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SL811
.EP0Control=0
.EP0Address=1
.EP0Status=3
.EP0Counter=4
.CtrlReg=5
.IntEna=6
.IntStatus=13
.cDATASet=14
.cSOFcnt=15
.INT_CLEAR=0xff
MACRO WRITE_REG _r,_v
IF _r == 0x00
xor a
ELSE
ld a,_r
ENDIF
out (c),a
IF _r != _v
IF _v == 0x00
xor a
ELSE
ld a,_v
ENDIF
ENDIF
IF _v & 0x80
dec b
out (c),a
inc b
ELSE
out (0xab),a
ENDIF
ENDM
.init
; 32. SL11HardReset();
CALL .SL11HardReset
; 33. USBReset();
CALL .USBReset
; 34. temp=sl811_init_my();
CALL .sl811_init_my
or a
ld a,1
ret z
; 35. temp=EnumUsbDev(); // enumerate USB device, assign USB address = #1
CALL .EnumUsbDev
or a
ld a,1
ret z
; 36. temp=EnumMassDev();
CALL .EnumMassDev
or a
ret z
ld a,1
ret
.DBUF ;=0x8000-1024
defs 256
; 17. void USBReset(void)
; 18. {
.USBReset:
PUSH BC
PUSH DE
; PUSH AF
; 19. BYTE tmp;
; 20. tmp = SL811Read(CtrlReg);
LD A,.CtrlReg ;0x05
LD BC,0x80ab
OUT (C),A
in a,(0xab)
; LD HL,0
; ADD HL,SP
LD (.USBReset_a),a
; 21. SL811Write(CtrlReg,0x08);
WRITE_REG .CtrlReg,0x08
; 22. .delayms(100);
LD E,6
CALL .delayms
; 23. SL811Write(CtrlReg,0x18);
WRITE_REG .CtrlReg, 0x18
; 24. .delayms(100);
LD E,6
CALL .delayms
; 25. SL811Write(CtrlReg,0x08);
WRITE_REG .CtrlReg, 0x08
; 26. .delayms(500);
LD E,26
CALL .delayms
; 27. SL811Write(CtrlReg,tmp);
LD A,.CtrlReg ;0x05
OUT (C),A
; LD HL,0
; ADD HL,SP
.USBReset_a=$+1
LD A,0x00
dec B
OUT (C),A
; 28. }
; POP HL
POP DE
POP BC
RET
; 29. BYTE sl811_init_my(void)
; 30. {
.sl811_init_my:
PUSH BC
PUSH DE
; 31. SL811Write(cSOFcnt, 0xae); // Set SOF high counter, no change D+/D-SL11Write(CtrlReg, 0x48); // Setup Normal Operation
LD A,.cSOFcnt
LD BC,0x80ab
OUT (C),A
LD A,174
dec B ;LD B,0x7f
OUT (C),A
inc b
; 32. SL811Write(IntEna, 0x63); // USBA/B, Insert/Remove,USBRest/Resume.
WRITE_REG .IntEna, 0x63
; 33. SL811Write(cSOFcnt, 0xae); // Set SOF high counter, no change D+/D-SL11Write(CtrlReg, 0x48); // Setup Normal Operation
WRITE_REG .cSOFcnt, 0xae
; 34. SL811Write(CtrlReg, 0); // Disable USB transfer operation and SOF
WRITE_REG .CtrlReg, 0x00
; 35. SL811Write(cSOFcnt, 0xae); // Set SOF high counter, no change D+/D-SL11Write(CtrlReg, 0x48);
WRITE_REG .cSOFcnt, 0xae
; 36. // Clear SL811H mode and setup normal operation
; 37. .delayms(20); // Delay for HW stablize
LD E,2
CALL .delayms
; 38. SL811Write(CtrlReg, 0); // Disable USB transfer operation and SOF
WRITE_REG .CtrlReg, 0
; 39. if(SL811Read(IntStatus)==0x05) return FALSE;
LD A,13
OUT (C),A
IN A,(0xab)
CP 5
JR Z,.lo183
.lo010:
.lo011:
; 40.
; 41. SL811Write(cSOFcnt,0xae);
WRITE_REG .cSOFcnt,0xae
call .USBReset
; 42. SL811Write(IntEna,0x00);
WRITE_REG .IntEna,0x00
; 43. SL811Write(IntStatus,INT_CLEAR);
WRITE_REG .IntStatus, 0xFF
; 44. .delayms(100);
LD E,6
CALL .delayms
; 45. if((SL811Read(IntStatus)&0xc0)!=0x80) return FALSE;
LD A,13
OUT (C),A
IN a,(0xab)
AND 0xc0
cp 0x80
jr z,.lo013
.lo012:
.lo183:
XOR A
; 46. puts("'Full' Speed is detected!"); // ** Full Speed is detected ** //
JR .lo014
.lo013:
; 47. SL811Write(cSOFcnt,0xae); // Set up Master & low speed direct and SOF cnt high=0x2e
WRITE_REG .cSOFcnt,0xae
; 48. SL811Write(cDATASet,0xe0); // SOF Counter Low = 0xE0; 1ms interval
WRITE_REG .cDATASet,0xe0
; 49. SL811Write(CtrlReg,0x05); // Setup 48MHz and SOF enable
WRITE_REG .CtrlReg,0x05
; 50. SL811Write(EP0Status,0x50); //90);
WRITE_REG .EP0Status,0x50
; 51. SL811Write(EP0Counter,0x00);
WRITE_REG .EP0Counter,0x00
; 52. SL811Write(EP0Control,1); //sDATA0_RD); //0x23
WRITE_REG .EP0Control,1
; 53. .delayms(15);
LD E,A
CALL .delayms
; 54. SL811Write(IntEna,0x61);
WRITE_REG .IntEna,0x61
; 55. SL811Write(IntStatus,INT_CLEAR); //0xff
WRITE_REG .IntStatus, 0xFF
; 56. return TRUE;
LD A,1
; 57. }
.lo014:
POP DE
POP BC
RET
; 58. //*****************************************************************************************
; 59. // .usbXfer:
; 60. // successful transfer = return TRUE
; 61. // fail transfer = return FALSE
; 62. //*****************************************************************************************
; 63. unsigned char .usbXfer(void)
; 64. {
.usbXfer:
PUSH BC
PUSH DE
PUSH IY
PUSH IX
PUSH AF
; 65. unsigned char xferLen, cmd;
; 66. unsigned char result,remainder,dataX=0x10,bufLen,timeout;
; 67. timeout=TIMEOUT_RETRY;
; 68. #define data0 EP0_Buf // DATA0 buffer address
; 69. #define data1 (EP0_Buf + 64) // DATA1 buffer address
; 70. //------------------------------------------------
; 71. // Define data transfer payload
; 72. //------------------------------------------------
; 73. if (.usbstack.wLen >= 64) // select proper data payload
LD E,16
LD HL,0
ADD HL,SP
LD (HL),6
LD HL,(.usbstack+3)
LD BC,64
AND A
SBC HL,BC
JR C,.lo016
.lo015:
; 74. xferLen = 64; // limit to wPayload size
LD IXL,64
; 75. else // else take < payload len
JR .lo017
.lo016:
; 76. xferLen = .usbstack.wLen; //
LD A,(.usbstack+3)
LD IXL,A
.lo017:
; 77.
