;
c = cmd_buffer[idx++];
} while(b < 6);
if (c == ' ' || c == NUL)
return idx;
err:
return 0;
}
static void cmd_error(__code const char *msg)
{
err_status = ERR_INVALID_ARGUMENT;
print_string("Error: ");
print_string(msg);
}
static uint8_t name_char(uint8_t c)
{
if (c < 0x20 || c > 0x7e || c == '"' || c == '\\')
return '.';
return c;
}
// Sets the management MAC from a "mac <aa:bb:cc:dd:ee:ff>" command (or prints
// the current one with a bare "mac"). Refuses blank/multicast/locally
// administered/all-zero-OUI addresses so the running MAC stays reachable, and
// re-registers the static L2 management entry so the change applies without a
// reboot. As a regular command a "mac ..." line in the startup config applies
// on every boot (execute_config runs before the final static L2 entry).
void parse_mac_cmd(void)
{
if (cmd_words_len == 1) {
print_string("Current MAC: ");
print_mac(uip_ethaddr.addr);
write_char('\n');
return;
}
if (cmd_words_len != 2 || !parse_mac(cmd_words_b[1])) {
cmd_error("mac [<aa:bb:cc:dd:ee:ff>]\n");
return;
}
if ((mac_parse_result[0] & 0x03) || ((mac_parse_result[0] | mac_parse_result[1] | mac_parse_result[2]) == 0)) {
cmd_error("the MAC must be unicast and globally administered\n");
return;
}
if (memcmp(mac_parse_result, uip_ethaddr.addr, 6) == 0) {
print_string("MAC unchanged\n");
return;
}
// Swap the static management entry over to the new address: remove the
// old one (still in uip_ethaddr) before overwriting it.
port_l2_static_mgmt(uip_ethaddr.addr, management_vlan, true);
memcpy(uip_ethaddr.addr, mac_parse_result, 6);
port_l2_static_mgmt(uip_ethaddr.addr, management_vlan, false);
print_string("MAC set to: ");
print_mac(uip_ethaddr.addr);
write_char('\n');
print_string("Save the startup config to keep it across reboots\n");
}
void parse_lag(void)
{
__xdata uint8_t group;
__xdata uint16_t members = 0;
if (cmd_compare(1, "show")) {
print_string("LAG status:\n");
for (uint8_t i = 0; i < 4; i++) {
write_char(' '); write_char('1' + i);
members = port_lag_members_get(i);
if (!members) {
print_string(" disabled\n");
continue;
}
print_string(" member ports: ");
for (uint8_t j = 0; j < 10; j++) {
if (members & 1) {
print_phys_port(j);
write_char(' ');
}
members >>= 1;
}
print_string(" (hash: 0x");
reg_read_m(RTL837X_TRK_HASH_CTRL_BASE + (i << 2));
print_byte(sfr_data[3]);
print_string(")\n");
}
return;
}
if (cmd_words_len < 3)
goto err;
// Parse group, expect only one number 0-9;
if (atoi_byte(cmd_words_b[1]) != 1)
goto err;
group = atoi_results_u8 - 1;
if (group > 3)
goto err;
if (cmd_compare(2, "d")) {
port_lag_members_set(group, 0);
return;
}
uint8_t w = 2;
while (w < cmd_words_len) {
// Parse port.
if (cmd_parse_port_separator(cmd_words_b[w++]) == 0)
goto err;
members |= ((uint16_t)1) << atoi_results_u8;
}
port_lag_members_set(group, members);
return;
err:
cmd_error("lag (show | <1-4> (d | <port>...))\n");
}
void parse_lag_hash(void)
{
// Parse group, expect only one number 0-9.
if (cmd_words_len < 3 || atoi_byte(cmd_words_b[1]) != 1)
goto err;
uint8_t group = atoi_results_u8 - 1;
if (group > 3)
goto err;
uint8_t hash = 0;
uint8_t w = 2;
while (w < cmd_words_len) {
if (cmd_compare(w, "spa"))
hash |= LAG_HASH_SOURCE_PORT_NUMBER;
else if (cmd_compare(w, "smac"))
hash |= LAG_HASH_L2_SMAC;
else if (cmd_compare(w, "dmac"))
hash |= LAG_HASH_L2_DMAC;
else if (cmd_compare(w, "sip"))
hash |= LAG_HASH_L3_SIP;
else if (cmd_compare(w, "dip"))
hash |= LAG_HASH_L3_DIP;
else if (cmd_compare(w, "sport"))
hash |= LAG_HASH_L4_SPORT;
else if (cmd_compare(w, "dport"))
hash |= LAG_HASH_L4_DPORT;
else {
print_string("Error: invalid hash type:");
print_string_x(&cmd_buffer[cmd_words_b[w]]);
write_char('\n');
goto err;
}
w++;
}
port_lag_hash_set(group, hash);
return;
err:
cmd_error("laghash <1-4> [smac|dmac|sip|dip|sport|dport]\n");
}
void parse_vlan(void)
{
vlan_settings.vlan = 0;
vlan_settings.members = 0;
vlan_settings.tagged = 0;
if (cmd_words_len < 2)
goto err;
// Parse the VLAN number
if (atoi_short(cmd_words_b[1]) != 0) {
if (atoi_results_short > 4094)
goto err;
vlan_settings.vlan = atoi_results_short;
if (cmd_compare(2, "mgmt")) {
port_l2_static_mgmt(uip_ethaddr.addr, management_vlan, true);
management_vlan = vlan_settings.vlan;
port_l2_static_mgmt(uip_ethaddr.addr, management_vlan, false);
if (!vlan_settings.vlan)
print_string("Management VLAN disabled\n");
else
print_string("Management VLAN set to "); print_short(management_vlan); write_char('\n');
return;
}
// Other commands vlan 0 is invalid
if (!vlan_settings.vlan)
goto err;
if (cmd_words_len == 3 && cmd_buffer[cmd_words_b[2]] == 'd') {
vlan_delete(vlan_settings.vlan);
return;
}
uint8_t w = 2;
uint8_t pos = cmd_words_b[w];
if (cmd_words_len > w && isletter(cmd_buffer[pos])) {
uint8_t i = 0;
while (!cmd_is_space_or_nul(pos + i))
i++;
if (vlan_ptr + i > (VLAN_NAMES_SIZE - 5)) {
print_string("VLAN name table full, name ignored\n");
} else {
vlan_name_remove(vlan_settings.vlan);
__xdata uint8_t *vlan_str = &vlan_names[vlan_ptr];
*vlan_str++ = hex[(vlan_settings.vlan >> 8) & 0xf];
*vlan_str++ = hex[(vlan_settings.vlan >> 4) & 0xf] ;
*vlan_str++ = hex[vlan_settings.vlan & 0xf];
while(!cmd_is_space_or_nul(pos)) {
uint8_t c = name_char(cmd_buffer[pos++]);
write_char(c);
*vlan_str++ = c;
}
*vlan_str++ = ' '; *vlan_str = NUL;
