Initial PIC32MM/MX & PIC24 support

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ReimuNotMoe 2022-09-03 05:18:29 +08:00
parent b624664f52
commit c5992edc7d
2 changed files with 716 additions and 0 deletions

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/*
* The MIT License (MIT)
*
* Copyright (c) 2020 Koji Kitayama
* Copyright (c) 2022 Reimu NotMoe <reimu@sudomaker.com>
*
* Permission is hereby granted, free of charge, to any person obtaining a copy
* of this software and associated documentation files (the "Software"), to deal
* in the Software without restriction, including without limitation the rights
* to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
* copies of the Software, and to permit persons to whom the Software is
* furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
* AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
* OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN
* THE SOFTWARE.
*
* This file is part of the TinyUSB stack.
*/
#include "tusb_option.h"
#if CFG_TUD_ENABLED && \
(CFG_TUSB_MCU == OPT_MCU_PIC32MX || CFG_TUSB_MCU == OPT_MCU_PIC32MM || \
CFG_TUSB_MCU == OPT_MCU_PIC32MK || CFG_TUSB_MCU == OPT_MCU_PIC24 || \
CFG_TUSB_MCU == OPT_MCU_DSPIC33)
#include <xc.h>
#include "device/dcd.h"
#if (CFG_TUSB_MCU == OPT_MCU_PIC32MX || CFG_TUSB_MCU == OPT_MCU_PIC32MM || CFG_TUSB_MCU == OPT_MCU_PIC32MK)
#define TU_PIC_HAS_MMU 1
#define TU_PIC_HAS_HW_RMW 1
#define TU_PIC_INT_SIZE 4
#elif (CFG_TUSB_MCU == OPT_MCU_PIC24 || CFG_TUSB_MCU == OPT_MCU_DSPIC33)
#define TU_PIC_HAS_MMU 0
#define TU_PIC_HAS_HW_RMW 0
#define TU_PIC_INT_SIZE 2
#else
#error Unsupportd PIC MCU
#endif
#if TU_PIC_HAS_MMU
#ifndef KVA_TO_PA
#define KVA_TO_PA(kva) ((uint32_t)(kva) & 0x1fffffff)
#endif
#ifndef PA_TO_KVA1
#define PA_TO_KVA1(pa) ((uint32_t)(pa) | 0xA0000000)
#endif
#else
#ifndef KVA_TO_PA
#define KVA_TO_PA(kva) (kva)
#endif
#ifndef PA_TO_KVA1
#define PA_TO_KVA1(pa) (pa)
#endif
#endif
//--------------------------------------------------------------------+
// MACRO TYPEDEF CONSTANT ENUM DECLARATION
//--------------------------------------------------------------------+
enum {
TOK_PID_OUT = 0x1u,
TOK_PID_IN = 0x9u,
TOK_PID_SETUP = 0xDu,
};
typedef struct TU_ATTR_PACKED
{
union {
uint32_t head;
struct {
union {
struct {
uint16_t : 2;
uint16_t tok_pid : 4;
uint16_t data : 1;
uint16_t own : 1;
uint16_t : 8;
};
struct {
uint16_t : 2;
uint16_t bdt_stall : 1;
uint16_t dts : 1;
uint16_t ninc : 1;
uint16_t keep : 1;
uint16_t : 10;
};
};
uint16_t bc : 10;
uint16_t : 6;
};
};
uint8_t *addr;
} buffer_descriptor_t;
TU_VERIFY_STATIC( sizeof(buffer_descriptor_t) == 8, "size is not correct" );
typedef struct TU_ATTR_PACKED
{
union {
uint32_t state;
struct {
uint32_t max_packet_size :11;
uint32_t : 5;
uint32_t odd : 1;
uint32_t :15;
};
};
uint16_t length;
uint16_t remaining;
} endpoint_state_t;
TU_VERIFY_STATIC( sizeof(endpoint_state_t) == 8, "size is not correct" );
typedef struct
