Test results for version 1.62

# STR710

## Connectivity

ID | Target | Interface | Description | Initial state | Input | Expected output | Actual output | Pass/Fail
CON001 | STR912 | ZY1000 | Telnet connection | Power on, jtag target attached | On console, type `telnet ip port` | `Open On-Chip Debugger >` | `> telnet 10.0.0.142 Trying 10.0.0.142... Connected to 10.0.0.142. Escape character is '^]'. Open On-Chip Debugger >` | PASS
CON002 | STR912 | ZY1000 | GDB server connection | Power on, jtag target attached | On GDB console, type `target remote ip:port` | `Remote debugging using 10.0.0.73:3333` | `(gdb) tar remo 10.0.0.142:3333 Remote debugging using 10.0.0.142:3333 0x00016434 in ?? () (gdb)` | PASS

## Reset

ID | Target | Interface | Description | Initial state | Input | Expected output | Actual output | Pass/Fail
RES001 | STR912 | ZY1000 | Reset halt on a blank target | Erase all the content of the flash | Connect via the telnet interface and type `reset halt` | Reset should return without error and the output should contain `target state: halted` | `> mdw 0 32 0x00000000: 75755000 8a930104 65696f65 939a3e98 214751f1 fa0edb9b 6664686d 931a989e 0x00000020: 676c65e4 9a0a0982 25653445 da02ba90 c4ed3165 9b9a8a9a 65676365 01981292 0x00000040: 212e0982 82ba3f8b 34674765 96ba1a9a 6175e7e5 9b9ab91a 0789644d 120a9a18 0x00000060: 65446167 80d20982 6d6d6565 187090ca 65277d65 9a9a0b81 6960416c 9ffe88b8 > reset jtag_speed 6400 => JTAG clk=0.010000 10 kHz JTAG tap: str710.cpu tap/device found: 0x3f0f0f0f (mfg: 0x787, part: 0xf0f0, ver: 0x3) >` | PASS
RES002 | STR912 | ZY1000 | Reset init on a blank target | Erase all the content of the flash | Connect via the telnet interface and type `reset init` | Reset should return without error and the output should contain `executing reset script 'name_of_the_script'` | `> reset init jtag_speed 6400 => JTAG clk=0.010000 10 kHz JTAG tap: str710.cpu tap/device found: 0x3f0f0f0f (mfg: 0x787, part: 0xf0f0, ver: 0x3) srst pulls trst - can not reset into halted mode. Issuing halt after reset. target state: halted target halted in ARM state due to debug-request, current mode: Undefined instruction cpsr: 0xf00000db pc: 0x00000004 jtag_speed 10 => JTAG clk=6.400000 6400 kHz` | PASS
RES003 | STR912 | ZY1000 | Reset after a power cycle of the target | Reset the target then power cycle the target | Connect via the telnet interface and type `reset halt` after the power was detected | Reset should return without error and the output should contain `target state: halted` | `nsed power dropout. nsed power dropout. nsed nSRST deasserted. invalid mode value encountered 0 cpsr contains invalid mode value - communication failure jtag_speed 6400 => JTAG clk=0.010000 10 kHz JTAG tap: str710.cpu tap/device found: 0x3f0f0f0f (mfg: 0x787, part: 0xf0f0, ver: 0x3) srst pulls trst - can not reset into halted mode. Issuing halt after reset. target state: halted target halted in ARM state due to debug-request, current mode: Supervisor cpsr: 0x100000d3 pc: 0x0000001c jtag_speed 10 => JTAG clk=6.400000 6400 kHz nsed power restore. jtag_speed 6400 => JTAG clk=0.010000 10 kHz JTAG tap: str710.cpu tap/device found: 0x3f0f0f0f (mfg: 0x787, part: 0xf0f0, ver: 0x3) srst pulls trst - can not reset into halted mode. Issuing halt after reset. target state: halted target halted in ARM state due to debug-request, current mode: Supervisor cpsr: 0x500000d3 pc: 0x00000000 jtag_speed 10 => JTAG clk=6.400000 6400 kHz > reset init jtag_speed 6400 => JTAG clk=0.010000 10 kHz JTAG tap: str710.cpu tap/device found: 0x3f0f0f0f (mfg: 0x787, part: 0xf0f0, ver: 0x3) srst pulls trst - can not reset into halted mode. Issuing halt after reset. target state: halted target halted in ARM state due to debug-request, current mode: Supervisor cpsr: 0x500000d3 pc: 0x00000000 jtag_speed 10 => JTAG clk=6.400000 6400 kHz >` | PASS
RES004 | STR912 | ZY1000 | Reset halt on a blank target where reset halt is supported | Erase all the content of the flash | Connect via the telnet interface and type `reset halt` | Reset should return without error and the output should contain `target state: halted` | `> reset halt jtag_speed 6400 => JTAG clk=0.010000 10 kHz JTAG tap: str710.cpu tap/device found: 0x3f0f0f0f (mfg: 0x787, part: 0xf0f0, ver: 0x3) srst pulls trst - can not reset into halted mode. Issuing halt after reset. target state: halted target halted in ARM state due to debug-request, current mode: Supervisor cpsr: 0x200000d3 pc: 0xfe50cba4 >` | PASS
RES005 | STR912 | ZY1000 | Reset halt on a blank target using return clock | Erase all the content of the flash, set the configuration script to use RCLK | Connect via the telnet interface and type `reset halt` | Reset should return without error and the output should contain `target state: halted` | `> jtag_khz 0 RCLK - adaptive RCLK timeout RCLK timeout RCLK timeout > reset halt RCLK timeout jtag_speed 6400 => JTAG clk=0.010000 10 kHz JTAG tap: str710.cpu tap/device found: 0x3f0f0f0f (mfg: 0x787, part: 0xf0f0, ver: 0x3) srst pulls trst - can not reset into halted mode. Issuing halt after reset. target state: halted target halted in ARM state due to debug-request, current mode: Supervisor cpsr: 0x200000d3 pc: 0xfe50cb50` | FAIL

