diff --git a/contrib/other/8086tiny/8086tiny.c b/contrib/other/8086tiny/8086tiny.c
new file mode 100644
index 000000000..1e709e852
--- /dev/null
+++ b/contrib/other/8086tiny/8086tiny.c
@@ -0,0 +1,790 @@
+// 8086tiny: a tiny, highly functional, highly portable PC emulator/VM
+// Copyright 2013-14, Adrian Cable (adrian.cable@gmail.com) - http://www.megalith.co.uk/8086tiny
+//
+// Revision 1.25
+//
+// This work is licensed under the MIT License. See included LICENSE.TXT.
+
+#include <time.h>
+//#include <sys/timeb.h>
+
+struct timeb
+{
+    time_t		time;		/* Seconds since the epoch	*/
+    unsigned short	millitm;
+    short		timezone;
+    short		dstflag;
+};
+
+static int ftime(struct timeb* tp)
+{
+	unsigned counter = 0;
+	__asm__ volatile("int $0x40" : "=a"(counter) : "a"(26), "b"(9));
+	tp->millitm = (counter % 100) * 10;
+	return 0;
+}
+
+
+#include <memory.h>
+
+#ifndef _WIN32
+#include <unistd.h>
+#include <fcntl.h>
+#endif
+
+#ifndef NO_GRAPHICS
+#include <SDL/SDL.h>
+#endif
+
+// Emulator system constants
+#define IO_PORT_COUNT 0x10000
+#define RAM_SIZE 0x10FFF0
+#define REGS_BASE 0xF0000
+#define VIDEO_RAM_SIZE 0x10000
+
+// Graphics/timer/keyboard update delays (explained later)
+#ifndef GRAPHICS_UPDATE_DELAY
+#define GRAPHICS_UPDATE_DELAY 36000 //1000 times
+#endif
+#define KEYBOARD_TIMER_UPDATE_DELAY 2000 //1000 times
+
+// 16-bit register decodes
+#define REG_AX 0
+#define REG_CX 1
+#define REG_DX 2
+#define REG_BX 3
+#define REG_SP 4
+#define REG_BP 5
+#define REG_SI 6
+#define REG_DI 7
+
+#define REG_ES 8
+#define REG_CS 9
+#define REG_SS 10
+#define REG_DS 11
+
+#define REG_ZERO 12
+#define REG_SCRATCH 13
+
+// 8-bit register decodes
+#define REG_AL 0
+#define REG_AH 1
+#define REG_CL 2
+#define REG_CH 3
+#define REG_DL 4
+#define REG_DH 5
+#define REG_BL 6
+#define REG_BH 7
+
+// FLAGS register decodes
+#define FLAG_CF 40
+#define FLAG_PF 41
+#define FLAG_AF 42
+#define FLAG_ZF 43
+#define FLAG_SF 44
+#define FLAG_TF 45
+#define FLAG_IF 46
+#define FLAG_DF 47
+#define FLAG_OF 48
+
+// Lookup tables in the BIOS binary
+#define TABLE_XLAT_OPCODE 8
+#define TABLE_XLAT_SUBFUNCTION 9
+#define TABLE_STD_FLAGS 10
+#define TABLE_PARITY_FLAG 11
+#define TABLE_BASE_INST_SIZE 12
+#define TABLE_I_W_SIZE 13
+#define TABLE_I_MOD_SIZE 14
+#define TABLE_COND_JUMP_DECODE_A 15
+#define TABLE_COND_JUMP_DECODE_B 16
+#define TABLE_COND_JUMP_DECODE_C 17
+#define TABLE_COND_JUMP_DECODE_D 18
+#define TABLE_FLAGS_BITFIELDS 19
+
+// Bitfields for TABLE_STD_FLAGS values
+#define FLAGS_UPDATE_SZP 1
+#define FLAGS_UPDATE_AO_ARITH 2
+#define FLAGS_UPDATE_OC_LOGIC 4
+
+// Helper macros
+
+// Decode mod, r_m and reg fields in instruction
+#define DECODE_RM_REG scratch2_uint = 4 * !i_mod, \
+					  op_to_addr = rm_addr = i_mod < 3 ? SEGREG(seg_override_en ? seg_override : bios_table_lookup[scratch2_uint + 3][i_rm], bios_table_lookup[scratch2_uint][i_rm], regs16[bios_table_lookup[scratch2_uint + 1][i_rm]] + bios_table_lookup[scratch2_uint + 2][i_rm] * i_data1+) : GET_REG_ADDR(i_rm), \
+					  op_from_addr = GET_REG_ADDR(i_reg), \
+					  i_d && (scratch_uint = op_from_addr, op_from_addr = rm_addr, op_to_addr = scratch_uint)
+
+// Return memory-mapped register location (offset into mem array) for register #reg_id
+#define GET_REG_ADDR(reg_id) (REGS_BASE + (i_w ? 2 * reg_id : 2 * reg_id + reg_id / 4 & 7))
+
+// Returns number of top bit in operand (i.e. 8 for 8-bit operands, 16 for 16-bit operands)
+#define TOP_BIT 8*(i_w + 1)
+
+// Opcode execution unit helpers
+#define OPCODE ;break; case
+#define OPCODE_CHAIN ; case
+
+// [I]MUL/[I]DIV/DAA/DAS/ADC/SBB helpers
+#define MUL_MACRO(op_data_type,out_regs) (set_opcode(0x10), \
+										  out_regs[i_w + 1] = (op_result = CAST(op_data_type)mem[rm_addr] * (op_data_type)*out_regs) >> 16, \
+										  regs16[REG_AX] = op_result, \
+										  set_OF(set_CF(op_result - (op_data_type)op_result)))
+#define DIV_MACRO(out_data_type,in_data_type,out_regs) (scratch_int = CAST(out_data_type)mem[rm_addr]) && !(scratch2_uint = (in_data_type)(scratch_uint = (out_regs[i_w+1] << 16) + regs16[REG_AX]) / scratch_int, scratch2_uint - (out_data_type)scratch2_uint) ? out_regs[i_w+1] = scratch_uint - scratch_int * (*out_regs = scratch2_uint) : pc_interrupt(0)
+#define DAA_DAS(op1,op2,mask,min) set_AF((((scratch2_uint = regs8[REG_AL]) & 0x0F) > 9) || regs8[FLAG_AF]) && (op_result = regs8[REG_AL] op1 6, set_CF(regs8[FLAG_CF] || (regs8[REG_AL] op2 scratch2_uint))), \