vlan_ptr = vlan_str - vlan_names;
print_string("<\n");
}
w++;
}
uint8_t ret;
uint8_t idx;
while (cmd_words_len > w) {
idx = cmd_words_b[w++];
ret = cmd_parse_port(idx);
if (ret == 0)
goto err;
idx += ret;
uint16_t pmask = ((uint16_t)1) << atoi_results_u8;
vlan_settings.members |= pmask;
if (cmd_buffer[idx] == 't') {
vlan_settings.tagged |= pmask;
idx++;
}
if (!cmd_is_space_or_nul(idx))
goto err;
}
vlan_create();
} else if (cmd_compare(1, "show")) {
vlan_dump();
} else {
goto err;
}
if (cmd_words_len >= 3 && isletter(cmd_buffer[cmd_words_b[2]])) {
print_string("vlan_ptr "); print_short(vlan_ptr); write_char(':');
write_char('>'); print_string_x(&vlan_names[0]); write_char('<'); write_char('\n');
}
return;
err:
cmd_error("vlan (<vlan-id>|show) [port][t]...\n");
}
void parse_isolate(void)
{
uint16_t members = 0;
if (cmd_words_len < 3)
goto err;
print_string("\nISOLATE ");
if (cmd_parse_port_separator(cmd_words_b[1]) == 0)
goto err;
uint8_t port_configured = atoi_results_u8;
print_byte(port_configured); write_char('\n');
if (cmd_compare(2, "show")) {
members = port_isolation_get(port_configured);
for (uint8_t i = 0; i < 10; i++) {
if (members & 1) {
print_phys_port(i);
write_char(' ');
}
members >>= 1;
}
return;
}
if (cmd_compare(2, "off")) {
for (uint8_t i = machine.min_port; i <= machine.max_port; i++)
members |= ((uint16_t)1) << i;
members |= 0x200; // CPU-port
port_isolate(port_configured, members);
return;
}
uint8_t w = 2;
while (w < cmd_words_len) {
if (cmd_parse_port_cpu_separator(cmd_words_b[w++]) == 0)
goto err;
uint8_t port = atoi_results_u8;
members |= ((uint16_t)1) << port;
}
port_isolate(port_configured, members);
return;
err:
cmd_error("isolate <port> [show|off] [port]...\n");
}
bool vlan_ingress_mode_parse(char c, __xdata vlan_ingress_mode_t *mode)
{
switch (c) {
case 'u':
*mode = VLAN_UNTAGGED;
return true;
case 't':
*mode = VLAN_TAGGED;
return true;
case 'a':
*mode = VLAN_ALL;
return true;
default:
*mode = VLAN_INVALID;
return false;
}
}
void parse_ingress(void)
{
if (cmd_words_len < 2) {
goto err;
}
uint8_t log_port = 0;
__xdata vlan_ingress_mode_t mode = VLAN_INVALID;
uint8_t idx = cmd_words_b[1];
if (vlan_ingress_mode_parse(cmd_buffer[idx++], &mode)) {
if (!cmd_is_space_or_nul(idx))
goto err;
// Setting mode for all ports at once
for (log_port = machine.min_port; log_port <= machine.max_port; log_port++) {
if (!port_ingress_filter(log_port, mode)) {
cmd_error("cannot set the ingress filter for port "); print_phys_port(log_port); write_char('\n');
return;
}
print_string("All ports ingress filter set to: ");
print_port_ingress_filter_mode(mode); write_char('\n');
}
} else {
for(uint8_t w = 1; w < cmd_words_len; w++) {
idx = cmd_words_b[w];
uint8_t ret = cmd_parse_port(idx);
if (ret != 1) {
cmd_error("Invalid physical port number\n");
continue;
}
log_port = atoi_results_u8;
idx += ret;
if (!vlan_ingress_mode_parse(cmd_buffer[idx++], &mode) || !cmd_is_space_or_nul(idx)) {
cmd_error("Invalid ingress mode for port "); print_phys_port(log_port); print_string(" in ingress command\n");
goto err;
}
if (!port_ingress_filter(log_port, mode)) {
cmd_error("cannot set the ingress filter for port "); print_phys_port(log_port); write_char('\n');
return;
}
print_string("Port "); print_phys_port(log_port);
print_string(" ingress filter set to: ");
print_port_ingress_filter_mode(mode); write_char('\n');
}
}
return;
err:
cmd_error("ingress [p]<u/t/a>...\n");
}
void parse_mirror(void)
{
__xdata uint8_t mirroring_port = 0;
__xdata uint16_t rx_pmask = 0;
__xdata uint16_t tx_pmask = 0;
if (cmd_compare(1, "status")) {
reg_read_m(RTL837x_MIRROR_CTRL);
uint8_t mPort = sfr_data[3];
if (mPort & 1) {
print_string("Enabled: ");
} else {
print_string("NOT Enabled: ");
}
print_string("Mirroring port: ");
print_phys_port(mirroring_port);
reg_read_m(RTL837x_MIRROR_CONF);
uint16_t m = sfr_data[0];
m = (m << 8) | sfr_data[1];
print_string(", Port mask RX: ");
print_short(m);
m = sfr_data[2];
m = (m << 8) | sfr_data[3];
print_string(", Port mask TX: ");
print_short(m);
write_char('\n');
return;
} else if (cmd_compare(1, "off")) {
port_mirror_del();
return;
}
if (cmd_words_len < 2)
goto err;
uint8_t w = 2;
uint8_t port;
uint8_t ret;
while (w < cmd_words_len) {
uint8_t idx = cmd_words_b[w++];
ret = cmd_parse_port(idx);
if (ret == 0)
goto err;
idx += ret;
port = atoi_results_u8;
// Use the first port argument as mirroring_port
if (w == 2)
mirroring_port = port;
ret = cmd_buffer[idx];
uint16_t pmask = ((uint16_t)1) << port;
if (ret != 't')
rx_pmask |= pmask;
if (ret != 'r')
tx_pmask |= pmask;
}
port_mirror_set(mirroring_port, rx_pmask, tx_pmask);
return;
err:
cmd_error("Port/command missing: mirror [status/off/<mirroring port> [port][t/r]]...\n");
return;
}
void parse_port(void)
{
if (cmd_words_len < 3) {
cmd_error("\nUsage:" \
"\nport <port> [show|on|off]" \
"\nport <port> [10m|100m|1g|2g5|duplex] [half|full]" \
"\nport <port> lldp [block|permit]" \
"\nport <port> name [custom port name]\n");
return;
}
if (cmd_parse_port_separator(cmd_words_b[1]) == 0) {
cmd_error("Invalid port number\n");
return;
}
phy_settings.port = atoi_results_u8;
print_string("Logical Port: "); print_byte(phy_settings.port); write_char('\n');
phy_settings.duplex = PHY_DUPLEX_BOTH;
if (cmd_compare(2, "show")) {
print_string("Name: ");