## JTAG Speed

ID | Target | ZY1000 | Description | Initial state | Input | Expected output | Actual output | Pass/Fail
SPD001 | STR912 | ZY1000 | 16MHz on normal operation | Reset init the target according to RES002 | Change speed and exercise a memory access over the JTAG, for example `mdw 0x0 32` | The command should run without any errors. If any JTAG checking errors happen, the test failed | `> jtag_khz 16000 jtag_speed 4 => JTAG clk=16.000000 16000 kHz > mdw 0 32 0x00000000: 75755000 8a930104 65696f65 939a3e98 214751f1 fa0edb9b 6664686d 931a989e 0x00000020: 676c65e4 9a0a0982 25653445 da02ba90 c4ed3165 9b9a8a9a 65676365 01981292 0x00000040: 212e0982 82ba3f8b 34674765 96ba1a9a 6175e7e5 9b9ab91a 0789644d 120a9a18 0x00000060: 65446167 80d20982 6d6d6565 187090ca 65277d65 9a9a0b81 6960416c 9ffe88b8 >` | PASS
SPD002 | STR912 | ZY1000 | 8MHz on normal operation | Reset init the target according to RES002 | Change speed and exercise a memory access over the JTAG, for example `mdw 0x0 32` | The command should run without any errors. If any JTAG checking errors happen, the test failed | `> jtag_khz 8000 jtag_speed 8 => JTAG clk=8.000000 8000 kHz > mdw 0 32 0x00000000: 75755000 8a930104 65696f65 939a3e98 214751f1 fa0edb9b 6664686d 931a989e 0x00000020: 676c65e4 9a0a0982 25653445 da02ba90 c4ed3165 9b9a8a9a 65676365 01981292 0x00000040: 212e0982 82ba3f8b 34674765 96ba1a9a 6175e7e5 9b9ab91a 0789644d 120a9a18 0x00000060: 65446167 80d20982 6d6d6565 187090ca 65277d65 9a9a0b81 6960416c 9ffe88b8 >` | PASS
SPD003 | STR912 | ZY1000 | 4MHz on normal operation | Reset init the target according to RES002 | Change speed and exercise a memory access over the JTAG, for example `mdw 0x0 32` | The command should run without any errors. If any JTAG checking errors happen, the test failed | `> jtag_khz 4000 jtag_speed 16 => JTAG clk=4.000000 4000 kHz > mdw 0 32 0x00000000: 75755000 8a930104 65696f65 939a3e98 214751f1 fa0edb9b 6664686d 931a989e 0x00000020: 676c65e4 9a0a0982 25653445 da02ba90 c4ed3165 9b9a8a9a 65676365 01981292 0x00000040: 212e0982 82ba3f8b 34674765 96ba1a9a 6175e7e5 9b9ab91a 0789644d 120a9a18 0x00000060: 65446167 80d20982 6d6d6565 187090ca 65277d65 9a9a0b81 6960416c 9ffe88b8 >` | PASS
SPD004 | STR912 | ZY1000 | 2MHz on normal operation | Reset init the target according to RES002 | Change speed and exercise a memory access over the JTAG, for example `mdw 0x0 32` | The command should run without any errors. If any JTAG checking errors happen, the test failed | `> > jtag_khz 2000 jtag_speed 32 => JTAG clk=2.000000 2000 kHz > mdw 0 32 0x00000000: 75755000 8a930104 65696f65 939a3e98 214751f1 fa0edb9b 6664686d 931a989e 0x00000020: 676c65e4 9a0a0982 25653445 da02ba90 c4ed3165 9b9a8a9a 65676365 01981292 0x00000040: 212e0982 82ba3f8b 34674765 96ba1a9a 6175e7e5 9b9ab91a 0789644d 120a9a18 0x00000060: 65446167 80d20982 6d6d6565 187090ca 65277d65 9a9a0b81 6960416c 9ffe88b8 >` | PASS
SPD005 | STR912 | ZY1000 | RCLK on normal operation | Reset init the target according to RES002 | Change speed and exercise a memory access over the JTAG, for example `mdw 0x0 32` | The command should run without any errors. If any JTAG checking errors happen, the test failed | `> jtag_khz 0 RCLK - adaptive RCLK timeout RCLK timeout RCLK timeout` | FAIL