+								  set_CF((((mask & 1 ? scratch2_uint : regs8[REG_AL]) & mask) > min) || regs8[FLAG_CF]) && (op_result = regs8[REG_AL] op1 0x60)
+#define ADC_SBB_MACRO(a) OP(a##= regs8[FLAG_CF] +), \
+						 set_CF(regs8[FLAG_CF] && (op_result == op_dest) || (a op_result < a(int)op_dest)), \
+						 set_AF_OF_arith()
+
+// Execute arithmetic/logic operations in emulator memory/registers
+#define R_M_OP(dest,op,src) (i_w ? op_dest = CAST(unsigned short)dest, op_result = CAST(unsigned short)dest op (op_source = CAST(unsigned short)src) \
+								 : (op_dest = dest, op_result = dest op (op_source = CAST(unsigned char)src)))
+#define MEM_OP(dest,op,src) R_M_OP(mem[dest],op,mem[src])
+#define OP(op) MEM_OP(op_to_addr,op,op_from_addr)
+
+// Increment or decrement a register #reg_id (usually SI or DI), depending on direction flag and operand size (given by i_w)
+#define INDEX_INC(reg_id) (regs16[reg_id] -= (2 * regs8[FLAG_DF] - 1)*(i_w + 1))
+
+// Helpers for stack operations
+#define R_M_PUSH(a) (i_w = 1, R_M_OP(mem[SEGREG(REG_SS, REG_SP, --)], =, a))
+#define R_M_POP(a) (i_w = 1, regs16[REG_SP] += 2, R_M_OP(a, =, mem[SEGREG(REG_SS, REG_SP, -2+)]))
+
+// Convert segment:offset to linear address in emulator memory space
+#define SEGREG(reg_seg,reg_ofs,op) 16 * regs16[reg_seg] + (unsigned short)(op regs16[reg_ofs])
+
+// Returns sign bit of an 8-bit or 16-bit operand
+#define SIGN_OF(a) (1 & (i_w ? CAST(short)a : a) >> (TOP_BIT - 1))
+
+// Reinterpretation cast
+#define CAST(a) *(a*)&
+
+// Keyboard driver for console. This may need changing for UNIX/non-UNIX platforms
+#ifdef _WIN32
+#define KEYBOARD_DRIVER kbhit() && (mem[0x4A6] = getch(), pc_interrupt(7))
+#else
+//#define KEYBOARD_DRIVER read(0, mem + 0x4A6, 1) && (int8_asap = (mem[0x4A6] == 0x1B), pc_interrupt(7))
+
+#define KEYBOARD_DRIVER kbhit() && (mem[0x4A6] = getch(), pc_interrupt(7))
+#endif
+
+// Keyboard driver for SDL
+#ifdef NO_GRAPHICS
+#define SDL_KEYBOARD_DRIVER KEYBOARD_DRIVER
+#else
+#define SDL_KEYBOARD_DRIVER sdl_screen ? SDL_PollEvent(&sdl_event) && (sdl_event.type == SDL_KEYDOWN || sdl_event.type == SDL_KEYUP) && (scratch_uint = sdl_event.key.keysym.unicode, scratch2_uint = sdl_event.key.keysym.mod, CAST(short)mem[0x4A6] = 0x400 + 0x800*!!(scratch2_uint & KMOD_ALT) + 0x1000*!!(scratch2_uint & KMOD_SHIFT) + 0x2000*!!(scratch2_uint & KMOD_CTRL) + 0x4000*(sdl_event.type == SDL_KEYUP) + ((!scratch_uint || scratch_uint > 0x7F) ? sdl_event.key.keysym.sym : scratch_uint), pc_interrupt(7)) : (KEYBOARD_DRIVER)
+#endif
+
+// Global variable definitions
+unsigned char mem[RAM_SIZE], io_ports[IO_PORT_COUNT], *opcode_stream, *regs8, i_rm, i_w, i_reg, i_mod, i_mod_size, i_d, i_reg4bit, raw_opcode_id, xlat_opcode_id, extra, rep_mode, seg_override_en, rep_override_en, trap_flag, int8_asap, scratch_uchar, io_hi_lo, *vid_mem_base, spkr_en, bios_table_lookup[20][256];
+unsigned short *regs16, reg_ip, seg_override, file_index, wave_counter;
+unsigned int op_source, op_dest, rm_addr, op_to_addr, op_from_addr, i_data0, i_data1, i_data2, scratch_uint, scratch2_uint, inst_counter, set_flags_type, GRAPHICS_X, GRAPHICS_Y, pixel_colors[16], vmem_ctr;
+int op_result, disk[3], scratch_int;
+time_t clock_buf;
+struct timeb ms_clock;
+
+#ifndef NO_GRAPHICS
+SDL_AudioSpec sdl_audio = {44100, AUDIO_U8, 1, 0, 128};
+SDL_AudioSpec sdl_audio_obt = {44100, AUDIO_U8, 1, 0, 128};
+SDL_Surface *sdl_screen;
+SDL_Event sdl_event;
+unsigned short vid_addr_lookup[VIDEO_RAM_SIZE], cga_colors[4] = {0 /* Black */, 0x1F1F /* Cyan */, 0xE3E3 /* Magenta */, 0xFFFF /* White */};
+#endif
+
+// Helper functions
+
+// Set carry flag
+char set_CF(int new_CF)
+{
+	return regs8[FLAG_CF] = !!new_CF;
+}
+
+// Set auxiliary flag
+char set_AF(int new_AF)
+{
+	return regs8[FLAG_AF] = !!new_AF;
+}
+
+// Set overflow flag
+char set_OF(int new_OF)
+{
+	return regs8[FLAG_OF] = !!new_OF;
+}
+
+// Set auxiliary and overflow flag after arithmetic operations
+char set_AF_OF_arith()
+{
+	set_AF((op_source ^= op_dest ^ op_result) & 0x10);
+	if (op_result == op_dest)
+		return set_OF(0);
+	else
+		return set_OF(1 & (regs8[FLAG_CF] ^ op_source >> (TOP_BIT - 1)));
+}
+
+// Assemble and return emulated CPU FLAGS register in scratch_uint
+void make_flags()
+{
+	scratch_uint = 0xF002; // 8086 has reserved and unused flags set to 1
+	for (int i = 9; i--;)
+		scratch_uint += regs8[FLAG_CF + i] << bios_table_lookup[TABLE_FLAGS_BITFIELDS][i];
+}
+
+// Set emulated CPU FLAGS register from regs8[FLAG_xx] values
+void set_flags(int new_flags)