; 78. // For IN token
; 79. if (.usbstack.pid==PID_IN) // for current IN tokens
LD A,(.usbstack+2)
CP 144
JR NZ,.lo019
.lo018:
; 80. {
; 81. cmd = sDATA0_RD; // FS/FS on Hub, sync to sof
LD D,35
JR .lo025
.lo019:
; 82. }
; 83. // For OUT token
; 84. else if(.usbstack.pid==PID_OUT) // for OUT tokens
CP 16
LD B,IXL
JR NZ,.lo022
.lo021:
; 85. {
; 86. if(xferLen) // only when there are
INC B
DEC B
JR Z,.lo024
.lo023:
; 87. {
; 88. SL811BufWrite(data0,.usbstack.buffer,xferLen); // data to transfer on USB
PUSH DE
LD HL,.usbstack+5
LD a,(HL)
INC HL
LD h,(HL)
;PUSH BC
ld l,a
LD C,IXL
LD E,16
CALL SL811BUFWRITE
;POP HL
POP DE
.lo024:
; 89. }
; 90. cmd = sDATA0_WR; // FS/FS on Hub, sync to sof
; 91. .uDev.bData1[.usbstack.endpoint]=(cmd |= .uDev.bData1[.usbstack.endpoint])^0x40;
LD BC,(.usbstack+1)
LD B,0
LD HL,.uDev+1
ADD HL,BC
LD A,(HL)
OR 39
LD D,A
XOR 64
LD BC,(.usbstack+1)
LD B,0
LD HL,.uDev+1
ADD HL,BC
LD (HL),A
; 92. }
; 93. //------------------------------------------------
; 94. // For SETUP/OUT token
; 95. //------------------------------------------------
; 96. else // for current SETUP/OUT tokens
JR .lo025
.lo022:
; 97. {
; 98. if(xferLen) // only when there are
INC B
DEC B
JR Z,.lo027
.lo026:
; 99. { // data to transfer on USB
; 100. SL811BufWrite(data0,&.usbstack.setup.bmRequest,xferLen);
PUSH DE
LD HL,.usbstack+7
;PUSH HL
LD C,IXL
LD E,16
CALL SL811BUFWRITE
;POP HL
POP DE
.lo027:
; 101. }
; 102. cmd = sDATA0_WR; // FS/FS on Hub, sync to sof
LD D,39
.lo025:
.lo020:
; 103. }
; 104. //------------------------------------------------
; 105. // For EP0's IN/OUT token data, start with DATA1
; 106. // Control Endpoint0's status stage.
; 107. // For data endpoint, IN/OUT data, start ????
; 108. //------------------------------------------------
; 109. if (.usbstack.endpoint == 0 && .usbstack.pid != PID_SETUP) // for Ep0's IN/OUT token
LD A,(.usbstack+1)
OR A
JR NZ,.lo029
LD A,(.usbstack+2)
CP 208
JR Z,.lo029
.lo031:
.lo030:
.lo028:
; 110. cmd |= 0x40; // always set DATA1
SET 6,D
.lo029:
; 111. //------------------------------------------------
; 112. // Arming of USB data transfer for the first pkt
; 113. //------------------------------------------------
; 114. SL811Write(EP0Status,((.usbstack.endpoint&0x0F)|.usbstack.pid)); // PID + EP address
LD A,3
LD BC,0x80ab
OUT (C),A
ld hl,(.usbstack+1)
LD A,l
AND 15
OR H
dec B
OUT (C),A
inc B
; 115. SL811Write(EP0Counter,.usbstack.usbaddr); // USB address
LD A,4
OUT (C),A
LD A,(.usbstack)
dec B
OUT (C),A
inc B
; 116. SL811Write(EP0Address,data0); // buffer address, start with "data0"
WRITE_REG .EP0Address,16
; 117. SL811Write(.ep0XferLen,xferLen); // data transfer length
LD A,2
OUT (C),A
LD A,IXL
dec B
OUT (C),A
inc B
; 118. SL811Write(IntStatus,INT_CLEAR); // clear interrupt status
WRITE_REG .IntStatus,.INT_CLEAR
; 119. SL811Write(EP0Control,cmd); // Enable ARM and USB transfer start here
XOR A
OUT (C),A
dec B
OUT (C),D
.lo033:
; 120. //------------------------------------------------
; 121. // Main loop for completing a wLen data trasnfer
; 122. //------------------------------------------------
; 123. while(TRUE)
.lo034:
.lo036:
; 124. {
; 125. //---------------Wait for done interrupt------------------
; 126. while(TRUE) // always ensure requested device is
.lo037:
; 127. { // inserted at all time, then you will
; 128. result = SL811Read(IntStatus);
LD A,13
LD BC,0x80ab
OUT (C),A
dec B
IN H,(C)
LD B,H
; 129. // wait for interrupt to be done, and
; 130. if(result & (USB_RESET|INSERT_REMOVE)) // proceed to parse result from slave
LD A,H
AND 96
JR Z,.lo039
.lo038:
; 131. { // device.