print_string_x(port_names[phy_settings.port]);
if (!machine.is_sfp[phy_settings.port]) {
phy_show(phy_settings.port);
} else {
write_char('\n');
}
port_media_show(phy_settings.port);
} else if (cmd_compare(2, "name")) {
uint8_t i = 0;
while ( cmd_words_len > 3 && (i < PORT_NAME_SIZE-1) && (cmd_buffer[cmd_words_b[3] + i] != NUL) ) {
port_names[phy_settings.port][i] = name_char(cmd_buffer[cmd_words_b[3] + i]);
i++;
}
port_names[phy_settings.port][i] = NUL;
print_string("\nName set to: \"");
print_string_x(port_names[phy_settings.port]);
print_string("\"\n");
} else if (cmd_compare(2, "lldp")) {
if (cmd_compare(3, "block")){
lldp_logical_port_status &= ~((uint16_t)1 << phy_settings.port);
} else if (cmd_compare(3, "permit")) {
lldp_logical_port_status |= (uint16_t)1 << phy_settings.port;
} else {
print_string ("Unknown port <port> lldp [block|permit] command\n");
}
} else if (machine.is_sfp[phy_settings.port]) {
print_string(" is SFP no PHY information available.\n");
} else if (cmd_compare(2, "10m")) {
print_string(" 10M\n");
phy_settings.speed = PHY_SPEED_10M;
if (cmd_compare(3, "half"))
phy_settings.duplex = PHY_DUPLEX_HALF;
else if (cmd_compare(3, "full"))
phy_settings.duplex = PHY_DUPLEX_FULL;
phy_set_speed();
} else if (cmd_compare(2, "100m")) {
print_string(" 100M\n");
phy_settings.speed = PHY_SPEED_100M;
if (cmd_compare(3, "half"))
phy_settings.duplex = PHY_DUPLEX_HALF;
else if (cmd_compare(3, "full"))
phy_settings.duplex = PHY_DUPLEX_FULL;
phy_set_speed();
} else if (cmd_compare(2, "10g")) {
print_string(" 10G\n");
phy_settings.speed = PHY_SPEED_10G;
phy_set_speed();
} else if (cmd_compare(2, "5g")) {
print_string(" 5G\n");
phy_settings.speed = PHY_SPEED_5G;
phy_set_speed();
} else if (cmd_compare(2, "2g5")) {
print_string(" 2.5G\n");
phy_settings.speed = PHY_SPEED_2G5;
phy_set_speed();
} else if (cmd_compare(2, "1g")) {
print_string(" 1G\n");
phy_settings.speed = PHY_SPEED_1G;
phy_set_speed();
} else if (cmd_compare(2, "auto")) {
print_string(" AUTO\n");
phy_settings.speed = PHY_SPEED_AUTO;
phy_set_speed();
} else if (cmd_compare(2, "off")) {
print_string(" OFF\n");
phy_settings.speed = PHY_OFF;
phy_set_speed();
} else if (cmd_compare(2, "on")) {
print_string(" ON\n");
phy_settings.speed = PHY_SPEED_AUTO;
phy_set_speed();
} else if (cmd_compare(2, "duplex")) {
print_string(" DUPLEX\n");
if (cmd_compare(3, "full"))
phy_settings.duplex = PHY_DUPLEX_FULL;
else
phy_settings.duplex = PHY_DUPLEX_HALF;
phy_set_duplex();
} else {
cmd_error("Unknown port command\n");
}
}
void parse_mtu(void)
{
uint8_t p;
if (cmd_compare(1, "show")) {
for (p = machine.min_port; p <= machine.max_port; p++) {
reg_read_m(RTL8373_REG_MAC_L2_PORT_MAX_LEN + ((uint16_t) p << 8));
uint16_t mtu = SFR_DATA_U16 & 0x3fff;
print_string("Port "); print_phys_port(p);
write_char(' '); print_short(mtu); write_char('\n');
}
return;
}
if (cmd_words_len != 3)
goto err;
if (cmd_parse_port_separator(cmd_words_b[1]) == 0)
goto err;
p = atoi_results_u8;
print_byte(p);
if (atoi_short(cmd_words_b[2]) == 0 || atoi_results_short < 64 || atoi_results_short > 0x3fff) {
cmd_error("MTU must be 64..16383\n");
return;
}
REG_WRITE(RTL8373_REG_MAC_L2_PORT_MAX_LEN + ((uint16_t) p << 8), (atoi_results_short >> 10) & 0xf, (atoi_results_short >> 2) & 0xff,
((atoi_results_short & 0x3) << 6) | ((atoi_results_short >> 8) & 0x3f), atoi_results_short & 0xff);
write_char('\n');
return;
err:
cmd_error("mtu [port] [size]\n");
return;
}
bool sfp_print_measurements(uint8_t sfp)
{
if (!sfp_read_block(sfp, 92, 1))
return false;
print_string("Options: "); print_byte(sfp_buf[0]); write_char('\n');
if (!(sfp_options[sfp] & 0x40))
return true;
if (!sfp_read_block(sfp, 224, 16))
return false;
print_string("Temp: "); print_byte(sfp_buf[0]); print_byte(sfp_buf[1]); write_char('\n');
print_string("Vcc: "); print_byte(sfp_buf[2]); print_byte(sfp_buf[3]); write_char('\n');
print_string("TX Bias: "); print_byte(sfp_buf[4]); print_byte(sfp_buf[5]); write_char('\n');
print_string("TX Power: "); print_byte(sfp_buf[6]); print_byte(sfp_buf[7]); write_char('\n');
print_string("RX Power: "); print_byte(sfp_buf[8]); print_byte(sfp_buf[9]); write_char('\n');
print_string("Laser: "); print_byte(sfp_buf[10]); print_byte(sfp_buf[11]); write_char('\n');
print_string("State: "); print_byte(sfp_buf[14]); write_char('\n');
return true;
}
void parse_sfp(void)
{
uint8_t slot;
if (cmd_words_len != 1 && cmd_words_len != 3)
goto err;
if (cmd_words_len == 1) {
for (slot = 0; slot < machine.n_sfp; slot++) {
print_string("\nSlot "); write_char('1' + slot);
if (gpio_pin_test(machine.sfp_port[slot].pin_detect)) {
print_string(" - empty\n");
continue;
}
if (!sfp_read_block(slot, 11, 2)) {
print_string(" - I2C read failed on this slot\n");
continue;
}
print_string(" - Rate: "); print_byte(sfp_buf[1]);
print_string(" Encoding: "); print_byte(sfp_buf[0]);
write_char('\n');
if (!sfp_print_info(slot) || !sfp_print_measurements(slot))
print_string("I2C read failed on this slot\n");
}
return;
}
uint8_t idx = cmd_words_b[1];
uint8_t ret = atoi_byte(idx);
idx += ret;
slot = atoi_results_u8 - 1;
if (ret == 0 || !cmd_is_space(idx) || slot > 1) {
cmd_error("Illegal SFP slot number\n");
return;
}
if (slot >= machine.n_sfp) {
cmd_error("SFP slot not present\n");
return;
}
if (cmd_compare(2, "10g")) {
print_string(" 10G\n");