+{
+	for (int i = 9; i--;)
+		regs8[FLAG_CF + i] = !!(1 << bios_table_lookup[TABLE_FLAGS_BITFIELDS][i] & new_flags);
+}
+
+// Convert raw opcode to translated opcode index. This condenses a large number of different encodings of similar
+// instructions into a much smaller number of distinct functions, which we then execute
+void set_opcode(unsigned char opcode)
+{
+	xlat_opcode_id = bios_table_lookup[TABLE_XLAT_OPCODE][raw_opcode_id = opcode];
+	extra = bios_table_lookup[TABLE_XLAT_SUBFUNCTION][opcode];
+	i_mod_size = bios_table_lookup[TABLE_I_MOD_SIZE][opcode];
+	set_flags_type = bios_table_lookup[TABLE_STD_FLAGS][opcode];
+}
+
+// Execute INT #interrupt_num on the emulated machine
+char pc_interrupt(unsigned char interrupt_num)
+{
+	set_opcode(0xCD); // Decode like INT
+
+	make_flags();
+	R_M_PUSH(scratch_uint);
+	R_M_PUSH(regs16[REG_CS]);
+	R_M_PUSH(reg_ip);
+	MEM_OP(REGS_BASE + 2 * REG_CS, =, 4 * interrupt_num + 2);
+	R_M_OP(reg_ip, =, mem[4 * interrupt_num]);
+
+	return regs8[FLAG_TF] = regs8[FLAG_IF] = 0;
+}
+
+// AAA and AAS instructions - which_operation is +1 for AAA, and -1 for AAS
+int AAA_AAS(char which_operation)
+{
+	return (regs16[REG_AX] += 262 * which_operation*set_AF(set_CF(((regs8[REG_AL] & 0x0F) > 9) || regs8[FLAG_AF])), regs8[REG_AL] &= 0x0F);
+}
+
+#ifndef NO_GRAPHICS
+void audio_callback(void *data, unsigned char *stream, int len)
+{
+	for (int i = 0; i < len; i++)
+		stream[i] = (spkr_en == 3) && CAST(unsigned short)mem[0x4AA] ? -((54 * wave_counter++ / CAST(unsigned short)mem[0x4AA]) & 1) : sdl_audio.silence;
+
+	spkr_en = io_ports[0x61] & 3;
+}
+#endif
+
+#define printf con_printf
+#define gets con_gets
+#undef main
+#include "console.c"
+
+// Emulator entry point
+int main(int argc, char **argv)
+{
+    CONSOLE_INIT("8086");
+    
+    //freopen("OUT", "w" ,stdout);
+#ifndef NO_GRAPHICS
+	// Initialise SDL
+	SDL_Init(SDL_INIT_AUDIO);
+	sdl_audio.callback = audio_callback;
+#ifdef _WIN32
+	sdl_audio.samples = 512;
+#endif
+	SDL_OpenAudio(&sdl_audio, &sdl_audio_obt);
+#endif
+
+	// regs16 and reg8 point to F000:0, the start of memory-mapped registers. CS is initialised to F000
+	regs16 = (unsigned short *)(regs8 = mem + REGS_BASE);
+	regs16[REG_CS] = 0xF000;
+
+	// Trap flag off
+	regs8[FLAG_TF] = 0;
+
+	// Set DL equal to the boot device: 0 for the FD, or 0x80 for the HD. Normally, boot from the FD.
+	// But, if the HD image file is prefixed with @, then boot from the HD
+	regs8[REG_DL] = ((argc > 3) && (*argv[3] == '@')) ? argv[3]++, 0x80 : 0;
+
+	// Open BIOS (file id disk[2]), floppy disk image (disk[1]), and hard disk image (disk[0]) if specified
+	for (file_index = 3; file_index;)
+		disk[--file_index] = *++argv ? open(*argv, 32898) : 0;
+
+	// Set CX:AX equal to the hard disk image size, if present
+	CAST(unsigned)regs16[REG_AX] = *disk ? lseek(*disk, 0, 2) >> 9 : 0;
+
+	// Load BIOS image into F000:0100, and set IP to 0100
+	read(disk[2], regs8 + (reg_ip = 0x100), 0xFF00);
+
+	// Load instruction decoding helper table
+	for (int i = 0; i < 20; i++)
+		for (int j = 0; j < 256; j++)
+			bios_table_lookup[i][j] = regs8[regs16[0x81 + i] + j];
+
+	// Instruction execution loop. Terminates if CS:IP = 0:0
+	for (; opcode_stream = mem + 16 * regs16[REG_CS] + reg_ip, opcode_stream != mem;)
+	{
+		// Set up variables to prepare for decoding an opcode
+		set_opcode(*opcode_stream);
+
+		// Extract i_w and i_d fields from instruction
+		i_w = (i_reg4bit = raw_opcode_id & 7) & 1;
+		i_d = i_reg4bit / 2 & 1;
+
+		// Extract instruction data fields
+		i_data0 = CAST(short)opcode_stream[1];
+		i_data1 = CAST(short)opcode_stream[2];
+		i_data2 = CAST(short)opcode_stream[3];
+
+		// seg_override_en and rep_override_en contain number of instructions to hold segment override and REP prefix respectively
+		if (seg_override_en)
+			seg_override_en--;
+		if (rep_override_en)
+			rep_override_en--;
+
+		// i_mod_size > 0 indicates that opcode uses i_mod/i_rm/i_reg, so decode them
+		if (i_mod_size)
+		{
+			i_mod = (i_data0 & 0xFF) >> 6;
+			i_rm = i_data0 & 7;
+			i_reg = i_data0 / 8 & 7;
+
+			if ((!i_mod && i_rm == 6) || (i_mod == 2))
+				i_data2 = CAST(short)opcode_stream[4];
+			else if (i_mod != 1)
+				i_data2 = i_data1;
+			else // If i_mod is 1, operand is (usually) 8 bits rather than 16 bits
+				i_data1 = (char)i_data1;
+
+			DECODE_RM_REG;
+		}
+
+		// Instruction execution unit
+		switch (xlat_opcode_id)
+		{
+			OPCODE_CHAIN 0: // Conditional jump (JAE, JNAE, etc.)