; 132. return FALSE; // flag true, so that main loop will
XOR A
JP .lo079
.lo039:
; 133. }else if(result & USB_A_DONE) // know this condition and exit gracefully
BIT 0,B
JR Z,.lo033
.lo040:
; 134. break; // interrupt done !!!
.lo041:
.lo035:
; 135. }
; 136.
; 137. SL811Write(IntStatus,INT_CLEAR); // clear interrupt status
LD B,0x80
WRITE_REG .IntStatus,.INT_CLEAR
; 138. result = SL811Read(EP0Status); // read EP0status register
LD A,3
LD B,0x80
OUT (C),A
IN a,(0xab)
LD h,a
LD IYH,a
; 139. remainder = SL811Read(EP0Counter); // remainder value in last pkt xfer
LD A,4
OUT (C),A
IN a,(0xab)
LD L,A
LD IYL,A
; 140.
; 141. //-------------------------ACK----------------------------
; 142. if (result & EP0_ACK) // Transmission ACK
BIT 0,H
JP Z,.lo063
.lo042:
; 143. {
; 144.
; 145. // SETUP TOKEN
; 146. if(.usbstack.pid == PID_SETUP) // do nothing for SETUP/OUT token
LD A,(.usbstack+2)
CP 208
JP Z,.lo032
.lo044:
; 147. break; // exit while(1) immediately
.lo045:
; 148. // OUT TOKEN
; 149. else if(.usbstack.pid == PID_OUT)
CP 16
JP Z,.lo032
.lo046:
; 150. break;
.lo047:
; 151. // IN TOKEN
; 152. else if(.usbstack.pid == PID_IN)
CP 144
JP NZ,.lo063
.lo048:
; 153. { // for IN token only
; 154. .usbstack.wLen -= (WORD)xferLen; // update remainding wLen value
LD HL,.usbstack+3
LD C,IXL
LD B,0
LD A,(HL)
SUB C
LD (HL),A
INC HL
LD A,(HL)
SBC A,B
LD (HL),A
; 155. cmd ^= 0x40; // toggle DATA0/DATA1
LD A,D
XOR 64
LD D,A
; 156. dataX ^= 0x40; // point to next dataX
LD A,E
XOR 64
LD E,A
; 157. //------------------------------------------------
; 158. // If host requested for more data than the slave
; 159. // have, and if the slave's data len is a multiple
; 160. // of its endpoint payload size/last xferLen. Do
; 161. // not overwrite data in previous buffer.
; 162. //------------------------------------------------
; 163. if(remainder==xferLen) // empty data detected
LD A,IYL
CP C
JR NZ,.lo051
.lo050:
; 164. bufLen = 0; // do not overwriten previous data
LD IXH,0
; 165. else // reset bufLen to zero
JR .lo052
.lo051:
; 166. bufLen = xferLen; // update previous buffer length
LD IXH,IXL
.lo052:
; 167.
; 168. //------------------------------------------------
; 169. // Arm for next data transfer when requested data
; 170. // length have not reach zero, i.e. wLen!=0, and
; 171. // last xferlen of data was completed, i.e.
; 172. // remainder is equal to zero, not a short pkt
; 173. //------------------------------------------------
; 174. if(!remainder && .usbstack.wLen) // remainder==0 when last xferLen
LD B,IYL
INC B
DEC B
JR NZ,.lo054
LD HL,(.usbstack+3)
LD A,L
OR H
JR Z,.lo054
.lo056:
.lo055:
.lo053:
; 175. { // was all completed or wLen!=0
; 176. xferLen = (BYTE)(.usbstack.wLen>=64) ? 64:.usbstack.wLen; // get data length required
LD C,64
SBC HL,BC
JR C,.lo058
LD A,C
JR .lo059
.lo058:
LD A,(.usbstack+3)
.lo059:
LD IXL,A
; 177.
; 178. SL811Write(.ep0XferLen, xferLen); // select next xfer length
LD A,2
LD BC,0x80ab
OUT (C),A
LD A,IXL
dec B ;LD B,0x7f
OUT (C),A
inc B
; 179. SL811Write(EP0Address, dataX); //addr); // data buffer addr
LD A,1
OUT (C),A
dec B
OUT (C),E
inc B
; 180. SL811Write(IntStatus,INT_CLEAR); // is a LS is on Hub.
LD A,13
OUT (C),A
LD A,255
dec B
OUT (C),A
inc B
; 181. SL811Write(EP0Control,cmd); // Enable USB transfer and re-arm
XOR A
LD B,0x80
OUT (C),A
dec B
LD B,0x7f
OUT (C),D
.lo054:
; 182. }
; 183. //------------------------------------------------
; 184. // Copy last IN token data pkt from prev transfer
; 185. // Check if there was data available during the
; 186. // last data transfer
; 187. //------------------------------------------------
; 188. if(bufLen)
LD B,IXH
INC B
DEC B
JR Z,.lo061
.lo060:
; 189. {
; 190. SL811BufRead(dataX^0x40, .usbstack.buffer, bufLen);
PUSH DE
LD HL,.usbstack+5
LD A,(HL)
INC HL
LD H,(HL)
ld l,a
LD A,E
XOR 64
LD E,A
LD a,IXH
;*** CALL SL811BUFREAD
;HL-buf,E-reg, A-count
;ld a,c
.rdloop
ld bc,0x80ab
out (c),e
inc e
ld b,a
ini
ld a,b
jp nz,.rdloop
;***
;POP HL
POP DE
; 191. .usbstack.buffer += bufLen;
LD HL,.usbstack+5
LD C,IXH
LD B,0
LD A,(HL)
ADD A,C
LD (HL),A
INC HL
LD A,(HL)
ADC A,B
LD (HL),A
.lo061:
; 192. }
; 193. //------------------------------------------------
; 194. // Terminate on short packets, i.e. remainder!=0
; 195. // a short packet or empty data packet OR when
; 196. // requested data len have completed, i.e.wLen=0
; 197. // For a LOWSPEED device, the 1st device descp,
; 198. // wPayload is default to 64-byte, LS device will
; 199. // only send back a max of 8-byte device descp,
; 200. // and host detect this as a short packet, and
; 201. // terminate with OUT status stage
; 202. //------------------------------------------------
; 203. if(remainder || !.usbstack.wLen)
LD B,IYL
INC B
DEC B
JR NZ,.lo032
LD HL,(.usbstack+3)
LD A,L
OR H
JR Z,.lo032
.lo064:
.lo065:
.lo062:
; 204. break;
.lo063:
.lo049:
.lo043:
; 205. }// PID IN
; 206. }
; 207.