## Debugging

ID | Target | Interface | Description | Initial state | Input | Expected output | Actual output | Pass/Fail
DBG001 | STR912 | ZY1000 | Load is working | Reset init is working, RAM is accesible, GDB server is started | On the console of the OS: `arm-elf-gdb test_ram.elf` `(gdb) target remote ip:port` `(gdb) load` | Load should return without error, typical output looks like: `Loading section .text, size 0x14c lma 0x0 Start address 0x40, load size 332 Transfer rate: 180 bytes/sec, 332 bytes/write.` | `(gdb) load Loading section .text, size 0x1cc lma 0x20000000 Loading section .vectors, size 0x40 lma 0x200001cc Loading section .rodata, size 0x4 lma 0x2000020c Start address 0x20000000, load size 528 Transfer rate: 64 KB/sec, 176 bytes/write. (gdb)` | PASS
DBG002 | STR912 | ZY1000 | Software breakpoint | Load the test_ram.elf application, use instructions from GDB001 | In the GDB console: `(gdb) monitor gdb_breakpoint_override soft force soft breakpoints (gdb) break main Breakpoint 1 at 0xec: file src/main.c, line 71. (gdb) continue Continuing.` | The software breakpoint should be reached, a typical output looks like: `target state: halted target halted in ARM state due to breakpoint, current mode: Supervisor cpsr: 0x000000d3 pc: 0x000000ec Breakpoint 1, main () at src/main.c:71 71 DWORD a = 1;` | `(gdb) monitor gdb_breakpoint_override soft force soft breakpoints Current language: auto The current source language is "auto; currently asm". (gdb) break main Breakpoint 1 at 0x20000170: file src/main.c, line 69. (gdb) c Continuing. Breakpoint 1, main () at src/main.c:69 69 DWORD a = 1; Current language: auto The current source language is "auto; currently c". (gdb)` | PASS
DBG003 | STR912 | ZY1000 | Single step in a RAM application | Load the test_ram.elf application, use instructions from GDB001, break in main using the instructions from GDB002 | In GDB, type `(gdb) step` | The next instruction should be reached, typical output: `(gdb) step target state: halted target halted in ARM state due to single step, current mode: Abort cpsr: 0x20000097 pc: 0x000000f0 target state: halted target halted in ARM state due to single step, current mode: Abort cpsr: 0x20000097 pc: 0x000000f4 72 DWORD b = 2;` | `(gdb) step 70 DWORD b = 2; (gdb)` | PASS
DBG004 | STR912 | ZY1000 | Software break points are working after a reset | Load the test_ram.elf application, use instructions from GDB001, break in main using the instructions from GDB002 | In GDB, type `(gdb) monitor reset init (gdb) load (gdb) continue` | The breakpoint should be reached, typical output: `target state: halted target halted in ARM state due to breakpoint, current mode: Supervisor cpsr: 0x000000d3 pc: 0x000000ec Breakpoint 1, main () at src/main.c:71 71 DWORD a = 1;` | `((gdb) monitor reset init jtag_speed 6400 => JTAG clk=0.010000 10 kHz JTAG tap: str710.cpu tap/device found: 0x3f0f0f0f (mfg: 0x787, part: 0xf0f0, ver: 0x3) srst pulls trst - can not reset into halted mode. Issuing halt after reset. target state: halted target halted in ARM state due to debug-request, current mode: Supervisor cpsr: 0x60000013 pc: 0x200001bc jtag_speed 10 => JTAG clk=6.400000 6400 kHz (gdb) load Loading section .text, size 0x1cc lma 0x20000000 Loading section .vectors, size 0x40 lma 0x200001cc Loading section .rodata, size 0x4 lma 0x2000020c Start address 0x20000000, load size 528 Transfer rate: 64 KB/sec, 176 bytes/write. (gdb) c Continuing. Breakpoint 1, main () at src/main.c:69 69 DWORD a = 1; (gdb)` | PASS