+				// i_w is the invert flag, e.g. i_w == 1 means JNAE, whereas i_w == 0 means JAE 
+				scratch_uchar = raw_opcode_id / 2 & 7;
+				reg_ip += (char)i_data0 * (i_w ^ (regs8[bios_table_lookup[TABLE_COND_JUMP_DECODE_A][scratch_uchar]] || regs8[bios_table_lookup[TABLE_COND_JUMP_DECODE_B][scratch_uchar]] || regs8[bios_table_lookup[TABLE_COND_JUMP_DECODE_C][scratch_uchar]] ^ regs8[bios_table_lookup[TABLE_COND_JUMP_DECODE_D][scratch_uchar]]))
+			OPCODE 1: // MOV reg, imm
+				i_w = !!(raw_opcode_id & 8);
+				R_M_OP(mem[GET_REG_ADDR(i_reg4bit)], =, i_data0)
+			OPCODE 3: // PUSH regs16
+				R_M_PUSH(regs16[i_reg4bit])
+			OPCODE 4: // POP regs16
+				R_M_POP(regs16[i_reg4bit])
+			OPCODE 2: // INC|DEC regs16
+				i_w = 1;
+				i_d = 0;
+				i_reg = i_reg4bit;
+				DECODE_RM_REG;
+				i_reg = extra
+			OPCODE_CHAIN 5: // INC|DEC|JMP|CALL|PUSH
+				if (i_reg < 2) // INC|DEC
+					MEM_OP(op_from_addr, += 1 - 2 * i_reg +, REGS_BASE + 2 * REG_ZERO),
+					op_source = 1,
+					set_AF_OF_arith(),
+					set_OF(op_dest + 1 - i_reg == 1 << (TOP_BIT - 1)),
+					(xlat_opcode_id == 5) && (set_opcode(0x10), 0); // Decode like ADC
+				else if (i_reg != 6) // JMP|CALL
+					i_reg - 3 || R_M_PUSH(regs16[REG_CS]), // CALL (far)
+					i_reg & 2 && R_M_PUSH(reg_ip + 2 + i_mod*(i_mod != 3) + 2*(!i_mod && i_rm == 6)), // CALL (near or far)
+					i_reg & 1 && (regs16[REG_CS] = CAST(short)mem[op_from_addr + 2]), // JMP|CALL (far)
+					R_M_OP(reg_ip, =, mem[op_from_addr]),
+					set_opcode(0x9A); // Decode like CALL
+				else // PUSH
+					R_M_PUSH(mem[rm_addr])
+			OPCODE 6: // TEST r/m, imm16 / NOT|NEG|MUL|IMUL|DIV|IDIV reg
+				op_to_addr = op_from_addr;
+
+				switch (i_reg)
+				{
+					OPCODE_CHAIN 0: // TEST
+						set_opcode(0x20); // Decode like AND
+						reg_ip += i_w + 1;
+						R_M_OP(mem[op_to_addr], &, i_data2)
+					OPCODE 2: // NOT
+						OP(=~)
+					OPCODE 3: // NEG
+						OP(=-);
+						op_dest = 0;
+						set_opcode(0x28); // Decode like SUB
+						set_CF(op_result > op_dest)
+					OPCODE 4: // MUL
+						i_w ? MUL_MACRO(unsigned short, regs16) : MUL_MACRO(unsigned char, regs8)
+					OPCODE 5: // IMUL
+						i_w ? MUL_MACRO(short, regs16) : MUL_MACRO(char, regs8)
+					OPCODE 6: // DIV
+						i_w ? DIV_MACRO(unsigned short, unsigned, regs16) : DIV_MACRO(unsigned char, unsigned short, regs8)
+					OPCODE 7: // IDIV
+						i_w ? DIV_MACRO(short, int, regs16) : DIV_MACRO(char, short, regs8);
+				}
+			OPCODE 7: // ADD|OR|ADC|SBB|AND|SUB|XOR|CMP AL/AX, immed
+				rm_addr = REGS_BASE;
+				i_data2 = i_data0;
+				i_mod = 3;
+				i_reg = extra;
+				reg_ip--;
+			OPCODE_CHAIN 8: // ADD|OR|ADC|SBB|AND|SUB|XOR|CMP reg, immed
+				op_to_addr = rm_addr;
+				regs16[REG_SCRATCH] = (i_d |= !i_w) ? (char)i_data2 : i_data2;
+				op_from_addr = REGS_BASE + 2 * REG_SCRATCH;
+				reg_ip += !i_d + 1;
+				set_opcode(0x08 * (extra = i_reg));
+			OPCODE_CHAIN 9: // ADD|OR|ADC|SBB|AND|SUB|XOR|CMP|MOV reg, r/m
+				switch (extra)
+				{
+					OPCODE_CHAIN 0: // ADD
+						OP(+=),
+						set_CF(op_result < op_dest)
+					OPCODE 1: // OR
+						OP(|=)
+					OPCODE 2: // ADC
+						ADC_SBB_MACRO(+)
+					OPCODE 3: // SBB
+						ADC_SBB_MACRO(-)
+					OPCODE 4: // AND
+						OP(&=)
+					OPCODE 5: // SUB
+						OP(-=),
+						set_CF(op_result > op_dest)
+					OPCODE 6: // XOR
+						OP(^=)
+					OPCODE 7: // CMP
+						OP(-),
+						set_CF(op_result > op_dest)
+					OPCODE 8: // MOV
+						OP(=);
+				}
+			OPCODE 10: // MOV sreg, r/m | POP r/m | LEA reg, r/m
+				if (!i_w) // MOV
+					i_w = 1,
+					i_reg += 8,
+					DECODE_RM_REG,
+					OP(=);
+				else if (!i_d) // LEA
+					seg_override_en = 1,
+					seg_override = REG_ZERO,
+					DECODE_RM_REG,
+					R_M_OP(mem[op_from_addr], =, rm_addr);
+				else // POP
+					R_M_POP(mem[rm_addr])
+			OPCODE 11: // MOV AL/AX, [loc]
+				i_mod = i_reg = 0;
+				i_rm = 6;
+				i_data1 = i_data0;
+				DECODE_RM_REG;
+				MEM_OP(op_from_addr, =, op_to_addr)
+			OPCODE 12: // ROL|ROR|RCL|RCR|SHL|SHR|???|SAR reg/mem, 1/CL/imm (80186)
+				scratch2_uint = SIGN_OF(mem[rm_addr]),
+				scratch_uint = extra ? // xxx reg/mem, imm
+					++reg_ip,
+					(char)i_data1
+				: // xxx reg/mem, CL
+					i_d
+						? 31 & regs8[REG_CL]
+				: // xxx reg/mem, 1
+					1;
+				if (scratch_uint)
+				{
+					if (i_reg < 4) // Rotate operations
+						scratch_uint %= i_reg / 2 + TOP_BIT,
+						R_M_OP(scratch2_uint, =, mem[rm_addr]);
+					if (i_reg & 1) // Rotate/shift right operations
+						R_M_OP(mem[rm_addr], >>=, scratch_uint);