; 208. //-------------------------NAK----------------------------
; 209. if (result & EP0_NAK) // NAK Detected
LD B,IYH
BIT 6,B
JR Z,.lo067
.lo066:
; 210. {
; 211. SL811Write(IntStatus,INT_CLEAR); // clear interrupt status, need to
LD BC,0x80ab
WRITE_REG .IntStatus,.INT_CLEAR
; 212. SL811Write(EP0Control,cmd); // re-arm and request for last cmd, IN token
XOR A
OUT (C),A
dec B
OUT (C),D
; 213. result = 0; // respond to NAK status only
LD IYH,0
.lo067:
; 214. }
; 215. //-----------------------TIMEOUT--------------------------
; 216. if (result & EP0_TIMEOUT) // TIMEOUT Detected
LD B,IYH
BIT 2,B
JR Z,.lo074
.lo068:
; 217. {
; 218. if(.usbstack.endpoint==0) // happens when hub enumeration
LD A,(.usbstack+1)
OR A
JR NZ,.lo032
.lo070:
; 219. {
; 220. if((--timeout)==0)
LD L,A
LD H,A
ADD HL,SP
DEC (HL)
OR (HL)
JR Z,.lo032
.lo072:
; 221. {
; 222. break; // exit on the timeout detected
.lo073:
; 223. }
; 224. SL811Write(IntStatus,INT_CLEAR); // clear interrupt status, need to
LD BC,0x80ab
WRITE_REG .IntStatus,.INT_CLEAR
; 225. SL811Write(EP0Control,cmd); // re-arm and request for last cmd again
XOR A
OUT (C),A
dec B
OUT (C),D
; 226. }
; 227. else
.lo071:
; 228. { // all other data endpoint, data transfer
; 229. break; // happens when data transfer on a device
.lo074:
.lo069:
; 230. } // through the hub
; 231. }
; 232. //-----------------------STALL----------------------------
; 233. if (result & EP0_STALL) // STALL detected
LD B,IYH
BIT 7,B
JR Z,.lo076
.lo075:
; 234. return TRUE; // for unsupported request.
LD A,1
JR .lo079
.lo076:
; 235. //----------------------OVEFLOW---------------------------
; 236. if (result & (EP0_OVERFLOW|EP0_ERROR)) // OVERFLOW detected
LD A,IYH
AND 34
JP Z,.lo033
.lo077:
; 237. break;
.lo078:
.lo032:
; 238. //-----------------------ERROR----------------------------
; 239. } // end of While(1)
; 240. return result & EP0_ACK;
LD A,IYH
AND 1
; 241. }
.lo079:
POP HL
POP IX
POP IY
POP DE
POP BC
RET
; 242. //*****************************************************************************************
; 243. // Control Endpoint 0's USB Data Xfer
; 244. // .ep0Xfer, endpoint 0 data transfer
; 245. //*****************************************************************************************
; 246. unsigned char .ep0Xfer(void)
; 247. {
.ep0Xfer:
PUSH DE
; 248. .usbstack.endpoint=0;
XOR A
LD (.usbstack+1),A
; 249. //----------------------------------------------------
; 250. // SETUP token with 8-byte request on endpoint 0
; 251. //----------------------------------------------------
; 252. .usbstack.pid=PID_SETUP;
LD A,208
LD (.usbstack+2),A
; 253. .usbstack.wLen=8;
LD HL,8
LD (.usbstack+3),HL
; 254. if (!.usbXfer())
CALL .usbXfer
OR A
JR Z,.lo191
.lo080:
; 255. {
; 256. return FALSE;
; 257. }
.lo081:
; 258. .usbstack.pid = PID_IN;
LD A,144
LD (.usbstack+2),A
; 259. //----------------------------------------------------
; 260. // IN or OUT data stage on endpoint 0
; 261. //----------------------------------------------------
; 262. .usbstack.wLen=.usbstack.setup.wLength;
LD HL,(.usbstack+13)
LD (.usbstack+3),HL
; 263. if (.usbstack.wLen) // if there are data for transfer
LD A,L
OR H
JR Z,.lo088
.lo082:
; 264. {
; 265. if (.usbstack.setup.bmRequest & 0x80) // host-to-device : IN token
LD A,(.usbstack+7)
OR A
JP P,.lo085
.lo084:
; 266. {
; 267. .usbstack.pid = PID_IN;
LD A,144
LD (.usbstack+2),A
; 268.
; 269. if(!.usbXfer())
CALL .usbXfer
OR A
JR Z,.lo191
.lo086:
; 270. {
; 271. return FALSE;
; 272. }
.lo087:
; 273. .usbstack.pid = PID_OUT;
LD A,16
JR .lo188
; 274. }
; 275. else // device-to-host : OUT token
.lo085:
; 276. {
; 277. .usbstack.pid = PID_OUT;
LD A,16
LD (.usbstack+2),A
; 278.
; 279. if(!.usbXfer())
CALL .usbXfer
OR A
JR Z,.lo191
.lo089:
; 280. {
; 281. return FALSE;
; 282. }
.lo090:
; 283. .usbstack.pid = PID_IN;
LD A,144
.lo188:
LD (.usbstack+2),A
.lo088:
.lo083:
; 284. }
; 285. }
; 286. .delayms(10);
LD E,1
CALL .delayms
; 287. //----------------------------------------------------
; 288. // Status stage IN or OUT zero-length data packet
; 289. //----------------------------------------------------
; 290. .usbstack.wLen=0;
LD HL,0
LD (.usbstack+3),HL
; 291. if(!.usbXfer())
CALL .usbXfer
OR A
JR NZ,.lo092
.lo091:
; 292. {
; 293. return FALSE;
.lo191:
XOR A
; 294. }
JR .lo093
.lo092:
; 295. return TRUE;
LD A,1
; 296. }
.lo093:
POP DE
RET
; 297.