DBG005 | STR912 | ZY1000 | Hardware breakpoint | Flash the test_rom.elf application. Make this test after FLA004 has passed | Be sure that `gdb_memory_map` and `gdb_flash_program` are enabled. In GDB, type `(gdb) monitor reset init (gdb) load Loading section .text, size 0x194 lma 0x100000 Start address 0x100040, load size 404 Transfer rate: 179 bytes/sec, 404 bytes/write. (gdb) monitor gdb_breakpoint_override hard force hard breakpoints (gdb) break main Breakpoint 1 at 0x100134: file src/main.c, line 69. (gdb) continue` | The breakpoint should be reached, typical output: `Continuing. Breakpoint 1, main () at src/main.c:69 69 DWORD a = 1;` | `(gdb) monitor gdb_breakpoint_override hard force hard breakpoints (gdb) break main Breakpoint 1 at 0x40000170: file src/main.c, line 69. (gdb) c Continuing. Note: automatically using hardware breakpoints for read-only addresses. Breakpoint 1, main () at src/main.c:69 69 DWORD a = 1; Current language: auto The current source language is "auto; currently c". (gdb)` | PASS
DBG006 | STR912 | ZY1000 | Hardware breakpoint is set after a reset | Follow the instructions to flash and insert a hardware breakpoint from DBG005 | In GDB, type `(gdb) monitor reset (gdb) monitor reg pc 0x100000 pc (/32): 0x00100000 (gdb) continue` where the value inserted in PC is the start address of the application | The breakpoint should be reached, typical output: `Continuing. Breakpoint 1, main () at src/main.c:69 69 DWORD a = 1;` | `(gdb) monitor reset init jtag_speed 6400 => JTAG clk=0.010000 10 kHz JTAG tap: str710.cpu tap/device found: 0x3f0f0f0f (mfg: 0x787, part: 0xf0f0, ver: 0x3) srst pulls trst - can not reset into halted mode. Issuing halt after reset. target state: halted target halted in ARM state due to debug-request, current mode: Undefined instruction cpsr: 0x400000db pc: 0x010aea80 jtag_speed 10 => JTAG clk=6.400000 6400 kHz (gdb) monitor reg pc 0x40000000 pc (/32): 0x40000000 (gdb) c Continuing. Breakpoint 1, main () at src/main.c:69 69 DWORD a = 1; Current language: auto The current source language is "auto; currently c". (gdb)` | PASS
DBG007 | STR912 | ZY1000 | Single step in ROM | Flash the test_rom.elf application and set a breakpoint in main, use DBG005. Make this test after FLA004 has passed | Be sure that `gdb_memory_map` and `gdb_flash_program` are enabled. In GDB, type `(gdb) monitor reset (gdb) load Loading section .text, size 0x194 lma 0x100000 Start address 0x100040, load size 404 Transfer rate: 179 bytes/sec, 404 bytes/write. (gdb) monitor arm7_9 force_hw_bkpts enable force hardware breakpoints enabled (gdb) break main Breakpoint 1 at 0x100134: file src/main.c, line 69. (gdb) continue Continuing. Breakpoint 1, main () at src/main.c:69 69 DWORD a = 1; (gdb) step` | The breakpoint should be reached, typical output: `target state: halted target halted in ARM state due to single step, current mode: Supervisor cpsr: 0x60000013 pc: 0x0010013c 70 DWORD b = 2;` | `Breakpoint 2, main () at src/main.c:69 69 DWORD a = 1; Current language: auto The current source language is "auto; currently c". (gdb) step 70 DWORD b = 2; (gdb)` | PASS