+					else // Rotate/shift left operations
+						R_M_OP(mem[rm_addr], <<=, scratch_uint);
+					if (i_reg > 3) // Shift operations
+						set_opcode(0x10); // Decode like ADC
+					if (i_reg > 4) // SHR or SAR
+						set_CF(op_dest >> (scratch_uint - 1) & 1);
+				}
+
+				switch (i_reg)
+				{
+					OPCODE_CHAIN 0: // ROL
+						R_M_OP(mem[rm_addr], += , scratch2_uint >> (TOP_BIT - scratch_uint));
+						set_OF(SIGN_OF(op_result) ^ set_CF(op_result & 1))
+					OPCODE 1: // ROR
+						scratch2_uint &= (1 << scratch_uint) - 1,
+						R_M_OP(mem[rm_addr], += , scratch2_uint << (TOP_BIT - scratch_uint));
+						set_OF(SIGN_OF(op_result * 2) ^ set_CF(SIGN_OF(op_result)))
+					OPCODE 2: // RCL
+						R_M_OP(mem[rm_addr], += (regs8[FLAG_CF] << (scratch_uint - 1)) + , scratch2_uint >> (1 + TOP_BIT - scratch_uint));
+						set_OF(SIGN_OF(op_result) ^ set_CF(scratch2_uint & 1 << (TOP_BIT - scratch_uint)))
+					OPCODE 3: // RCR
+						R_M_OP(mem[rm_addr], += (regs8[FLAG_CF] << (TOP_BIT - scratch_uint)) + , scratch2_uint << (1 + TOP_BIT - scratch_uint));
+						set_CF(scratch2_uint & 1 << (scratch_uint - 1));
+						set_OF(SIGN_OF(op_result) ^ SIGN_OF(op_result * 2))
+					OPCODE 4: // SHL
+						set_OF(SIGN_OF(op_result) ^ set_CF(SIGN_OF(op_dest << (scratch_uint - 1))))
+					OPCODE 5: // SHR
+						set_OF(SIGN_OF(op_dest))
+					OPCODE 7: // SAR
+						scratch_uint < TOP_BIT || set_CF(scratch2_uint);
+						set_OF(0);
+						R_M_OP(mem[rm_addr], +=, scratch2_uint *= ~(((1 << TOP_BIT) - 1) >> scratch_uint));
+				}
+			OPCODE 13: // LOOPxx|JCZX
+				scratch_uint = !!--regs16[REG_CX];
+
+				switch(i_reg4bit)
+				{
+					OPCODE_CHAIN 0: // LOOPNZ
+						scratch_uint &= !regs8[FLAG_ZF]
+					OPCODE 1: // LOOPZ
+						scratch_uint &= regs8[FLAG_ZF]
+					OPCODE 3: // JCXXZ
+						scratch_uint = !++regs16[REG_CX];
+				}
+				reg_ip += scratch_uint*(char)i_data0
+			OPCODE 14: // JMP | CALL short/near
+				reg_ip += 3 - i_d;
+				if (!i_w)
+				{
+					if (i_d) // JMP far
+						reg_ip = 0,
+						regs16[REG_CS] = i_data2;
+					else // CALL
+						R_M_PUSH(reg_ip);
+				}
+				reg_ip += i_d && i_w ? (char)i_data0 : i_data0
+			OPCODE 15: // TEST reg, r/m
+				MEM_OP(op_from_addr, &, op_to_addr)
+			OPCODE 16: // XCHG AX, regs16
+				i_w = 1;
+				op_to_addr = REGS_BASE;
+				op_from_addr = GET_REG_ADDR(i_reg4bit);
+			OPCODE_CHAIN 24: // NOP|XCHG reg, r/m
+				if (op_to_addr != op_from_addr)
+					OP(^=),
+					MEM_OP(op_from_addr, ^=, op_to_addr),
+					OP(^=)
+			OPCODE 17: // MOVSx (extra=0)|STOSx (extra=1)|LODSx (extra=2)
+				scratch2_uint = seg_override_en ? seg_override : REG_DS;
+
+				for (scratch_uint = rep_override_en ? regs16[REG_CX] : 1; scratch_uint; scratch_uint--)
+				{
+					MEM_OP(extra < 2 ? SEGREG(REG_ES, REG_DI,) : REGS_BASE, =, extra & 1 ? REGS_BASE : SEGREG(scratch2_uint, REG_SI,)),
+					extra & 1 || INDEX_INC(REG_SI),
+					extra & 2 || INDEX_INC(REG_DI);
+				}
+
+				if (rep_override_en)
+					regs16[REG_CX] = 0
+			OPCODE 18: // CMPSx (extra=0)|SCASx (extra=1)
+				scratch2_uint = seg_override_en ? seg_override : REG_DS;
+
+				if ((scratch_uint = rep_override_en ? regs16[REG_CX] : 1))
+				{
+					for (; scratch_uint; rep_override_en || scratch_uint--)
+					{
+						MEM_OP(extra ? REGS_BASE : SEGREG(scratch2_uint, REG_SI,), -, SEGREG(REG_ES, REG_DI,)),
+						extra || INDEX_INC(REG_SI),
+						INDEX_INC(REG_DI), rep_override_en && !(--regs16[REG_CX] && (!op_result == rep_mode)) && (scratch_uint = 0);
+					}
+
+					set_flags_type = FLAGS_UPDATE_SZP | FLAGS_UPDATE_AO_ARITH; // Funge to set SZP/AO flags
+					set_CF(op_result > op_dest);
+				}
+			OPCODE 19: // RET|RETF|IRET
+				i_d = i_w;
+				R_M_POP(reg_ip);
+				if (extra) // IRET|RETF|RETF imm16
+					R_M_POP(regs16[REG_CS]);
+				if (extra & 2) // IRET
+					set_flags(R_M_POP(scratch_uint));
+				else if (!i_d) // RET|RETF imm16
+					regs16[REG_SP] += i_data0
+			OPCODE 20: // MOV r/m, immed
+				R_M_OP(mem[op_from_addr], =, i_data2)
+			OPCODE 21: // IN AL/AX, DX/imm8
+				io_ports[0x20] = 0; // PIC EOI
+				io_ports[0x42] = --io_ports[0x40]; // PIT channel 0/2 read placeholder
+				io_ports[0x3DA] ^= 9; // CGA refresh
+				scratch_uint = extra ? regs16[REG_DX] : (unsigned char)i_data0;
+				scratch_uint == 0x60 && (io_ports[0x64] = 0); // Scancode read flag
+				scratch_uint == 0x3D5 && (io_ports[0x3D4] >> 1 == 7) && (io_ports[0x3D5] = ((mem[0x49E]*80 + mem[0x49D] + CAST(short)mem[0x4AD]) & (io_ports[0x3D4] & 1 ? 0xFF : 0xFF00)) >> (io_ports[0x3D4] & 1 ? 0 : 8)); // CRT cursor position