{
union {
/* [#EP][OUT,IN][EVEN,ODD] */
buffer_descriptor_t bdt[16][2][2];
uint16_t bda[512];
};
TU_ATTR_ALIGNED(4) union {
endpoint_state_t endpoint[16][2];
endpoint_state_t endpoint_unified[16 * 2];
};
uint8_t setup_packet[8];
uint8_t addr;
} dcd_data_t;
//--------------------------------------------------------------------+
// INTERNAL OBJECT & FUNCTION DECLARATION
//--------------------------------------------------------------------+
// BDT(Buffer Descriptor Table) must be 256-byte aligned
CFG_TUSB_MEM_SECTION TU_ATTR_ALIGNED(512) volatile static dcd_data_t _dcd;
TU_VERIFY_STATIC( sizeof(_dcd.bdt) == 512, "size is not correct" );
#if TU_PIC_INT_SIZE == 4
typedef uint32_t ep_reg_t;
#elif TU_PIC_INT_SIZE == 2
typedef uint16_t ep_reg_t;
#endif
static inline volatile void *ep_addr(uint8_t rhport, uint8_t ep_num) {
#if CFG_TUSB_MCU == OPT_MCU_PIC32MK
volatile void *ep_reg_base = rhport ? (&U2EP0) : (&U1EP0);
#else
volatile void *ep_reg_base = &U1EP0;
#endif
return ep_reg_base + 0x10 * ep_num;
}
static inline ep_reg_t ep_read(uint8_t rhport, uint8_t ep_num) {
volatile ep_reg_t *ep = ep_addr(rhport, ep_num);
return *ep;
}
static inline void ep_write(uint8_t rhport, uint8_t ep_num, ep_reg_t val) {
volatile ep_reg_t *ep = ep_addr(rhport, ep_num);
*ep = val;
}
static inline void ep_clear(uint8_t rhport, uint8_t ep_num, ep_reg_t val) {
#if TU_PIC_HAS_HW_RMW
volatile ep_reg_t *ep_clr = (ep_addr(rhport, ep_num) + 0x4);
*ep_clr = val;
#else
ep_reg_t v = ep_read(rhport, ep_num);
v &= ~val;
ep_write(rhport, ep_num, v);
#endif
}
static inline void ep_set(uint8_t rhport, uint8_t ep_num, ep_reg_t val) {
#if TU_PIC_HAS_HW_RMW
volatile ep_reg_t *ep_s = (ep_addr(rhport, ep_num) + 0x8);
*ep_s = val;
#else
ep_reg_t v = ep_read(rhport, ep_num);
v |= val;
ep_write(rhport, ep_num, v);
#endif
}
static inline void intr_enable(uint8_t rhport) {
#if CFG_TUSB_MCU == OPT_MCU_PIC32MM
IEC0SET = _IEC0_USBIE_MASK;
#elif CFG_TUSB_MCU == OPT_MCU_PIC32MX
IEC1SET = _IEC1_USBIE_MASK;
#elif CFG_TUSB_MCU == OPT_MCU_PIC32MK
if (rhport == 0)
IEC1SET = _IEC1_USB1IE_MASK;
else
IEC7SET = _IEC7_USB2IE_MASK;
#elif (CFG_TUSB_MCU == OPT_MCU_PIC24) || (CFG_TUSB_MCU == OPT_MCU_DSPIC33)
IEC5bits.USB1IE = 1;
#endif
}
static inline void intr_disable(uint8_t rhport) {
#if CFG_TUSB_MCU == OPT_MCU_PIC32MM
IEC0CLR = _IEC0_USBIE_MASK;
#elif CFG_TUSB_MCU == OPT_MCU_PIC32MX
IEC1CLR = _IEC1_USBIE_MASK;
#elif CFG_TUSB_MCU == OPT_MCU_PIC32MK
if (rhport == 0)
IEC1CLR = _IEC1_USB1IE_MASK;
else
IEC7CLR = _IEC7_USB2IE_MASK;
#elif (CFG_TUSB_MCU == OPT_MCU_PIC24) || (CFG_TUSB_MCU == OPT_MCU_DSPIC33)
IEC5bits.USB1IE = 0;
#endif
}
static inline int intr_is_enabled(uint8_t rhport) {
#if CFG_TUSB_MCU == OPT_MCU_PIC32MM
return IEC0bits.USBIE;
#elif CFG_TUSB_MCU == OPT_MCU_PIC32MX
return IEC1bits.USBIE;
#elif CFG_TUSB_MCU == OPT_MCU_PIC32MK
if (rhport == 0)
return IEC1bits.USB1IE;
else
return IEC7bits.USB2IE;
#elif (CFG_TUSB_MCU == OPT_MCU_PIC24) || (CFG_TUSB_MCU == OPT_MCU_DSPIC33)