sfp_speed[slot] = SFP_SPEED_10G;
} else if (cmd_compare(2, "2g5")) {
print_string(" 2.5G\n");
sfp_speed[slot] = SFP_SPEED_2G5;
} else if (cmd_compare(2, "1g")) {
print_string(" 1G\n");
sfp_speed[slot] = SFP_SPEED_1G;
} else if (cmd_compare(2, "100m")) {
print_string(" 100M\n");
sfp_speed[slot] = SFP_SPEED_100M;
} else if (cmd_compare(2, "auto")) {
print_string(" AUTO\n");
sfp_speed[slot] = SFP_SPEED_AUTO;
} else {
goto err;
}
sfp_pins_last |= 0x1 << (slot << 2);
handle_sfp();
return;
err:
cmd_error("\nUsage:\n\tsfp\n\tsfp [1|2] [1g|2g5|10g]\n");
}
void parse_regget(void)
{
if (cmd_words_len != 2) {
goto err;
}
uint8_t hex_size = atoi_hex(cmd_words_b[1]);
if (hex_size == 0 || hex_size > 2) {
goto err;
}
uint16_t reg = hexvalue[0];
if (hex_size == 2) {
reg <<= 8;
reg |= hexvalue[1];
}
print_string("REGGET: ");
print_short(reg);
print_string(": VAL: ");
reg_read_m(reg);
print_sfr_data();
write_char('\n');
return;
err:
cmd_error("regget <hexvalue>\n\tlike: regget 0BB0 or regget 0c");
return;
}
void parse_regset(void)
{
if (cmd_words_len != 3) {
goto err;
}
uint8_t hex_size = atoi_hex(cmd_words_b[1]);
if (hex_size == 0 || hex_size > 2) {
goto err;
}
uint16_t reg = hexvalue[0];
if (hex_size == 2) {
reg <<= 8;
reg |= hexvalue[1];
}
hex_size = atoi_hex(cmd_words_b[2]);
if (hex_size == 0 || hex_size > 4) {
goto err;
}
// zero sfr memory data
sfr_set_zero();
// copy data over sfr memory
uint8_t offset = 4 - hex_size;
while(hex_size) {
hex_size -= 1;
sfr_data[offset + hex_size] = hexvalue[hex_size];
}
print_string("REGSET: ");
print_short(reg);
reg_write_m(reg);
print_string(": VAL: ");
print_sfr_data();
write_char('\n');
return;
err:
cmd_error("regset <hexvalue> <hexvalue>\n\tlike regset 0b abcd1234.");
}
static void print_temperature(uint16_t reg)
{
int16_t v;
reg_read(reg);
v = SFR_DATA_U16;
if (v < 0) {
write_char('-');
v = -v;
}
itoa(v >> 7);
write_char('.');
itoa(((v & 0x7f) * 10) >> 7);
print_string(" C\n");
}
void parse_temp(void)
{
print_string("\nChip temperature: ");
print_temperature(RTL837X_TM_RESULT);
print_string("At power-on: ");
print_temperature(RTL837X_TM_RESULT_POWERON);
}
void parse_sdsget(void)
{
__xdata uint8_t sds_id, page, reg, hex_size;
if (cmd_words_len != 4) {
goto err;
}
if (!atoi_byte(cmd_words_b[1])) {
goto err;
}
sds_id = atoi_results_u8;
hex_size = atoi_hex(cmd_words_b[2]);
if (hex_size != 1) {
goto err;
}
page = hexvalue[0];
hex_size = atoi_hex(cmd_words_b[3]);
if (hex_size != 1) {
goto err;
}
reg = hexvalue[0];
print_string("SDSGET: ");
itoa(sds_id);
print_string(":0x");
print_byte(page);
print_string(":0x");
print_byte(reg);
print_string(": VAL: ");
sds_read(sds_id, page, reg);
print_phy_data();
write_char('\n');
return;
err:
cmd_error("sdsget <sds-id> <hex:page> <hex:reg>\n");
return;
}
void parse_sdsset(void)
{
__xdata uint8_t sds_id, page, reg, hex_size;
__xdata uint16_t val;
if (cmd_words_len != 5) {
goto err;
}
if (!atoi_byte(cmd_words_b[1])) {
goto err;
}
sds_id = atoi_results_u8;
hex_size = atoi_hex(cmd_words_b[2]);
if (hex_size != 1) {
goto err;
}
page = hexvalue[0];
hex_size = atoi_hex(cmd_words_b[3]);
if (hex_size != 1) {
goto err;
}
reg = hexvalue[0];
hex_size = atoi_hex(cmd_words_b[4]);
if (hex_size == 0 || hex_size > 2) {
goto err;
}
val = hexvalue[0];
if (hex_size == 2) {
val <<= 8;
val |= hexvalue[1];
}
print_string("SDSSET: ");
itoa(sds_id);
print_string(":0x");
print_byte(page);
print_string(":0x");
print_byte(reg);
print_string(": VAL: ");
sds_write_v(sds_id, page, reg, val);
print_short(val);
write_char('\n');
return;
err:
cmd_error("sdsset <sds-id> <hex:page> <hex:reg> <hex:val>\n");
return;
}
void parse_phyget(void)
{
__xdata uint8_t phy_id, dev_id, hex_size;
__xdata uint16_t reg;
if (cmd_words_len != 4) {
goto err;
}
if (!atoi_byte(cmd_words_b[1])) {
goto err;
}
phy_id = atoi_results_u8;
if (!atoi_byte(cmd_words_b[2])) {
goto err;
}
dev_id = atoi_results_u8;
hex_size = atoi_hex(cmd_words_b[3]);
if (hex_size == 0 || hex_size > 2) {
goto err;
}
reg = hexvalue[0];
if (hex_size == 2) {
reg <<= 8;
reg |= hexvalue[1];
}
print_string("PHYGET: ");
itoa(phy_id);
print_string(":");
itoa(dev_id);
print_string(".");
print_short(reg);
print_string(": VAL: ");
phy_read(phy_id, dev_id, reg);
print_phy_data();
write_char('\n');
return;
err:
cmd_error("phyget <phy-id> <dev-id> <hex:reg>\n");
return;
}
void parse_physet(void)
{
__xdata uint8_t phy_id, dev_id, hex_size;
__xdata uint16_t reg, val;
if (cmd_words_len != 5) {
goto err;
}
if (!atoi_byte(cmd_words_b[1])) {
goto err;
}
phy_id = atoi_results_u8;
if (!atoi_byte(cmd_words_b[2])) {
goto err;
}
dev_id = atoi_results_u8;
hex_size = atoi_hex(cmd_words_b[3]);
if (hex_size == 0 || hex_size > 2) {
goto err;
}
reg = hexvalue[0];
if (hex_size == 2) {
reg <<= 8;
reg |= hexvalue[1];
}
hex_size = atoi_hex(cmd_words_b[4]);
if (hex_size == 0 || hex_size > 2) {
goto err;
}
val = hexvalue[0];
if (hex_size == 2) {
val <<= 8;
val |= hexvalue[1];
}
print_string("PHYSET: ");
itoa(phy_id);
print_string(":");
itoa(dev_id);
print_string(".");
print_short(reg);
print_string(": VAL: ");
phy_write(phy_id, dev_id, reg, val);
print_short(val);
write_char('\n');
return;
err:
cmd_error("physet <phy-id> <dev-id> <hex:reg> <hex:val>\n");
return;
}
void parse_rnd(void)
{
// In order to get a new random numner, this bit has to be set each time!