+				R_M_OP(regs8[REG_AL], =, io_ports[scratch_uint]);
+			OPCODE 22: // OUT DX/imm8, AL/AX
+				scratch_uint = extra ? regs16[REG_DX] : (unsigned char)i_data0;
+				R_M_OP(io_ports[scratch_uint], =, regs8[REG_AL]);
+				scratch_uint == 0x61 && (io_hi_lo = 0, spkr_en |= regs8[REG_AL] & 3); // Speaker control
+				(scratch_uint == 0x40 || scratch_uint == 0x42) && (io_ports[0x43] & 6) && (mem[0x469 + scratch_uint - (io_hi_lo ^= 1)] = regs8[REG_AL]); // PIT rate programming
+#ifndef NO_GRAPHICS
+				scratch_uint == 0x43 && (io_hi_lo = 0, regs8[REG_AL] >> 6 == 2) && (SDL_PauseAudio((regs8[REG_AL] & 0xF7) != 0xB6), 0); // Speaker enable
+#endif
+				scratch_uint == 0x3D5 && (io_ports[0x3D4] >> 1 == 6) && (mem[0x4AD + !(io_ports[0x3D4] & 1)] = regs8[REG_AL]); // CRT video RAM start offset
+				scratch_uint == 0x3D5 && (io_ports[0x3D4] >> 1 == 7) && (scratch2_uint = ((mem[0x49E]*80 + mem[0x49D] + CAST(short)mem[0x4AD]) & (io_ports[0x3D4] & 1 ? 0xFF00 : 0xFF)) + (regs8[REG_AL] << (io_ports[0x3D4] & 1 ? 0 : 8)) - CAST(short)mem[0x4AD], mem[0x49D] = scratch2_uint % 80, mem[0x49E] = scratch2_uint / 80); // CRT cursor position
+				scratch_uint == 0x3B5 && io_ports[0x3B4] == 1 && (GRAPHICS_X = regs8[REG_AL] * 16); // Hercules resolution reprogramming. Defaults are set in the BIOS
+				scratch_uint == 0x3B5 && io_ports[0x3B4] == 6 && (GRAPHICS_Y = regs8[REG_AL] * 4);
+			OPCODE 23: // REPxx
+				rep_override_en = 2;
+				rep_mode = i_w;
+				seg_override_en && seg_override_en++
+			OPCODE 25: // PUSH reg
+				R_M_PUSH(regs16[extra])
+			OPCODE 26: // POP reg
+				R_M_POP(regs16[extra])
+			OPCODE 27: // xS: segment overrides
+				seg_override_en = 2;
+				seg_override = extra;
+				rep_override_en && rep_override_en++
+			OPCODE 28: // DAA/DAS
+				i_w = 0;
+				extra ? DAA_DAS(-=, >=, 0xFF, 0x99) : DAA_DAS(+=, <, 0xF0, 0x90) // extra = 0 for DAA, 1 for DAS
+			OPCODE 29: // AAA/AAS
+				op_result = AAA_AAS(extra - 1)
+			OPCODE 30: // CBW
+				regs8[REG_AH] = -SIGN_OF(regs8[REG_AL])
+			OPCODE 31: // CWD
+				regs16[REG_DX] = -SIGN_OF(regs16[REG_AX])
+			OPCODE 32: // CALL FAR imm16:imm16
+				R_M_PUSH(regs16[REG_CS]);
+				R_M_PUSH(reg_ip + 5);
+				regs16[REG_CS] = i_data2;
+				reg_ip = i_data0
+			OPCODE 33: // PUSHF
+				make_flags();
+				R_M_PUSH(scratch_uint)
+			OPCODE 34: // POPF
+				set_flags(R_M_POP(scratch_uint))
+			OPCODE 35: // SAHF
+				make_flags();
+				set_flags((scratch_uint & 0xFF00) + regs8[REG_AH])
+			OPCODE 36: // LAHF
+				make_flags(),
+				regs8[REG_AH] = scratch_uint
+			OPCODE 37: // LES|LDS reg, r/m
+				i_w = i_d = 1;
+				DECODE_RM_REG;
+				OP(=);
+				MEM_OP(REGS_BASE + extra, =, rm_addr + 2)
+			OPCODE 38: // INT 3
+				++reg_ip;
+				pc_interrupt(3)
+			OPCODE 39: // INT imm8
+				reg_ip += 2;
+				pc_interrupt(i_data0)
+			OPCODE 40: // INTO
+				++reg_ip;
+				regs8[FLAG_OF] && pc_interrupt(4)
+			OPCODE 41: // AAM
+				if (i_data0 &= 0xFF)
+					regs8[REG_AH] = regs8[REG_AL] / i_data0,
+					op_result = regs8[REG_AL] %= i_data0;
+				else // Divide by zero
+					pc_interrupt(0)
+			OPCODE 42: // AAD
+				i_w = 0;
+				regs16[REG_AX] = op_result = 0xFF & regs8[REG_AL] + i_data0 * regs8[REG_AH]
+			OPCODE 43: // SALC
+				regs8[REG_AL] = -regs8[FLAG_CF]
+			OPCODE 44: // XLAT
+				regs8[REG_AL] = mem[SEGREG(seg_override_en ? seg_override : REG_DS, REG_BX, regs8[REG_AL] +)]
+			OPCODE 45: // CMC
+				regs8[FLAG_CF] ^= 1
+			OPCODE 46: // CLC|STC|CLI|STI|CLD|STD
+				regs8[extra / 2] = extra & 1
+			OPCODE 47: // TEST AL/AX, immed
+				R_M_OP(regs8[REG_AL], &, i_data0)
+			OPCODE 48: // Emulator-specific 0F xx opcodes
+				switch ((char)i_data0)
+				{
+					OPCODE_CHAIN 0: // PUTCHAR_AL
+						write(1, regs8, 1);
+                        printf("%c", regs8[0]);
+					OPCODE 1: // GET_RTC
+						time(&clock_buf);
+						ftime(&ms_clock);
+						memcpy(mem + SEGREG(REG_ES, REG_BX,), localtime(&clock_buf), sizeof(struct tm));
+						CAST(short)mem[SEGREG(REG_ES, REG_BX, 36+)] = ms_clock.millitm;
+					OPCODE 2: // DISK_READ
+					OPCODE_CHAIN 3: // DISK_WRITE
+						regs8[REG_AL] = ~lseek(disk[regs8[REG_DL]], CAST(unsigned)regs16[REG_BP] << 9, 0)
+							? ((char)i_data0 == 3 ? (int(*)())write : (int(*)())read)(disk[regs8[REG_DL]], mem + SEGREG(REG_ES, REG_BX,), regs16[REG_AX])
+							: 0;
+				}
+		}
+
+		// Increment instruction pointer by computed instruction length. Tables in the BIOS binary
+		// help us here.