return IEC5bits.USB1IE;
#endif
}
static inline void intr_clear(uint8_t rhport) {
#if CFG_TUSB_MCU == OPT_MCU_PIC32MM
IFS0CLR = _IFS0_USBIF_MASK;
#elif CFG_TUSB_MCU == OPT_MCU_PIC32MX
IFS1CLR = _IFS1_USBIF_MASK;
#elif CFG_TUSB_MCU == OPT_MCU_PIC32MK
if (rhport == 0)
IFS1CLR = _IFS1_USB1IF_MASK;
else
IFS7CLR = _IFS7_USB2IF_MASK;
#elif (CFG_TUSB_MCU == OPT_MCU_PIC24) || (CFG_TUSB_MCU == OPT_MCU_DSPIC33)
IFS5bits.USB1IF = 0;
#endif
}
static void prepare_next_setup_packet(uint8_t rhport)
{
const unsigned out_odd = _dcd.endpoint[0][0].odd;
const unsigned in_odd = _dcd.endpoint[0][1].odd;
TU_ASSERT(0 == _dcd.bdt[0][0][out_odd].own, );
_dcd.bdt[0][0][out_odd].data = 0;
_dcd.bdt[0][0][out_odd ^ 1].data = 1;
_dcd.bdt[0][1][in_odd].data = 1;
_dcd.bdt[0][1][in_odd ^ 1].data = 0;
dcd_edpt_xfer(rhport, tu_edpt_addr(0, TUSB_DIR_OUT),
_dcd.setup_packet, sizeof(_dcd.setup_packet));
}
static void process_stall(uint8_t rhport)
{
for (int i = 0; i < 16; ++i) {
unsigned const endpt = ep_read(rhport, i);
if (endpt & _U1EP0_EPSTALL_MASK) {
// prepare next setup if endpoint0
if ( i == 0 ) prepare_next_setup_packet(rhport);
// clear stall bit
ep_clear(rhport, i, _U1EP0_EPSTALL_MASK);
}
}
}
static void process_tokdne(uint8_t rhport)
{
uint32_t s = U1STAT;
U1IR = _U1IR_TRNIF_MASK;
uint8_t epnum = (s >> _U1STAT_ENDPT0_POSITION);
uint8_t dir = (s & _U1STAT_DIR_MASK) >> _U1STAT_DIR_POSITION;
unsigned odd = (s & _U1STAT_PPBI_MASK) ? 1 : 0;
buffer_descriptor_t *bd = (buffer_descriptor_t *)&_dcd.bda[s];
endpoint_state_t *ep = &_dcd.endpoint_unified[s >> 3];
/* fetch pid before discarded by the next steps */
const unsigned pid = bd->tok_pid;
/* reset values for a next transfer */
bd->bdt_stall = 0;
bd->dts = 1;
bd->ninc = 0;
bd->keep = 0;
/* update the odd variable to prepare for the next transfer */
ep->odd = odd ^ 1;
if (pid == TOK_PID_SETUP) {
dcd_event_setup_received(rhport, (uint8_t *)PA_TO_KVA1(bd->addr), true);
U1CONCLR = _U1CON_PKTDIS_TOKBUSY_MASK;
return;
}
const unsigned bc = bd->bc;
const unsigned remaining = ep->remaining - bc;
if (remaining && bc == ep->max_packet_size) {
/* continue the transferring consecutive data */
ep->remaining = remaining;
const int next_remaining = remaining - ep->max_packet_size;
if (next_remaining > 0) {
/* prepare to the after next transfer */
bd->addr += ep->max_packet_size * 2;
bd->bc = next_remaining > ep->max_packet_size ? ep->max_packet_size: next_remaining;
bd->own = 1; /* the own bit must set after addr */
}
return;
}
const unsigned length = ep->length;
dcd_event_xfer_complete(rhport,
tu_edpt_addr(epnum, dir),
length - remaining, XFER_RESULT_SUCCESS, true);
if (0 == epnum && 0 == length) {
/* After completion a ZLP of control transfer,
* it prepares for the next steup transfer. */
if (_dcd.addr) {
/* When the transfer was the SetAddress,
* the device address should be updated here. */
U1ADDR = _dcd.addr;
_dcd.addr = 0;
}
prepare_next_setup_packet(rhport);