; 298. unsigned char .epBulkSend(unsigned char *pBuffer,unsigned int len)
; 299. {
.epBulkSend:
PUSH IX
PUSH DE
PUSH BC
POP IX
; 300. .usbstack.usbaddr=myusbaddr;
LD A,1
LD (.usbstack),A
; 301. .usbstack.endpoint=.usbstack.epbulkout;
LD A,(.usbstack+16)
LD (.usbstack+1),A
; 302. .usbstack.pid=PID_OUT;
LD A,16
LD (.usbstack+2),A
; 303. .usbstack.wLen=len;
LD (.usbstack+3),BC
; 304. .usbstack.buffer=pBuffer;
LD L,E
LD H,D
LD (.usbstack+5),HL
.lo095:
; 305. while(len>0)
LD A,IXL
OR IXH
JR Z,.lo094
.lo096:
; 306. {
; 307. if (len >= 64)
LD BC,64
PUSH IX
POP HL
SBC HL,BC
JR C,.lo098
.lo097:
; 308. .usbstack.wLen = 64;
LD L,C
LD H,B
JR .lo193
; 309. else
.lo098:
; 310. .usbstack.wLen = len;
PUSH IX
POP HL
.lo193:
LD (.usbstack+3),HL
.lo099:
; 311. disable_interrupt();
DI
.lo101:
; 312. while(!.usbXfer()){
CALL .usbXfer
OR A
EI
JR Z,.lo103
.lo102:
; 313. enable_interrupt();
; 314. puts(".epBulkSend ERROR");
; 315. return FALSE;
; 316. }
.lo100:
; 317. enable_interrupt();
; 318. len-=.usbstack.wLen;
LD BC,(.usbstack+3)
PUSH IX
POP HL
AND A
SBC HL,BC
PUSH HL
POP IX
; 319. .usbstack.buffer=.usbstack.buffer+.usbstack.wLen;
LD HL,.usbstack+5
LD A,(HL)
ADD A,C
LD (HL),A
INC HL
LD A,(HL)
ADC A,B
LD (HL),A
JR .lo095
.lo094:
; 320. }
; 321. return TRUE;
LD A,1
; 322. }
.lo103:
POP HL
POP IX
RET
; 323.
; 324. unsigned char .epBulkRcv(unsigned char *pBuffer,unsigned int len)
; 325. {
.epBulkRcv:
PUSH IX
; LD IX,0
; ADD IX,SP
; PUSH BC
; PUSH DE
; 326. .usbstack.usbaddr=myusbaddr;
LD A,1
LD (.usbstack),A
; 327. .usbstack.endpoint=.usbstack.epbulkin;
LD A,(.usbstack+15)
LD (.usbstack+1),A
; 328. .usbstack.pid=PID_IN;
LD A,144
LD (.usbstack+2),A
; 329. .usbstack.wLen=len;
LD (.usbstack+3),BC
; 330. .usbstack.buffer=pBuffer;
LD (.usbstack+5),DE
; 331. if(.usbstack.wLen)
LD A,C
LD H,B
OR H
JR Z,.lo106
; 332. {
; 333. disable_interrupt();
DI
; 334. while(!.usbXfer()){
CALL .usbXfer
OR A
EI
JR Z,.lo109
; 335. enable_interrupt();
; 336. return FALSE;
; 337. }
.lo106:
; 338. enable_interrupt();
; 339. }
; 340. return TRUE;
LD A,1
; 341. }
.lo109:
; LD SP,IX
POP IX
RET
; 342.
; 343. //*****************************************************************************************
; 344. // Set Device Address :
; 345. //*****************************************************************************************
; 346. unsigned char SetAddress(unsigned char addr)
; 347. {
.SetAddress:
PUSH BC
PUSH DE
; 348. .usbstack.usbaddr=0;
XOR A
LD (.usbstack),A
; 349. .usbstack.setup.bmRequest=0;
LD (.usbstack+7),A
; 350. .usbstack.setup.bRequest=SET_ADDRESS;
LD A,5
LD (.usbstack+8),A
; 351. .usbstack.setup.wValue=addr;
LD C,E
LD B,0
LD (.usbstack+9),BC
; 352. .usbstack.setup.wIndex=0;
LD L,B
LD H,B
LD (.usbstack+11),HL
; 353. .usbstack.setup.wLength=0;
LD (.usbstack+13),HL
; 354. return .ep0Xfer();
CALL .ep0Xfer
; 355. }
POP HL
POP BC
RET
; 356..
; 357. //*****************************************************************************************
; 358. // Set Device Configuration :
; 359. //*****************************************************************************************
; 360. unsigned char Set_Configuration(void)
; 361. {
.Set_Configuration:
; 362. .usbstack.setup.bmRequest=0;
XOR A
LD (.usbstack+7),A
; 363. .usbstack.setup.bRequest=SET_CONFIG;
LD A,9
LD (.usbstack+8),A
; 364. .usbstack.setup.wIndex=0;
LD HL,0
LD (.usbstack+11),HL
; 365. .usbstack.setup.wLength=0;
LD (.usbstack+13),HL
; 366. .usbstack.buffer=NULL;
LD (.usbstack+5),HL
; 367. return .ep0Xfer();
JP .ep0Xfer
; 368. }
; 369.
; 370. //*****************************************************************************************
; 371. // Get Device Descriptor : Device, Configuration, String
; 372. //*****************************************************************************************
; 373. unsigned char GetDesc(void)
; 374. {
.GetDesc:
PUSH BC
; 375. .usbstack.setup.bmRequest=0x80;
LD A,0x80
LD (.usbstack+7),A
; 376. .usbstack.setup.bRequest=GET_DESCRIPTOR;
LD A,6
LD (.usbstack+8),A
; 377. .usbstack.setup.wValue=.usbstack.setup.wValue<<8;
LD HL,.usbstack+9
LD B,(HL)
LD (HL),0
INC HL
LD (HL),B
; 378. return .ep0Xfer();
CALL .ep0Xfer
; 379. }
POP BC
RET
; 380.