+		reg_ip += (i_mod*(i_mod != 3) + 2*(!i_mod && i_rm == 6))*i_mod_size + bios_table_lookup[TABLE_BASE_INST_SIZE][raw_opcode_id] + bios_table_lookup[TABLE_I_W_SIZE][raw_opcode_id]*(i_w + 1);
+
+		// If instruction needs to update SF, ZF and PF, set them as appropriate
+		if (set_flags_type & FLAGS_UPDATE_SZP)
+		{
+			regs8[FLAG_SF] = SIGN_OF(op_result);
+			regs8[FLAG_ZF] = !op_result;
+			regs8[FLAG_PF] = bios_table_lookup[TABLE_PARITY_FLAG][(unsigned char)op_result];
+
+			// If instruction is an arithmetic or logic operation, also set AF/OF/CF as appropriate.
+			if (set_flags_type & FLAGS_UPDATE_AO_ARITH)
+				set_AF_OF_arith();
+			if (set_flags_type & FLAGS_UPDATE_OC_LOGIC)
+				set_CF(0), set_OF(0);
+		}
+
+		// Poll timer/keyboard every KEYBOARD_TIMER_UPDATE_DELAY instructions
+		if (!(++inst_counter % KEYBOARD_TIMER_UPDATE_DELAY))
+			int8_asap = 1;
+
+#ifndef NO_GRAPHICS
+		// Update the video graphics display every GRAPHICS_UPDATE_DELAY instructions
+		if (!(inst_counter % GRAPHICS_UPDATE_DELAY))
+		{
+			// Video card in graphics mode?
+			if (io_ports[0x3B8] & 2)
+			{
+				// If we don't already have an SDL window open, set it up and compute color and video memory translation tables
+				if (!sdl_screen)
+				{
+					for (int i = 0; i < 16; i++)
+						pixel_colors[i] = mem[0x4AC] ? // CGA?
+							cga_colors[(i & 12) >> 2] + (cga_colors[i & 3] << 16) // CGA -> RGB332
+							: 0xFF*(((i & 1) << 24) + ((i & 2) << 15) + ((i & 4) << 6) + ((i & 8) >> 3)); // Hercules -> RGB332
+
+					for (int i = 0; i < GRAPHICS_X * GRAPHICS_Y / 4; i++)
+						vid_addr_lookup[i] = i / GRAPHICS_X * (GRAPHICS_X / 8) + (i / 2) % (GRAPHICS_X / 8) + 0x2000*(mem[0x4AC] ? (2 * i / GRAPHICS_X) % 2 : (4 * i / GRAPHICS_X) % 4);
+
+					SDL_Init(SDL_INIT_VIDEO);
+					sdl_screen = SDL_SetVideoMode(GRAPHICS_X, GRAPHICS_Y, 8, 0);
+					SDL_EnableUNICODE(1);
+					SDL_EnableKeyRepeat(500, 30);
+				}
+
+				// Refresh SDL display from emulated graphics card video RAM
+				vid_mem_base = mem + 0xB0000 + 0x8000*(mem[0x4AC] ? 1 : io_ports[0x3B8] >> 7); // B800:0 for CGA/Hercules bank 2, B000:0 for Hercules bank 1
+				for (int i = 0; i < GRAPHICS_X * GRAPHICS_Y / 4; i++)
+					((unsigned *)sdl_screen->pixels)[i] = pixel_colors[15 & (vid_mem_base[vid_addr_lookup[i]] >> 4*!(i & 1))];
+
+				SDL_Flip(sdl_screen);
+			}
+			else if (sdl_screen) // Application has gone back to text mode, so close the SDL window
+			{
+				SDL_QuitSubSystem(SDL_INIT_VIDEO);
+				sdl_screen = 0;
+			}
+			SDL_PumpEvents();
+		}
+#endif
+
+		// Application has set trap flag, so fire INT 1
+		if (trap_flag)
+			pc_interrupt(1);
+
+		trap_flag = regs8[FLAG_TF];
+
+		// If a timer tick is pending, interrupts are enabled, and no overrides/REP are active,
+		// then process the tick and check for new keystrokes
+		if (int8_asap && !seg_override_en && !rep_override_en && regs8[FLAG_IF] && !regs8[FLAG_TF])
+			pc_interrupt(0xA), int8_asap = 0, SDL_KEYBOARD_DRIVER;
+	}
+
+#ifndef NO_GRAPHICS
+	SDL_Quit();
+#endif
+	return 0;
+}
diff --git a/contrib/other/8086tiny/Makefile b/contrib/other/8086tiny/Makefile
new file mode 100644
index 000000000..eed150914
--- /dev/null
+++ b/contrib/other/8086tiny/Makefile
@@ -0,0 +1,6 @@
+OUTFILE = 8086tiny
+OBJS = 8086tiny.o
+CFLAGS += -O3 -std=c99
+LIBS += -lSDL
+include $(MENUETDEV)/makefiles/Makefile_for_program
+
diff --git a/contrib/other/8086tiny/Tupfile.lua b/contrib/other/8086tiny/Tupfile.lua
new file mode 100644
index 000000000..2ef85fee1
--- /dev/null
+++ b/contrib/other/8086tiny/Tupfile.lua
@@ -0,0 +1,12 @@
+if tup.getconfig("NO_GCC") ~= "" then return end
+if tup.getconfig("HELPERDIR") == ""
+then
+  if tup.getconfig("NO_NASM") ~= "" then return end -- required for SDL compilation
+  HELPERDIR = "../../../programs"
+end
+tup.include(HELPERDIR .. "/use_gcc.lua")
+tup.include(HELPERDIR .. "/use_menuetlibc.lua")
+tup.include(HELPERDIR .. "/use_sdl.lua")
+CFLAGS = CFLAGS_OPTIMIZE_SPEED .. " -std=c99 -U_WIN32 -fwhole-program"
+compile_gcc{"8086tiny.c"}