reg_bit_set(RTL837X_RLDP_RLPP, RLDP_RND_EN);
reg_read_m(RTL837X_RAND_NUM1);
print_byte(sfr_data[2]);
print_byte(sfr_data[3]);
reg_read_m(RTL837X_RAND_NUM0);
print_byte(sfr_data[0]);
print_byte(sfr_data[1]);
print_byte(sfr_data[2]);
print_byte(sfr_data[3]);
write_char('\n');
}
void parse_passwd(void)
{
// cmd_words_len can be more then 2 if a SPACE in the password.
if (cmd_words_len >= 2) {
uint8_t i = cmd_words_b[1];
uint8_t c = 0;
uint8_t j = 0;
do {
c = cmd_buffer[i++];
passwd[j++] = c;
} while (c != NUL && j < 20);
passwd[j] = NUL;
return;
}
cmd_error("Missing password\n");
}
void parse_eee(void)
{
__xdata int8_t port = -1;
__xdata uint8_t speed = EEE_2G5;
__xdata uint8_t speed_word = 0;
if (machine.n_10g)
speed = EEE_10G;
// Check if word 2 is a speed (contains 'g' or 'm') or a port number
if (cmd_words_len >= 3) {
uint8_t idx = cmd_words_b[2];
// Skip digits to check if there's a letter after
while (isnumber(cmd_buffer[idx]))
idx++;
if (cmd_buffer[idx] == 'g' || cmd_buffer[idx] == 'm') {
// Word 2 is a speed (e.g., "2g5", "100m", "1g")
speed_word = 2;
} else if (cmd_is_space_or_nul(idx)) {
// Word 2 is a port number
if (cmd_parse_port_separator(cmd_words_b[2]) == 0) {
cmd_error("Speed word invalid, use: [100m|1g|2g5]\n");
return;
}
port = atoi_results_u8;
// Check if word 3 is a speed
if (cmd_words_len >= 4)
speed_word = 3;
}
}
// Parse speed if found
if (speed_word > 0) {
if (cmd_compare(speed_word, "100m"))
speed = EEE_100;
else if (cmd_compare(speed_word, "1g"))
speed = EEE_1000;
else if (cmd_compare(speed_word, "2g5"))
speed = EEE_2G5;
else
{
cmd_error("Speed word invalid, use: [100m|1g|2g5]\n");
return;
}
}
if (cmd_compare(1, "on")) {
if (port >= 0)
port_eee_enable(port, speed);
else
port_eee_enable_all(speed);
} else if (cmd_compare(1, "off")) {
if (port >= 0)
port_eee_disable(port);
else
port_eee_disable_all();
} else if (cmd_compare(1, "status")) {
if (port >= 0)
port_eee_status(port);
else
port_eee_status_all();
} else {
cmd_error("eee [on|off|status] [port] [100m|1g|2g5]\n");
}
}
void parse_bw(void)
{
if (cmd_words_len < 3) // Check for at least 3 arguments
goto err;
if (cmd_parse_port_separator(cmd_words_b[2]) == 0)
goto err;
uint8_t port = atoi_results_u8;
if (cmd_compare(1, "status")) {
bandwidth_status(port);
return;
}
if (cmd_words_len < 4) // Check for at least 4 arguments
goto err;
// Ensure first argument is only `in` or `out`.
__bit is_in = cmd_compare(1, "in") != 0;
if (!(is_in || cmd_compare(1, "out")))
goto err;
if (cmd_compare(3, "drop")) {
if (is_in) {
bandwidth_ingress_drop(port);
return;
}
goto err;
}
if (cmd_compare(3, "fc")) {
if (is_in) {
bandwidth_ingress_fc(port);
return;
}
goto err;
}
if (cmd_compare(3, "off")) {
if (is_in) {
bandwidth_ingress_disable(port);
} else {
bandwidth_egress_disable(port);
}
return;
}
__xdata uint32_t bw = 0;
uint8_t hex_size = atoi_hex(cmd_words_b[3]);
if (hex_size == 0 || hex_size > 4)
goto err;
uint8_t i = 0;
do {
hex_size--;
*(((uint8_t *) &bw) + hex_size) = hexvalue[i++];
} while (hex_size);
if (is_in) {
bandwidth_ingress_set(port, bw);
} else {
bandwidth_egress_set(port, bw);
}
return;
err:
cmd_error("bw [in|out|status] <port> [<hexvalue>|off|drop|fc]\n");
}
static __code const char * __code const storm_types[STORM_TYPES] = { "bcast", "mcast", "ucast", "umcast" };
void parse_storm(void)
{
uint8_t port, type, d;
__xdata uint32_t rate;
__xdata uint8_t *p;
if (cmd_words_len == 1)
return storm_show();
if (cmd_words_len < 4 || !cmd_parse_port_separator(cmd_words_b[1]))
goto err;
port = atoi_results_u8;
type = 0;
while (!cmd_compare(2, storm_types[type])) {
if (++type == STORM_TYPES)
goto err;
}
if (cmd_words_len == 4 && cmd_compare(3, "off"))
return storm_off(port, type);
if (cmd_words_len != 5)
goto err;
rate = 0;
p = &cmd_buffer[cmd_words_b[3]];
do {
d = *p++ - '0';
if (d > 9 || rate > 99999999)
goto err;
rate = (rate << 3) + (rate << 1) + d;
} while (*p != ' ' && *p != NUL);
if (cmd_compare(4, "pps")) {
if (!rate || rate > 0xfffff)
goto err;
storm_set(port, type, rate, 1);
} else if (cmd_compare(4, "kbps")) {
if (!rate || rate > 10000000)
goto err;
storm_set(port, type, rate, 0);
} else {
goto err;
}
return;
err:
print_string("usage: storm [<port> bcast|mcast|ucast|umcast <rate> pps|kbps|off]\n");
}
void parse_syslog(void)
{
if (cmd_words_len < 2) // no argument -> print status
{
print_string("Current syslog status: ");
if (syslog_state.enabled) {
print_string("enabled, sending to ");
print_ip(syslog_state.server_ip);
write_char(':'); itoa_short(syslog_state.server_port);
write_char('\n');
} else {
print_string("disabled\n");
}
return;
}
if (cmd_compare(1, "on")) {
syslog_start();
} else if (cmd_compare(1, "off")){
syslog_stop();
} else if (cmd_compare(1, "ip")) {
if (cmd_words_len < 3) { // no additional arguemnt -> print current ip
print_string("Current syslog IP: ");
print_ip(syslog_state.server_ip);
return;
} else if (parse_ip(cmd_words_b[2]) != 0) {
uint8_t was_enabled = syslog_state.enabled;
if (was_enabled)
syslog_stop();
print_string("Setting new syslog IP.\n");
syslog_state.server_ip[0] = ip[0]; syslog_state.server_ip[1] = ip[1];
syslog_state.server_ip[2] = ip[2]; syslog_state.server_ip[3] = ip[3];
if (was_enabled)
syslog_start();
} else {
cmd_error("Invalid IP address\n");
}
} else if (cmd_compare(1, "port")) {
if (cmd_words_len < 3) { // no additional argument -> print current port
print_string("Current syslog port: ");
itoa_short(syslog_state.server_port); write_char('\n');
return;
}
/* atoi_short() returns zero for no digits and for a value past
* 65535; port zero is not a port either, so both tests are needed. */
if (!atoi_short(cmd_words_b[2]) || !atoi_results_short) {
cmd_error("Invalid port\n");
return;
}
/* The port is frozen into the connection by uip_udp_new(), so
* changing it has to tear the connection down and build a new one -
* same dance as setting the address above. */
syslog_port_was_on = syslog_state.enabled;
if (syslog_port_was_on)
syslog_stop();
print_string("Setting new syslog port.\n");
syslog_state.server_port = atoi_results_short;
if (syslog_port_was_on)
syslog_start();
}
else
{
cmd_error("syslog [on|off|ip [ip-address]|port [number]]\n"
" on/off enables or disables syslog, ip sets the syslog server IP address,\n"
" port sets the destination UDP port (default 514)\n");
}
}
void parse_session(void)
{
if (cmd_words_len >= 2) {
/* atoi_short() returns zero for no digits and for a value past
* 65535; a zero-second timeout is not useful either, so both
* tests are needed. */
if (!atoi_short(cmd_words_b[1]) || !atoi_results_short) {
print_string("Must be 1-65535 s\n");
return;
}
session_timeout = atoi_results_short;
}
/* Also the confirmation after setting: one message for both. */
print_string("Session timeout: ");
itoa_short(session_timeout);
print_string(" s\n");
}
// Parse command into words
// cmd_words_len contains the number of words found.