## RAM access

Note: these tests are not designed to test/debug the target, but to test functionalities!

ID | Target | Interface | Description | Initial state | Input | Expected output | Actual output | Pass/Fail
RAM001 | STR912 | ZY1000 | 32 bit Write/read RAM | Reset init is working | On the telnet interface `> mww ram_address 0xdeadbeef 16 > mdw ram_address 32` | The commands should execute without error. A clear failure is a memory access exception. The result of running the commands should be a list of 16 locations 32bit long containing 0xdeadbeef. `> mww 0x0 0xdeadbeef 16 > mdw 0x0 32 0x00000000: deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef 0x00000020: deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef 0x00000040: e1a00000 e59fa51c e59f051c e04aa000 00080017 00009388 00009388 00009388 0x00000060: 00009388 0002c2c0 0002c2c0 000094f8 000094f4 00009388 00009388 00009388` | `> mww 0x20000000 0xdeadbeef 16 > mdw 0x20000000 32 0x20000000: deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef 0x20000020: deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef 0x20000040: e3a0020a e3a01073 e5801018 e5901008 e3110002 0afffffc e3a0020a e59f10d0 0x20000060: e5801008 e321f0db e59fd0c8 e321f0d7 e59fd0c4 e321f0d1 e59fd0c0 e321f0d2 >` | PASS
RAM002 | STR912 | ZY1000 | 16 bit Write/read RAM | Reset init is working | On the telnet interface `> mwh ram_address 0xbeef 16 > mdh ram_address 32` | The commands should execute without error. A clear failure is a memory access exception. The result of running the commands should be a list of 16 locations 16bit long containing 0xbeef. `> mwh 0x0 0xbeef 16 > mdh 0x0 32 0x00000000: beef beef beef beef beef beef beef beef beef beef beef beef beef beef beef beef 0x00000020: 00e0 0000 021c 0000 0240 0000 026c 0000 0288 0000 0000 0000 0388 0000 0350 0000 >` | `> mwh 0x20000000 0xbeef 16 > mdh 0x20000000 32 0x20000000: beef beef beef beef beef beef beef beef beef beef beef beef beef beef beef beef 0x20000020: beef dead beef dead beef dead beef dead beef dead beef dead beef dead beef dead >` | PASS
RAM003 | STR912 | ZY1000 | 8 bit Write/read RAM | Reset init is working | On the telnet interface `> mwb ram_address 0xab 16 > mdb ram_address 32` | The commands should execute without error. A clear failure is a memory access exception. The result of running the commands should be a list of 16 locations 8bit long containing 0xab. `> mwb ram_address 0xab 16 > mdb ram_address 32 0x00000000: ab ab ab ab ab ab ab ab ab ab ab ab ab ab ab ab 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 >` | `> mwb 0x20000000 0xab 16 > mdb 0x20000000 32 0x20000000: ab ab ab ab ab ab ab ab ab ab ab ab ab ab ab ab ef be ef be ef be ef be ef be ef be ef be ef be >` | PASS