+link_gcc("8086tiny")
diff --git a/contrib/other/8086tiny/console.c b/contrib/other/8086tiny/console.c
new file mode 100644
index 000000000..2ece619ba
--- /dev/null
+++ b/contrib/other/8086tiny/console.c
@@ -0,0 +1,150 @@
+#include<menuet/os.h>
+
+
+///===========================
+
+#define CON_COLOR_BLUE		1
+#define CON_COLOR_GREEN		2
+#define CON_COLOR_RED		4
+#define CON_COLOR_BRIGHT	8
+/* цвет фона */
+#define CON_BGR_BLUE		0x10
+#define CON_BGR_GREEN		0x20
+#define CON_BGR_RED		0x40
+#define CON_BGR_BRIGHT		0x80
+
+///===========================
+#define _stdcall __attribute__((stdcall))
+#define __stdcall __attribute__((stdcall))
+#define _cdecl __attribute__((cdecl))
+#define __cdecl __attribute__((cdecl))
+
+
+
+
+
+void (* _stdcall con_init)(unsigned w_w, unsigned w_h, unsigned s_w, unsigned s_h, const char* t);
+void (* _cdecl printf)(const char* format,...);
+void (* _stdcall _exit2)(char bCloseWindow);
+void (* __stdcall gets)(char* str, int n);
+ int (* __stdcall getch)(void);
+ int (* __stdcall kbhit)(void);
+ int (* __stdcall con_get_font_height)(void);
+ int (* __stdcall con_set_cursor_height)(int new_height);
+unsigned (*__stdcall con_get_flags)(void);
+unsigned (*__stdcall con_set_flags)(unsigned new_flags);
+void (*__stdcall con_cls)(void);
+
+typedef struct 
+{
+unsigned	p00 __attribute__((packed));
+unsigned	p04 __attribute__((packed));
+unsigned	p08 __attribute__((packed));
+unsigned	p12 __attribute__((packed));
+unsigned	p16 __attribute__((packed));
+char		p20 __attribute__((packed));
+char		*p21 __attribute__((packed));
+} kol_struct70 __attribute__((packed));
+
+typedef struct
+{
+char	*name __attribute__((packed));
+void	*data __attribute__((packed));
+} kol_struct_import __attribute__((packed));
+
+///===========================
+
+void kol_exit()
+{
+__asm ("int $0x40"::"a"(-1));
+}
+
+int kol_file_70(kol_struct70 *k)
+{
+__asm ("int $0x40"::"a"(70), "b"(k));
+}
+
+
+
+void* kol_cofflib_procload (kol_struct_import *imp, char *name)
+{
+int i;
+for (i=0;;i++)
+	if ( NULL == ((imp+i) -> name))
+		break;
+	else
+		if ( 0 == strcmp(name, (imp+i)->name) )
+			return (imp+i)->data;
+return NULL;
+}
+
+
+
+
+void CONSOLE_INIT(char title[])
+{
+kol_struct_import *imp;
+
+__menuet__debug_out ("console init");
+imp = __kolibri__cofflib_load("/sys/lib/console.obj");
+if (imp == NULL)
+	{__menuet__debug_out ("imp NULL"); kol_exit();}
+
+con_init = ( _stdcall  void (*)(unsigned, unsigned, unsigned, unsigned, const char*)) 
+		kol_cofflib_procload (imp, "con_init");
+if (con_init == NULL)
+	{__menuet__debug_out ("con init failed"); kol_exit();}
+
+printf = ( _cdecl void (*)(const char*,...))
+		kol_cofflib_procload (imp, "con_printf");
+if (printf == NULL)
+	kol_exit();
+
+_exit2 = ( _stdcall void (*)(char))
+		kol_cofflib_procload (imp, "con_exit");
+if (_exit2 == NULL)
+	kol_exit();
+
+gets = ( _stdcall void (*)(char*, int))
+		kol_cofflib_procload (imp, "con_gets");
+if (gets == NULL)
+	kol_exit();
+
+getch = ( _stdcall int (*)(void))
+		kol_cofflib_procload (imp, "con_getch2");
+if (getch == NULL)
+	kol_exit();
+    
+kbhit = ( _stdcall int (*)(void))
+		kol_cofflib_procload (imp, "con_kbhit");
+if (getch == NULL)
+	kol_exit();
+
+con_get_font_height = ( _stdcall int (*)(void))
+		kol_cofflib_procload (imp, "con_get_font_height");
+if (con_get_font_height == NULL)
+	kol_exit();
+
+con_set_cursor_height = ( _stdcall int (*)(int))
+		kol_cofflib_procload (imp, "con_set_cursor_height");
+if (con_set_cursor_height == NULL)
+	kol_exit();
+
+con_get_flags = ( _stdcall unsigned (*)(void))
+		kol_cofflib_procload (imp, "con_get_flags");
+if (con_get_flags == NULL)
+	kol_exit();
+
+con_set_flags = ( _stdcall unsigned (*)(unsigned))
+		kol_cofflib_procload (imp, "con_set_flags");
+if (con_set_flags == NULL)
+	kol_exit();
+
+con_cls = ( _stdcall void (*)(void))
+		kol_cofflib_procload (imp, "con_cls");
+if (con_cls == NULL)
+	kol_exit();
+
+__menuet__debug_out ("success");
+con_init(-1, -1, -1, -1, title);
+}