// cmd_words_b[] contains only start of a word offset.
// Returns the parsing status via `err_status`-variable.
void cmd_tokenize(void) __banked
{
#ifdef DEBUG
print_string("Tokenizing command\n");
print_string_x(&cmd_buffer[0]);
write_char('<'); write_char('\n');
#endif
err_status = ERR_OK;
uint8_t line_ptr = 0;
uint8_t is_white = 1;
uint8_t word = 0;
uint8_t c = 0;
while(1) {
c = cmd_buffer[line_ptr];
if (c == NUL) {
// Store the word count
cmd_words_len = word;
break;
}
if (line_ptr == CMD_BUF_SIZE - 1) {
err_status = ERR_CMD_TOO_LONG;
return;
}
if (is_white && c != ' ') {
is_white = 0;
cmd_words_b[word++] = line_ptr;
if (word >= N_WORDS) {
cmd_words_len = 0;
print_string("\nSyntax error: too many arguments.");
err_status = ERR_TOO_MANY_ARGUMENTS;
return;
}
} else if (c == ' ') {
is_white = 1;
}
line_ptr++;
}
}
// Print GPIO status
void print_gpio_status(void) {
for (uint8_t idx = 0; idx < 2; idx++) {
reg_read(RTL837X_REG_GPIO_00_31_INPUT + (idx * 4));
print_string("GPIO ");
write_char(idx + '0');
write_char(':');
write_char(' ');
print_byte(SFR_DATA_24);
print_byte(SFR_DATA_16);
print_byte(SFR_DATA_8);
print_byte(SFR_DATA_0);
write_char(' ');
print_byte( gpio_last_value[(idx *4)] ^ SFR_DATA_24);
gpio_last_value[(idx *4)] = SFR_DATA_24;
print_byte( gpio_last_value[(idx *4) + 1] ^ SFR_DATA_16);
gpio_last_value[(idx *4) + 1] = SFR_DATA_16;
print_byte( gpio_last_value[(idx *4) + 2] ^ SFR_DATA_8);
gpio_last_value[(idx *4) + 2] = SFR_DATA_8;
print_byte( gpio_last_value[(idx *4) + 3] ^ SFR_DATA_0);
gpio_last_value[(idx *4) + 3] = SFR_DATA_0;
write_char('\n');
}
}
// Show software version
void print_sw_version(void) __banked {
print_string("Software version: " VERSION_SW);
print_string("\nBuild date: " BUILD_DATE);
print_string("\nHardware: ");
print_string(machine.machine_name);
write_char('\n');
}
// Identify command
void cmd_parser(void) __banked
{
#ifdef DEBUG
print_long(ticks);
print_string("Parsing command\n");
print_string_x(&cmd_buffer[0]);
write_char('<'); write_char('\n');
print_string("CMD-words: ");
print_byte(cmd_words_len); write_char(' ');
print_byte(cmd_words_b[0]); write_char(' ');
print_byte(cmd_words_b[1]); write_char(' ');
print_byte(cmd_words_b[2]); write_char(' ');
print_byte(cmd_words_b[3]); write_char(' ');
print_byte(cmd_words_b[4]); write_char(' ');
print_byte(cmd_words_b[5]); write_char(' ');
print_byte(cmd_words_b[6]); write_char('\n');
#endif
if (cmd_words_len >= 1) {
if (cmd_compare(0, "reset")) {
print_string("\nRESET\n\n");
reset_chip();
} else if (cmd_compare(0, "sfp")) {
parse_sfp();
} else if (cmd_compare(0, "stat")) {
port_stats_print();
} else if (cmd_compare(0, "flash") && cmd_words_len == 2) {
uint8_t c = cmd_buffer[cmd_words_b[1]];
if (c == 's') {
print_string("\nSECURITY REGISTERS\n");
// The following will only show something else than 0xff if it was programmed for a managed switch
print_string("Region 1: ");
flash_region.addr = 0x0001000;
flash_region.len = 40;
flash_read_security();
print_string("\nRegion 2: ");
flash_region.addr = 0x0002000;
flash_region.len = 40;
flash_read_security();
print_string("\nRegion 3: ");
flash_region.addr = 0x0003000;
flash_region.len = 40;
flash_read_security();
} else if (c == 'j') {
print_string("\nJEDEC ID\n");
flash_read_jedecid();
} else if (c == 'u') {
print_string("\nUNIQUE ID (note: only 4 bytes are likely correct here!)\n");
flash_read_uid();
}
} else if (cmd_compare(0, "port")) {
parse_port();
} else if (cmd_compare(0, "mtu")) {
parse_mtu();
} else if (cmd_compare(0, "syslog")) {
parse_syslog();
} else if (cmd_compare(0, "dns")) {
dns_parse();
} else if (cmd_compare(0, "ntp") || cmd_compare(0, "time")) {
ntp_parse();
} else if (cmd_compare(0, "ip")) {
if (cmd_compare(1, "dhcp")) {
dhcp_start();
} else if (cmd_words_len == 1) {
print_string("Current IP: ");
print_ip(uip_hostaddr);
if (dhcp_state.state == DHCP_LEASING) {
print_string(" (dhcp, renewal in sec: ");
print_short(dhcp_state.dhcp_timer);
write_char(')');
} else {
print_string(" (static)");
}
write_char('\n');
} else {
if (dhcp_state.state)
dhcp_stop();
if (parse_ip(cmd_words_b[1]) != 0) {
uip_ipaddr(&uip_hostaddr, ip[0], ip[1], ip[2], ip[3]);
print_string("Setting ip: ");
print_ip(ip); write_char('\n');
} else {
cmd_error("Invalid IP address\n" \
"Error: ip [<ip-address>|dhcp]\n" \
" The dhcp option enables the dhcp client, calling ip without options prints the current IP\n" \
" Calling with a valid IP address will stop any ongoing dhcp client and set the IP address\n");
}
}