## Flash access

ID | Target | Interface | Description | Initial state | Input | Expected output | Actual output | Pass/Fail
FLA001 | STR912 | ZY1000 | Flash probe | Reset init is working | On the telnet interface: `> flash probe 0` | The command should execute without error. The output should state the name of the flash and the starting address. An example of output: `flash 'ecosflash' found at 0x01000000` | `> flash probe 0 flash 'str7x' found at 0x40000000 >` | PASS
FLA002 | STR912 | ZY1000 | flash fillw | Reset init is working, flash is probed | On the telnet interface `> flash fillw 0x1000000 0xdeadbeef 16` | The commands should execute without error. The output looks like: `wrote 64 bytes to 0x01000000 in 11.610000s (0.091516 kb/s)` To verify the contents of the flash: `> mdw 0x1000000 32 0x01000000: deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef 0x01000020: deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef 0x01000040: ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff 0x01000060: ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff` | `> flash fillw 0x40000000 0xdeadbeef 16 wrote 64 bytes to 0x40000000 in 0.000000s (inf kb/s) > mdw 0x40000000 32 0x40000000: deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef 0x40000020: deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef deadbeef 0x40000040: ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff 0x40000060: ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff >` | PASS
FLA003 | STR912 | ZY1000 | Flash erase | Reset init is working, flash is probed | On the telnet interface `> flash erase_address 0x1000000 0x2000` | The commands should execute without error. `erased address 0x01000000 length 8192 in 4.970000s` To check that the flash has been erased, read at different addresses. The result should always be 0xff. `> mdw 0x1000000 32 0x01000000: ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff 0x01000020: ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff 0x01000040: ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff 0x01000060: ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff` | `> flash erase_address 0x40000000 0x2000 erased address 0x40000000 (length 8192) in 0.270000s (29.630 kb/s) > mdw 0x40000000 32 0x40000000: ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff 0x40000020: ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff 0x40000040: ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff 0x40000060: ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff >` | PASS
FLA004 | STR912 | ZY1000 | Loading to flash from GDB | Reset init is working, flash is probed, connectivity to GDB server is working | Start GDB using a ROM elf image, eg: arm-elf-gdb test_rom.elf. `(gdb) target remote ip:port (gdb) monitor reset (gdb) load Loading section .text, size 0x194 lma 0x100000 Start address 0x100040, load size 404 Transfer rate: 179 bytes/sec, 404 bytes/write. (gdb) monitor verify_image path_to_elf_file` | The output should look like: `verified 404 bytes in 5.060000s` The failure message is something like: `Verify operation failed address 0x00200000. Was 0x00 instead of 0x18` | `(gdb) load Loading section .text, size 0x1cc lma 0x40000000 Loading section .vectors, size 0x40 lma 0x400001cc Loading section .rodata, size 0x4 lma 0x4000020c Start address 0x40000000, load size 528 Transfer rate: 53 bytes/sec, 176 bytes/write. (gdb) monitor verify_image /tftp/10.0.0.194/test_rom.elf verified 528 bytes in 4.760000s (0.108 kb/s) Current language: auto The current source language is "auto; currently asm". (gdb)` | PASS