}
}
static void process_bus_reset(uint8_t rhport)
{
U1PWRCCLR = _U1PWRC_USUSPEND_MASK;
U1CONSET = _U1CON_PPBRST_MASK;
U1ADDR = 0;
U1IE = _U1IE_URSTIE_DETACHIE_MASK | _U1IE_TRNIE_MASK | _U1IE_IDLEIE_MASK |
_U1IE_UERRIE_MASK | _U1IE_STALLIE_MASK;
U1EP0 = _U1EP0_EPHSHK_MASK | _U1EP0_EPRXEN_MASK | _U1EP0_EPTXEN_MASK;
for (unsigned i = 1; i < 16; ++i) {
ep_write(rhport, i, 0);
}
buffer_descriptor_t *bd = _dcd.bdt[0][0];
for (unsigned i = 0; i < sizeof(_dcd.bdt)/sizeof(*bd); ++i, ++bd) {
bd->head = 0;
}
const endpoint_state_t ep0 = {
.max_packet_size = CFG_TUD_ENDPOINT0_SIZE,
.odd = 0,
.length = 0,
.remaining = 0,
};
_dcd.endpoint[0][0] = ep0;
_dcd.endpoint[0][1] = ep0;
tu_memclr(_dcd.endpoint[1], sizeof(_dcd.endpoint) - sizeof(_dcd.endpoint[0]));
_dcd.addr = 0;
prepare_next_setup_packet(rhport);
U1CONCLR = _U1CON_PPBRST_MASK;
dcd_event_bus_reset(rhport, TUSB_SPEED_FULL, true);
}
static void process_bus_sleep(uint8_t rhport)
{
// Enable resume & disable suspend interrupt
dcd_event_bus_signal(rhport, DCD_EVENT_SUSPEND, true);
}
static void process_bus_resume(uint8_t rhport)
{
// Enable suspend & disable resume interrupt
U1PWRCCLR = _U1PWRC_USUSPEND_MASK;
U1IECLR = _U1IE_RESUMEIE_MASK;
U1IESET = _U1IE_IDLEIE_MASK;
dcd_event_bus_signal(rhport, DCD_EVENT_RESUME, true);
}
/*------------------------------------------------------------------*/
/* Device API
*------------------------------------------------------------------*/
void dcd_init(uint8_t rhport)
{
intr_disable(rhport);
intr_clear(rhport);
#if CFG_TUSB_MCU == OPT_MCU_PIC32MM
TRISBbits.TRISB6 = 1;
#endif
#if (CFG_TUSB_MCU == OPT_MCU_PIC32MX) || (CFG_TUSB_MCU == OPT_MCU_PIC32MM)
U1PWRCSET = _U1PWRC_USBPWR_MASK;
#elif CFG_TUSB_MCU == OPT_MCU_PIC32MK
// TODO
#elif (CFG_TUSB_MCU == OPT_MCU_PIC24) || (CFG_TUSB_MCU == OPT_MCU_DSPIC33)
U1PWRCbits.USBPWR = 1;
#endif
tu_memclr(&_dcd, sizeof(_dcd));
uint32_t bdt_phys = KVA_TO_PA((uintptr_t)_dcd.bdt);
U1BDTP1 = (uint8_t)(bdt_phys >> 8);
U1BDTP2 = (uint8_t)(bdt_phys >> 16);
U1BDTP3 = (uint8_t)(bdt_phys >> 24);
U1IE = _U1IE_URSTIE_DETACHIE_MASK;
dcd_connect(rhport);
}
void dcd_int_enable(uint8_t rhport)
{
intr_enable(rhport);
}
void dcd_int_disable(uint8_t rhport)
{
intr_disable(rhport);
}
void dcd_set_address(uint8_t rhport, uint8_t dev_addr)
{
_dcd.addr = dev_addr & 0x7F;
/* Response with status first before changing device address */
dcd_edpt_xfer(rhport, tu_edpt_addr(0, TUSB_DIR_IN), NULL, 0);
}
void dcd_remote_wakeup(uint8_t rhport)
{
U1CONSET = _U1CON_RESUME_MASK;
unsigned cnt = 25000000 / 1000;
while (cnt--) asm volatile("nop");
U1CONCLR = _U1CON_RESUME_MASK;
}
void dcd_connect(uint8_t rhport)
{
while (!U1CONbits.USBEN)
U1CONSET = _U1CON_USBEN_SOFEN_MASK;
}
void dcd_disconnect(uint8_t rhport)
{
U1CON = 0;
}
void dcd_sof_enable(uint8_t rhport, bool en)
{
(void) rhport;
(void) en;
}
//--------------------------------------------------------------------+
// Endpoint API