; 381. //*****************************************************************************************
; 382. // USB Device Enumeration Process
; 383. // Support 1 confguration and interface #0 and alternate setting #0 only
; 384. // Support up to 1 control endpoint + 4 data endpoint only
; 385. //*****************************************************************************************
; 386. unsigned char EnumUsbDev(void)
; 387. {
.EnumUsbDev:
PUSH BC
PUSH DE
PUSH IX
; PUSH AF
; PUSH AF
; 388. unsigned char i; // always reset USB transfer address
; 389. unsigned char uAddr = 0; // for enumeration to Address #0
; 390. unsigned char epLen;
; 391.
; 392. //------------------------------------------------
; 393. // Reset only Slave device attached directly
; 394. //------------------------------------------------
; 395. //.uDev.wPayLoad[0] = 64; // default 64-byte payload of Endpoint 0, address #0
; 396. if(myusbaddr == 1) // bus reset for the device attached to SL811HS only
; 397. USBReset(); // that will always have the USB address = 0x01 (for a hub)
CALL .USBReset
; 398. //------------------------------------------------
; 399. // Set Slave USB Device Address
; 400. //------------------------------------------------
; 401. if (!SetAddress(myusbaddr)) // set to specific USB address
LD E,1
CALL .SetAddress
OR A
JR Z,.lo198
; 402. return FALSE;
; 403. uAddr = myusbaddr; // transfer using this new address
; 404.
; 405. //------------------------------------------------
; 406. // Get Slave USB Configuration Descriptors
; 407. //------------------------------------------------
; 408. .usbstack.usbaddr=uAddr;
LD A,1
LD (.usbstack),A
; 409. .usbstack.setup.wValue=CONFIGURATION;
LD HL,2
LD (.usbstack+9),HL
; 410. .usbstack.setup.wIndex=0;
DEC HL
DEC HL
LD (.usbstack+11),HL
; 411. .usbstack.setup.wLength=64;
LD L,64
LD (.usbstack+13),HL
; 412. .usbstack.buffer=.DBUF;
LD HL,.DBUF
LD (.usbstack+5),HL
; 413. if (!GetDesc())
LD IXH,1
CALL .GetDesc
OR A
JR Z,.lo198
; 414. return FALSE;
; 415. .uDev.bNumOfEPs = (.DBUF[9+4] <= MAX_EP) ? .DBUF[9+4] : MAX_EP;
LD A,(.DBUF+13)
LD B,A
LD A,5
CP B
JR C,.lo117
LD A,(.DBUF+13)
.lo117:
LD (.uDev),A
; 416. if(.DBUF[9+5]==8) //mass storage device
LD A,(.DBUF+14)
CP 8
JR NZ,.lo120
; 417. .bFlags.bits.bMassDevice=TRUE;
LD A,1
LD (.bFlags),A
.lo120:
; 418. //------------------------------------------------
; 419. // Set configuration (except for HUB device)
; 420. //------------------------------------------------
; 421. .usbstack.usbaddr=uAddr;
LD A,IXH
LD (.usbstack),A
; 422. .usbstack.setup.wValue=DEVICE;
LD HL,1
LD (.usbstack+9),HL
; 423. // enumerating a FS/LS non-hub device
; 424. if (!Set_Configuration()) // connected directly to SL811HS
CALL .Set_Configuration
OR A
JR NZ,.lo122
; 425. return FALSE;
.lo198:
XOR A
JR .lo132
.lo122:
; 426.
; 427. //------------------------------------------------
; 428. // For each slave endpoints, get its attributes
; 429. // Excluding endpoint0, only data endpoints
; 430. //------------------------------------------------
; 431.
; 432. epLen = 0;
; 433. for (i=1; i<=.uDev.bNumOfEPs; i++) // For each data endpoint
LD E,0
LD IXL,1
.lo124:
LD A,(.uDev)
CP IXL
JR C,.lo123
; 434. {
; 435. unsigned char bEPAddr = .DBUF[9 + 9 + epLen+2]; // Ep address and direction
LD HL,.DBUF+20
LD C,E
LD B,0
ADD HL,BC
LD D,(HL)
; 436. if(.DBUF[9 + 9 + epLen+3]==0x2) //bulk transfer
LD HL,.DBUF+21
ADD HL,BC
LD B,(HL)
DEC B
DEC B
JR NZ,.lo131
; 437. {
; 438. if(bEPAddr&0x80)
BIT 7,D
LD A,D
JR Z,.lo130
; 439. .usbstack.epbulkin=bEPAddr;
LD (.usbstack+15),A
; 440. else
JR .lo131
.lo130:
; 441. .usbstack.epbulkout=bEPAddr;
LD (.usbstack+16),A
.lo131:
; 442. }
; 443. .uDev.bData1[i] = 0; // init data toggle
LD HL,.uDev+1
LD C,IXL
LD B,0
ADD HL,BC
LD (HL),B
; 444. epLen += 7;
LD A,E
ADD A,7
LD E,A
INC IXL
JR .lo124
.lo123:
; 445. //////////////////////////////
; 446. //////////////////////////////
; 447. }
; 448. return TRUE;
LD A,1
; 449. }
.lo132:
; POP HL
; POP HL
POP IX
POP DE
POP BC
RET
; 450. unsigned char .outbuf[0x20];
; 451. ///////////////////////////////////////////////////////////////////////////
; 452. unsigned char EnumMassDev(void)
; 453. {
.EnumMassDev:
; 454. if(!.SPC_Inquiry())
CALL .SPC_Inquiry
OR A
JR NZ,.lo134
.lo133:
; 455. return 0x81;//FALSE;
LD A,1
RET
.lo134:
; 456. if(!SPC_TestUnit())
CALL .SPC_TestUnit
OR A
JR NZ,.lo136
.lo135:
; 457. return 0x82;//FALSE;
LD A,1
RET
.lo136:
; 458. if(!SPC_LockMedia())
CALL .SPC_LockMedia
OR A
JR NZ,.lo138
.lo137:
; 459. return 0x83;//FALSE;
LD A,1
RET
.lo138:
; 460. if(!SPC_RequestSense())
CALL .SPC_RequestSense
OR A
JR NZ,.lo140
.lo139:
; 461. return 0x84;//FALSE;
LD A,1
RET
.lo140:
; 462. if(!SPC_TestUnit())
CALL .SPC_TestUnit
OR A
JR NZ,.lo142
.lo141:
; 463. return 0x85;//FALSE;
LD A,1
RET
.lo142:
; 464. if(!.RBC_ReadCapacity())
CALL .RBC_ReadCapacity
OR A
JR NZ,.lo144
.lo143:
; 465. return 0x86;//FALSE;
LD A,1
RET
.lo144:
; 466.