} else if (cmd_compare(0, "gw")) {
if (cmd_words_len == 1) {
print_string("Current gw: ");
print_ip(uip_draddr); write_char('\n');
} else {
if (parse_ip(cmd_words_b[1]) != 0) {
uip_ipaddr(&uip_draddr, ip[0], ip[1], ip[2], ip[3]);
print_string("Setting gw: ");
print_ip(ip); write_char('\n');
} else {
cmd_error("Invalid IP address\n" \
"Error: gw <ip-address>\n");
}
}
} else if (cmd_compare(0, "netmask")) {
if (cmd_words_len == 1) {
print_string("Current netmask: ");
print_ip(uip_netmask); write_char('\n');
} else {
if (parse_ip(cmd_words_b[1]) != 0) {
uip_ipaddr(&uip_netmask, ip[0], ip[1], ip[2], ip[3]);
print_string("Setting netmask: ");
print_ip(ip); write_char('\n');
} else {
cmd_error("Invalid IP address\n");
}
}
write_char('\n');
} else if (cmd_compare(0, "l2")) {
if (cmd_compare(1, "forget"))
port_l2_forget();
else
port_l2_learned();
} else if (cmd_compare(0, "igmp")) {
if (cmd_compare(1, "on"))
igmp_enable();
else if (cmd_compare(1, "off"))
igmp_setup();
else if (cmd_compare(1, "show"))
igmp_show();
else {
cmd_error("igmp on|off|show\n");
}
} else if (cmd_compare(0, "mac")) {
parse_mac_cmd();
} else if (cmd_compare(0, "hostname")) {
/* "hostname" alone reports the current name; "hostname <text>"
* sets it, sanitized to JSON-safe printable ASCII. A name with
* spaces would tokenize into several words - reject it instead
* of silently keeping the first one. */
if (cmd_words_len == 1) {
print_string_x(hostname);
write_char('\n');
} else if (cmd_words_len == 2) {
__xdata uint8_t *hp = &cmd_buffer[cmd_words_b[1]];
__xdata char *dst = hostname;
for (uint8_t hn = 0; hn < sizeof(hostname) - 1; hn++) {
uint8_t c = *hp++;
if (c == NUL || c == '\r' || c == '\n')
break;
*dst++ = name_char(c);
}
*dst = NUL;
} else {
cmd_error("hostname [name] - the name must not contain spaces\n");
}
} else if (cmd_compare(0, "stp")) {
stp_parse();
#ifdef HEALTH
} else if (cmd_compare(0, "health")) {
health_show();
#endif
} else if (cmd_compare(0, "pvid")) {
if (cmd_words_len == 3 && cmd_parse_port_separator(cmd_words_b[1]) != 0
&& atoi_short(cmd_words_b[2]) && atoi_results_short && atoi_results_short <= 4094)
port_pvid_set(atoi_results_u8, atoi_results_short);
else {
cmd_error("pvid <port> <1-4094>\n");
}
} else if (cmd_compare(0, "vlan")) {
parse_vlan();
} else if (cmd_compare(0, "isolate")) {
parse_isolate();
} else if (cmd_compare(0, "mirror")) {
parse_mirror();
} else if (cmd_compare(0, "lag")) {
parse_lag();
} else if (cmd_compare(0, "laghash")) {
parse_lag_hash();
} else if (cmd_compare(0, "sds")) {
print_reg(RTL837X_REG_SDS_MODES);
write_char('\n');
} else if (cmd_compare(0, "gpio")) {
print_gpio_status();
} else if (cmd_compare(0, "leds")) {
leds_dump();
} else if (cmd_compare(0, "regget")) {
parse_regget();
} else if (cmd_compare(0, "regset")) {
parse_regset();
} else if (cmd_compare(0, "sdsget")) {
parse_sdsget();
} else if (cmd_compare(0, "sdsset")) {
parse_sdsset();
} else if (cmd_compare(0, "phyget")) {
parse_phyget();
} else if (cmd_compare(0, "physet")) {
parse_physet();
} else if (cmd_compare(0, "rnd")) {
parse_rnd();
} else if (cmd_compare(0, "passwd")) {
parse_passwd();
} else if (cmd_compare(0, "eee")) {
parse_eee();
} else if (cmd_compare(0, "bw")) {
parse_bw();
} else if (cmd_compare(0, "temp")) {
parse_temp();
} else if (cmd_compare(0, "storm")) {
parse_storm();
} else if (cmd_compare(0, "version")) {
print_sw_version();
} else if (cmd_compare(0, "history")) {
__xdata uint16_t p = (cmd_history_ptr + 1) & CMD_HISTORY_MASK;
__xdata uint8_t found_begin = 0;
// print_string("History ptr: ");
// print_short(cmd_history_ptr); write_char('\n');
while (p != cmd_history_ptr) {
// print_short(p); write_char(' ');
if (!cmd_history[p] || cmd_history[p] == '\n')
found_begin = 1;
if (found_begin && cmd_history[p])
write_char(cmd_history[p]);
p = (p + 1) & CMD_HISTORY_MASK;
}
} else if (cmd_compare(0, "ingress")) {
parse_ingress();
} else if (cmd_compare(0, "session")) {
parse_session();
} else if (cmd_compare(0, "lldp")) {
if (cmd_compare(1, "on")) {
print_string("LLDP enabled\n");
lldp_enabled = 1;
trap_rma_set(RTL837X_RMA0E_CONF, RTL837X_RMA_ACT_TRAP);
} else {
print_string("LLDP disabled\n");
lldp_enabled = 0;
trap_rma_set(RTL837X_RMA0E_CONF, RTL837X_RMA_ACT_FORWARD);
}
}
else {
cmd_error("Unknown command\n");
}
if (save_cmd && cmd_words_len && err_status == ERR_OK) {
// Find end of the cmd-buffer, looking for the NUL-byte.
uint8_t i = cmd_words_b[cmd_words_len - 1];
do {
i++;
} while(cmd_buffer[i] != NUL);
// Copy last cmd-buffer to history.