//--------------------------------------------------------------------+
bool dcd_edpt_open(uint8_t rhport, tusb_desc_endpoint_t const * ep_desc)
{
const unsigned ep_addr = ep_desc->bEndpointAddress;
const unsigned epn = tu_edpt_number(ep_addr);
const unsigned dir = tu_edpt_dir(ep_addr);
const unsigned xfer = ep_desc->bmAttributes.xfer;
endpoint_state_t *ep = &_dcd.endpoint[epn][dir];
const unsigned odd = ep->odd;
buffer_descriptor_t *bd = _dcd.bdt[epn][dir];
/* No support for control transfer */
TU_ASSERT(epn && (xfer != TUSB_XFER_CONTROL));
ep->max_packet_size = tu_edpt_packet_size(ep_desc);
unsigned val = _U1EP0_EPCONDIS_MASK;
val |= (xfer != TUSB_XFER_ISOCHRONOUS) ? _U1EP0_EPHSHK_MASK : 0;
val |= dir ? _U1EP0_EPTXEN_MASK : _U1EP0_EPRXEN_MASK;
volatile void *ep_reg_base = &U1EP0;
volatile uint32_t *reg_ep = (ep_reg_base + 0x10 * epn);
*reg_ep |= val;
if (xfer != TUSB_XFER_ISOCHRONOUS) {
bd[odd].dts = 1;
bd[odd].data = 0;
bd[odd ^ 1].dts = 1;
bd[odd ^ 1].data = 1;
}
return true;
}
void dcd_edpt_close_all(uint8_t rhport)
{
const unsigned ie = intr_is_enabled(rhport);
intr_disable(rhport);
for (unsigned i = 1; i < 16; ++i) {
ep_write(rhport, i, 0);
}
if (ie) intr_enable(rhport);
buffer_descriptor_t *bd = _dcd.bdt[1][0];
for (unsigned i = 2; i < sizeof(_dcd.bdt)/sizeof(*bd); ++i, ++bd) {
bd->head = 0;
}
endpoint_state_t *ep = &_dcd.endpoint[1][0];
for (unsigned i = 2; i < sizeof(_dcd.endpoint)/sizeof(*ep); ++i, ++ep) {
/* Clear except the odd */
ep->max_packet_size = 0;
ep->length = 0;
ep->remaining = 0;
}
}
void dcd_edpt_close(uint8_t rhport, uint8_t ep_addr)
{
const unsigned epn = tu_edpt_number(ep_addr);
const unsigned dir = tu_edpt_dir(ep_addr);
endpoint_state_t *ep = &_dcd.endpoint[epn][dir];
buffer_descriptor_t *bd = _dcd.bdt[epn][dir];
const unsigned msk = dir ? _U1EP0_EPTXEN_MASK : _U1EP0_EPRXEN_MASK;
const unsigned ie = intr_is_enabled(rhport);
intr_disable(rhport);
ep_clear(rhport, epn, msk);
ep->max_packet_size = 0;
ep->length = 0;
ep->remaining = 0;
bd[0].head = 0;
bd[1].head = 0;
if (ie) intr_enable(rhport);
}
bool dcd_edpt_xfer(uint8_t rhport, uint8_t ep_addr, uint8_t* buffer, uint16_t total_bytes)
{
const unsigned epn = tu_edpt_number(ep_addr);
const unsigned dir = tu_edpt_dir(ep_addr);
endpoint_state_t *ep = &_dcd.endpoint[epn][dir];
buffer_descriptor_t *bd = &_dcd.bdt[epn][dir][ep->odd];
TU_ASSERT(0 == bd->own);
const unsigned ie = intr_is_enabled(rhport);
intr_disable(rhport);
ep->length = total_bytes;
ep->remaining = total_bytes;
const unsigned mps = ep->max_packet_size;
if (total_bytes > mps) {
buffer_descriptor_t *next = ep->odd ? bd - 1: bd + 1;
/* When total_bytes is greater than the max packet size,
* it prepares to the next transfer to avoid NAK in advance. */
next->bc = total_bytes >= 2 * mps ? mps: total_bytes - mps;
next->addr = (uint8_t *)KVA_TO_PA(buffer + mps);
next->own = 1;
}
bd->bc = total_bytes >= mps ? mps: total_bytes;
bd->addr = (uint8_t *)KVA_TO_PA(buffer);