; 467. ////////////////////////////////////////////////////
; 468. //DeviceInfo.BPB_BytesPerSec=512; //SectorSize 512
; 469.
; 470. if(!SPC_RequestSense())
CALL .SPC_RequestSense
OR A
JR NZ,.lo146
.lo145:
; 471. return 0x87;//FALSE;
LD A,1
RET
.lo146:
; 472. if(!SPC_TestUnit())
CALL .SPC_TestUnit
OR A
JR NZ,.lo148
.lo147:
; 473. return 0x88;//FALSE;
LD A,1
RET
.lo148:
; 474. if(!.RBC_ReadCapacity())
CALL .RBC_ReadCapacity
OR A
JR NZ,.lo150
.lo149:
; 475. return 0x89;//FALSE;
LD A,1
RET
.lo150:
; 476. ////////////////////////////////////////////////////
; 477. //if(!.RBC_Read(0x0,1,.DBUF))
; 478. // return 0x8a;//FALSE;
; 479. //////////////////////////////////
; 480.
; 481. return TRUE;
LD A,0
; 482. }
.lo151:
RET
; 483.
; 484. const unsigned char .data00[25]={
; 485. 0x55,0x53,0x42,0x43,0x60,0xa6,0x24,0xde,
; 486. 0x24,0x00,0x00,0x00,0x80,0x00,0x06,SPC_CMD_INQUIRY,
; 487. 0x00,0x00,0x00,0x24,};
; 488.
; 489. unsigned char .SPC_Inquiry(void)
; 490. {
.SPC_Inquiry:
PUSH BC
PUSH DE
; 491. memcpy(.outbuf,.data00,21);
LD BC,21
LD DE,.outbuf
LD HL,.data00
LDIR
; 492. if(!.epBulkSend(.outbuf,0x1f))
CALL .lo208
OR A
JR Z,.lo201
.lo152:
; 493. return FALSE;
.lo153:
; 494. .delayms(150);
LD E,8
CALL .delayms
; 495. if(!.epBulkRcv(.DBUF,36))
LD BC,36
LD DE,.DBUF
CALL .epBulkRcv
OR A
JR Z,.lo201
.lo154:
; 496. return FALSE;
.lo155:
; 497. if(!.epBulkRcv(.outbuf,13))
CALL .lo210
OR A
JR NZ,.lo157
.lo156:
; 498. return FALSE;
.lo201:
XOR A
JR .lo158
.lo157:
; 499. return TRUE;
LD A,1
; 500. }
.lo158:
POP DE
POP BC
RET
.lo209:
LD (.outbuf+19),A
.lo208:
LD C,31
LD DE,.outbuf
JP .epBulkSend
.lo212:
LD E,1
CALL .delayms
.lo210:
LD BC,13
.lo211:
LD DE,.outbuf
JP .epBulkRcv
; 501.
; 502. unsigned char SPC_RequestSense(void)
; 503. {
.SPC_RequestSense:
PUSH BC
PUSH DE
; 504. memcpy(.outbuf,.data00,21);
LD BC,21
LD DE,.outbuf
LD HL,.data00
LDIR
; 505. .outbuf[8]=0x0e;
LD A,14
LD (.outbuf+8),A
; 506. .outbuf[15]=SPC_CMD_REQUESTSENSE;
LD A,3
LD (.outbuf+15),A
; 507. .outbuf[19]=0x0e;
LD A,14
; 508. if(!.epBulkSend(.outbuf,0x1f))
CALL .lo209
OR A
JR Z,.lo203
.lo159:
; 509. return FALSE;
.lo160:
; 510. .delayms(5);
LD E,1
CALL .delayms
; 511. if(!.epBulkRcv(.outbuf,18))
LD BC,18
CALL .lo211
OR A
JR Z,.lo203
.lo161:
; 512. return FALSE;
.lo162:
; 513. if(!.epBulkRcv(.outbuf,13))
CALL .lo210
OR A
JR NZ,.lo164
.lo163:
; 514. return FALSE;
.lo203:
XOR A
JR .lo165
.lo164:
; 515. return TRUE;
LD A,1
; 516. }
.lo165:
POP DE
POP BC
RET
; 517.
; 518. unsigned char SPC_TestUnit(void)
; 519. {
.SPC_TestUnit:
PUSH BC
PUSH DE
; 520. memcpy(.outbuf,.data00,21);
LD BC,21
LD DE,.outbuf
LD HL,.data00
LDIR
; 521. ////////////////////////////////
; 522. .outbuf[8]=0x00;
XOR A
LD (.outbuf+8),A
; 523. .outbuf[12]=0x00;
LD (.outbuf+12),A
; 524. /////////////////////////////////////
; 525. .outbuf[15]=SPC_CMD_TESTUNITREADY;
LD (.outbuf+15),A
; 526. .outbuf[19]=0;
; 527. //////////////////////////////////////
; 528. if(!.epBulkSend(.outbuf,0x1f))
CALL .lo209
OR A
JR Z,.lo204
.lo166:
; 529. return FALSE;
.lo167:
; 530. .delayms(5);
; 531. if(!.epBulkRcv(.outbuf,13))
CALL .lo212
OR A
JR NZ,.lo169
.lo168:
; 532. return FALSE;
.lo204:
XOR A
JR .lo170
.lo169:
; 533. return TRUE;
LD A,1
; 534. }
.lo170:
POP DE
POP BC
RET
; 535.