cmd_history_ptr = (cmd_history_ptr + i) & CMD_HISTORY_MASK;
__xdata uint16_t p = cmd_history_ptr;
cmd_history[cmd_history_ptr] = '\n';
cmd_history_ptr = (cmd_history_ptr + 1) & CMD_HISTORY_MASK;
do {
i--;
cmd_history[--p & CMD_HISTORY_MASK] = cmd_buffer[i];
} while (i);
}
}
}
void clear_command_history(void) __banked
{
for (cmd_history_ptr = 0; cmd_history_ptr < CMD_HISTORY_SIZE; cmd_history_ptr++)
cmd_history[cmd_history_ptr] = 0;
cmd_history_ptr = 0;
return;
}
#define FLASH_READ_BURST_SIZE 0x100
#define PASSWORD "1234"
#if CONFIG_LEN % FLASH_READ_BURST_SIZE
#error "CONFIG_LEN not a multiple of FLASH_READ_BURST_SIZE"
#endif
void execute_config(void) __banked
{
__xdata uint32_t pos = CONFIG_START;
__xdata uint8_t pages_left = CONFIG_LEN / FLASH_READ_BURST_SIZE;
// Set default password, it can be overwritten in the configuration file
strtox(passwd, PASSWORD);
save_cmd = 0;
uint8_t cmd_idx = 0;
uint8_t skipping = 0;
do {
flash_region.addr = pos;
flash_region.len = FLASH_READ_BURST_SIZE;
flash_read_bulk(flash_buf);
__xdata uint8_t cfg_idx = 0;
uint8_t c = 0;
do {
if (cmd_idx >= (CMD_BUF_SIZE - 1)) {
cmd_buffer[cmd_idx] = NUL;
print_string("ERROR: Command too long, skipped: ");
print_string_x(cmd_buffer);
write_char('\n');
cmd_idx = 0;
skipping = 1;
}
c = flash_buf[cfg_idx++];
if (c == 0 || c == '\n') {
if (skipping) {
skipping = 0;
} else {
cmd_buffer[cmd_idx] = NUL;
if (cmd_idx) {
cmd_tokenize();
if (err_status == ERR_OK)
cmd_parser();
}
}
if (c == 0)
goto config_done;
cmd_idx = 0;
continue;
}
if (!skipping) {
cmd_buffer[cmd_idx] = c;
cmd_idx++;
}
} while (cfg_idx);
pages_left--;
pos += FLASH_READ_BURST_SIZE;
} while(pages_left);
config_done:
// Start saving commands to cmd_history
clear_command_history();
save_cmd = 1;
}
// Execute multiple commands
// If a command is too long or can't be tokenized, remaining commands are not executed
// Returns the status via `err_status`-variable.
void execute_commands(__xdata uint8_t *p) __banked {
__xdata uint8_t failed = ERR_OK;
err_status = ERR_OK;
uint8_t cmd_idx = 0;
while (1) {
if (*p == 0 || *p == '\n' || *p == '\r') {
if (cmd_idx) {
cmd_buffer[cmd_idx] = NUL;
cmd_tokenize();
if (err_status != ERR_OK)
return;
cmd_parser();
if (failed == ERR_OK)
failed = err_status;
}
if (*p == 0) {
err_status = failed;
return;
}
cmd_idx = 0;
} else {
if (cmd_idx < (CMD_BUF_SIZE - 1)) {
cmd_buffer[cmd_idx++] = *p;
} else {
cmd_buffer[CMD_BUF_SIZE - 1] = NUL;
print_string("ERROR: Command too long: ");
print_string_x(cmd_buffer);
write_char('\n');
err_status = ERR_CMD_TOO_LONG;
return;
}
}
p++;
};
}
#ifdef HEALTH
/*
* Health instrumentation. The counters live in xdata and are fed from the
* main loop through the banked entry points below; the "health" command
* prints everything in one go. All figures are raw hex, diffing two dumps
* gives the rates. Phase times are in system ticks (SYS_TICK_HZ = 200,
* 5 ms each); a phase counts as slow when it spans 2 or more ticks.
*/
extern __xdata uint16_t len_left; /* httpd: bytes still to send of the current file */
extern __xdata uint8_t entry; /* httpd: index of the file being sent */
static __xdata uint32_t health_loops;
__xdata uint16_t health_rx_frames;
static __xdata uint16_t ph_last_t;
static __xdata uint8_t ph_max[HEALTH_PHASES];
static __xdata uint16_t ph_slow[HEALTH_PHASES];
/* The ISR increments ticks between the two byte reads of a 16-bit load, so
* read until two loads agree. */
static uint16_t ticks_lo(void)
{
uint16_t a, b;
a = (uint16_t)ticks;
do {
b = a;
a = (uint16_t)ticks;
} while (a != b);
return a;
}
void health_loop_start(void) __banked
{
health_loops++;
ph_last_t = ticks_lo();
}
void health_phase(uint8_t id) __banked
{
__xdata uint16_t now = ticks_lo();
__xdata uint16_t d = now - ph_last_t;
ph_last_t = now;
if (d > 0xff)
d = 0xff;
if ((uint8_t)d > ph_max[id])
ph_max[id] = d;
if (d >= 2)
ph_slow[id]++;
}
/* Fill the stack area above the current frame with a pattern; the dump scans
* for how much of it survived. The 8051 stack grows upward, so everything
* above SP is free at this point. Interrupts are held off so an ISR does not
* push into the area mid-paint. */
void health_stack_paint(void) __banked
{
__xdata uint8_t from = SP + 4;
__xdata uint8_t ea = EA;
EA = 0;
for (uint8_t i = 0xff; i >= from; i--)
*(__idata uint8_t *)i = 0xa5;
EA = ea;
}
static void ph_line(__code const char *name, uint8_t id)
{
print_string(name);
print_string(" max ");
print_byte(ph_max[id]);
print_string(" slow ");
print_short(ph_slow[id]);
write_char('\n');
}
void health_show(void) __banked
{
__xdata uint8_t i;
print_string("up ");
reg_read_m(RTL837X_REG_SEC_COUNTER);
print_byte(sfr_data[0]); print_byte(sfr_data[1]);
print_byte(sfr_data[2]); print_byte(sfr_data[3]);
print_string(" ticks ");
print_long(ticks);
print_string(" loops ");
print_long(health_loops);
print_string(" rx ");
print_short(health_rx_frames);
write_char('\n');
/* Phase timing: max duration seen (ticks of 5 ms) and slow-pass count */
ph_line("link", HEALTH_PH_LINK);
ph_line("sfp ", HEALTH_PH_SFP);
ph_line("rx ", HEALTH_PH_RX);
ph_line("tx ", HEALTH_PH_TX);
ph_line("stp ", HEALTH_PH_STP);
ph_line("cmd ", HEALTH_PH_CMD);
/* Stack: current depth plus how much of the painted area is untouched */
print_string("sp ");
print_byte(SP);
print_string(" untouched ");
i = 0;
while (*(__idata uint8_t *)(0xff - i) == 0xa5 && i < 0x86)
i++;
print_byte(i);
write_char('\n');
/* The TCP connection slot. One on this configuration; a build with more
* has to say which slot each line is, so make that a visible decision. */
#if UIP_CONNS != 1
#error "health: the tcp dump prints a single slot, extend it for UIP_CONNS > 1"
#endif
i = 0;
{
print_string("tcp ");
print_string("st ");
print_byte(uip_conns[i].tcpstateflags);
print_string(" tmr ");
print_byte(uip_conns[i].timer);
print_string(" rtx ");
print_byte(uip_conns[i].nrtx);
print_string(" rto ");
print_byte(uip_conns[i].rto);
print_string(" len ");
print_short(uip_conns[i].len);
print_string(" mss ");
print_short(uip_conns[i].mss);
write_char('\n');
print_string(" lport ");
print_short(HTONS(uip_conns[i].lport));
print_string(" rport ");
print_short(HTONS(uip_conns[i].rport));
print_string(" rip ");
print_short(HTONS(uip_conns[i].ripaddr[0]));
write_char(' ');
print_short(HTONS(uip_conns[i].ripaddr[1]));
write_char('\n');
}
/* httpd transfer state and the protocol flags */
print_string("httpd left ");
print_short(len_left);
print_string(" entry ");
print_byte(entry);
print_string(" stp ");
print_byte(stp_enabled);
print_string(" mvlan ");
print_short(management_vlan);
write_char('\n');
}
#endif
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