// __DSB();
bd->own = 1; /* This bit must be set last */
if (ie) intr_enable(rhport);
return true;
}
void dcd_edpt_stall(uint8_t rhport, uint8_t ep_addr)
{
(void) rhport;
const unsigned epn = tu_edpt_number(ep_addr);
if (0 == epn) {
ep_set(rhport, epn, _U1EP0_EPSTALL_MASK);
} else {
const unsigned dir = tu_edpt_dir(ep_addr);
const unsigned odd = _dcd.endpoint[epn][dir].odd;
buffer_descriptor_t *bd = &_dcd.bdt[epn][dir][odd];
TU_ASSERT(0 == bd->own,);
const unsigned ie = intr_is_enabled(rhport);
intr_disable(rhport);
bd->bdt_stall = 1;
bd->own = 1; /* This bit must be set last */
if (ie) intr_enable(rhport);
}
}
void dcd_edpt_clear_stall(uint8_t rhport, uint8_t ep_addr)
{
const unsigned epn = tu_edpt_number(ep_addr);
TU_VERIFY(epn,);
const unsigned dir = tu_edpt_dir(ep_addr);
const unsigned odd = _dcd.endpoint[epn][dir].odd;
buffer_descriptor_t *bd = _dcd.bdt[epn][dir];
TU_VERIFY(bd[odd].own,);
const unsigned ie = intr_is_enabled(rhport);
intr_disable(rhport);
bd[odd].own = 0;
// clear stall
bd[odd].bdt_stall = 0;
// Reset data toggle
bd[odd ].data = 0;
bd[odd ^ 1].data = 1;
// We already cleared this in ISR, but just clear it here to be safe
const unsigned endpt = ep_read(rhport, epn);
if (endpt & _U1EP0_EPSTALL_MASK) {
ep_clear(rhport, endpt, _U1EP0_EPSTALL_MASK);
}
if (ie) intr_enable(rhport);
}
//--------------------------------------------------------------------+
// ISR
//--------------------------------------------------------------------+
void dcd_int_handler(uint8_t rhport)
{
uint32_t is = U1IR;
uint32_t msk = U1IE;
U1IR = is & ~msk;
is &= msk;
if (is & _U1IR_UERRIF_MASK) {
uint32_t es = U1EIR;
U1EIR = es;
U1IR = is; /* discard any pending events */
}
if (is & _U1IR_URSTIF_DETACHIF_MASK) {
U1IR = is; /* discard any pending events */
process_bus_reset(rhport);
}
if (is & _U1IR_IDLEIF_MASK) {
// Note Host usually has extra delay after bus reset (without SOF), which could falsely
// detected as Sleep event. Though usbd has debouncing logic so we are good
U1IR = _U1IR_IDLEIF_MASK;
process_bus_sleep(rhport);
}
if (is & _U1IR_RESUMEIF_MASK) {
U1IR = _U1IR_RESUMEIF_MASK;
process_bus_resume(rhport);
}
if (is & _U1IR_SOFIF_MASK) {
U1IR = _U1IR_SOFIF_MASK;
dcd_event_bus_signal(rhport, DCD_EVENT_SOF, true);
}
if (is & _U1IR_STALLIF_MASK) {
U1IR = _U1IR_STALLIF_MASK;
process_stall(rhport);
}
if (is & _U1IR_TRNIF_MASK) {
process_tokdne(rhport);
}
intr_clear(rhport);
}
#endif

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@ -146,6 +146,11 @@ typedef int make_iso_compilers_happy;
// PIC
#define OPT_MCU_PIC32MZ 1900 ///< MicroChip PIC32MZ family
#define OPT_MCU_PIC32MM 1901 ///< MicroChip PIC32MM family
#define OPT_MCU_PIC32MX 1902 ///< MicroChip PIC32MX family
#define OPT_MCU_PIC32MK 1903 ///< MicroChip PIC32MK family
#define OPT_MCU_PIC24 1910 ///< MicroChip PIC24 family
#define OPT_MCU_DSPIC33 1911 ///< MicroChip DSPIC33 family
// BridgeTek
#define OPT_MCU_FT90X 2000 ///< BridgeTek FT90x