; 536. unsigned char SPC_LockMedia(void)
; 537. {
.SPC_LockMedia:
PUSH BC
PUSH DE
; 538. memcpy(.outbuf,.data00,21);
LD BC,21
LD DE,.outbuf
LD HL,.data00
LDIR
; 539. .outbuf[8]=0x00;
XOR A
LD (.outbuf+8),A
; 540. .outbuf[12]=0x00;
LD (.outbuf+12),A
; 541. .outbuf[14]=5;
LD A,5
LD (.outbuf+14),A
; 542. ///////////////////////////////////////////
; 543. .outbuf[15]=SPC_CMD_PRVENTALLOWMEDIUMREMOVAL;
LD A,30
LD (.outbuf+15),A
; 544. .outbuf[19]=1;
LD A,1
; 545. ///////////////////////////////////////////
; 546. if(!.epBulkSend(.outbuf,0x1f))
CALL .lo209
OR A
JR Z,.lo205
.lo171:
; 547. return FALSE;
.lo172:
; 548. .delayms(5);
; 549.
; 550. if(!.epBulkRcv(.outbuf,13))
CALL .lo212
OR A
JR NZ,.lo174
.lo173:
; 551. return FALSE;
.lo205:
XOR A
JR .lo175
.lo174:
; 552.
; 553. /////////////////////////////
; 554. return TRUE;
LD A,1
; 555. }
.lo175:
POP DE
POP BC
RET
; 556.
; 557. unsigned char .RBC_ReadCapacity(void)
; 558. {
.RBC_ReadCapacity:
PUSH BC
PUSH DE
; 559. memcpy(.outbuf,.data00,25);
LD BC,25
LD DE,.outbuf
LD HL,.data00
LDIR
; 560. .outbuf[8]=0x08;
LD A,8
LD (.outbuf+8),A
; 561. .outbuf[14]=10;
LD A,10
LD (.outbuf+14),A
; 562. /////////////////////////////////////
; 563. .outbuf[15]=RBC_CMD_READCAPACITY;
LD A,37
LD (.outbuf+15),A
; 564. .outbuf[19]=0;
XOR A
; 565. /////////////////////////////////////
; 566. if(!.epBulkSend(.outbuf,0x1f))
CALL .lo209
OR A
JR Z,.lo207
.lo176:
; 567. return FALSE;
.lo177:
; 568. .delayms(10);
LD E,1
CALL .delayms
; 569. if(!.epBulkRcv(.DBUF,8))
LD BC,8
LD DE,.DBUF
CALL .epBulkRcv
OR A
JR Z,.lo207
.lo178:
; 570. return FALSE;
.lo179:
; 571. if(!.epBulkRcv(.outbuf,13))
CALL .lo210
OR A
JR NZ,.lo181
.lo180:
; 572. return FALSE;
.lo207:
XOR A
JR .lo182
.lo181:
; 573. /////////////////////////////
; 574. return TRUE;
LD A,1
; 575. }
.lo182:
POP DE
POP BC
RET
;RSEG CONST
.data00:
DEFB 'U'
DEFB 'S'
DEFB 'B'
DEFB 'C'
DEFB '`'
DEFB 166
DEFB '$'
DEFB 222
DEFB '$'
DEFB 0
DEFB 0
DEFB 0
DEFB 128
DEFB 0
DEFB 6
DEFB 18
DEFB 0
DEFB 0
DEFB 0
DEFB '$'
DEFB 0,0,0,0,0
;RSEG NO_INIT
.bFlags:
DEFS 1
.usbstack:
DEFS 17
;.DBUF:
; DEFS 1024
.uDev:
DEFS 6
;RSEG UDATA0
.outbuf:
DEFS 32
.delayms
halt
dec e
jr nz,.delayms
ret
;bcde=lba,hl=buf,a'=count
.RBC_Read
push hl
ld hl,0xa660
ld (.outbuf+4),hl
ld hl,0xde24
ld (.outbuf+6),hl
ld hl,0x0080
ld (.outbuf+12),hl
ld hl,0x2810 ;RBC_CMD_READ10
ld (.outbuf+14),hl
call .send_cmd
pop de ;buffer
ret z
call .epBulkRcv
jr .RBC_rw_end
.RBC_Write
push hl
ld hl,0xd9b4
ld (.outbuf+4),hl
ld hl,0xc177
ld (.outbuf+6),hl
ld hl,0x0000
ld (.outbuf+12),hl
ld hl,0x2a10 ;RBC_CMD_WRITE10
ld (.outbuf+14),hl
call .send_cmd
pop de ;buffer
ret z
call .epBulkSend
.RBC_rw_end
or a
ret z
ld de,.outbuf
ld bc,13
call .epBulkRcv
or a
ld a,0
ret nz
ld de,.outbuf
ld bc,13
call .epBulkRcv
xor a
ret
.send_cmd ;out bc=length
ld hl,0x5355
ld (.outbuf+0),hl
ld hl,0x4342
ld (.outbuf+2),hl
ld hl,.outbuf+16
ld (hl),0
inc hl
ld (hl),b ;LBA
inc hl
ld (hl),c
inc hl
ld (hl),d
inc hl
ld (hl),e
ex af,af'
ld l,a
ld h,0
ld (.outbuf+23),hl
ld b,l ;count*512
sla b
ld c,h
ld (.outbuf+8),bc ;(long)bytes length
ld l,h
ld (.outbuf+10),hl
ld (.outbuf+21),hl
push bc
ld bc,0x82ab
in a,(c)
and 0xaf ;хост-мод и сл811 в портах
out (c),a
ld de,.outbuf
ld bc,31
call .epBulkSend
pop bc
or a
ret
.SL11HardReset
push bc
ld bc,0x83ab ;ресет sl811
in a,(c)
and 0xdf
out (c),a
ld b,0x82 ;сняли питание с разъёма
in a,(c)
or 0x40
out (c),a
;ld e,2;0xff&(2000+20)/20 ;пару секунд чтоп девайс сдох совсем
;call .delayms
ld bc,0x82ab
in a,(c)
and 0xaf ;хост-мод и сл811 в портах
out (c),a
ld e,2;0xff&(50+20)/20
call .delayms
ld bc,0x83ab
in a,(c)
or 0x20
out (c),a ;убрали ресет
pop bc
ret
SL811BUFWRITE
;pop af
;pop hl
;push hl
;push af
;HL-buf,E-reg, C-count
ld a,c
.wrloop
ld bc,0x80ab
out (c),e
inc e
ld b,a
outi
ld a,b
jp nz,.wrloop
ret