SDG+USBHost(Mouse) Sample
Dependencies: Sound_Generator USBHost_custom
Fork of SDG_Mouse_Sample by
Information
Japanese version is available in lower part of this page.
このページの後半に日本語版が用意されています.
What is this?
This program is a demonstration that sounds the sound by mouse operation by using USBHost(Mouse) and Sound Generator.
Settings
Close JP3 of GR-PEACH.
Operation
| operation | effect |
|---|---|
| Right click | Sounds |
| Left click | Reset to base tone (C) |
| Moves the mouse to the right | Lower the sound |
| Moves the mouse to the left | Higher the sound |
| Center cursor | Adjust the sensitivity. Reset the reference value in the click. |
Others
The default setting of serial communication (baud rate etc.) in mbed is shown the following link.
Please refer to the link and change the settings of your PC terminal software.
The default value of baud rate in mbed is 9600, and this application uses baud rate 9600.
https://developer.mbed.org/teams/Renesas/wiki/GR-PEACH-Getting-Started#install-the-usb-serial-communication
概要
このプログラムは、USBHost(Mouse) + Sound Generatorで、マウス操作による擬似笛デモです。
設定
GR-PEACHのJP3をショートする必要があります。
操作方法
| 操作 | 内容 |
|---|---|
| 右クリック | 音出力開始 |
| 左クリック | 基準音(ド)にリセット |
| マウス右移動 | 高音になります |
| マウス左移動 | 低音になります |
| センターカーソル | 音高低の変化量調整(クリックで基準値にリセット) |
Others
mbedのシリアル通信(ボーレート等)のデフォルト設定は以下のリンクに示しています。
リンクを参考に、お使いのPCターミナルソフトの設定を変更して下さい。
mbedでのボーレートのデフォルト値は9600で、このサンプルではボーレート9600を使います。
https://developer.mbed.org/teams/Renesas/wiki/GR-PEACH-Getting-Started#install-the-usb-serial-communication
USBHost/USBHALHost_RZ_A1.cpp
- Committer:
- mbed_official
- Date:
- 2015-02-27
- Revision:
- 28:8e62b6403505
- Parent:
- 27:4206883f4cb7
File content as of revision 28:8e62b6403505:
/* mbed USBHost Library
* Copyright (c) 2006-2013 ARM Limited
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#if defined(TARGET_RZ_A1H)
#include "mbed.h"
#include "USBHALHost.h"
#include "dbg.h"
#include "ohci_wrapp_RZ_A1.h"
#define HCCA_SIZE sizeof(HCCA)
#define ED_SIZE sizeof(HCED)
#define TD_SIZE sizeof(HCTD)
#define TOTAL_SIZE (HCCA_SIZE + (MAX_ENDPOINT*ED_SIZE) + (MAX_TD*TD_SIZE))
#define ALIGNE_MSK (0x0000000F)
static volatile uint8_t usb_buf[TOTAL_SIZE + ALIGNE_MSK]; //16 bytes aligned!
USBHALHost * USBHALHost::instHost;
USBHALHost::USBHALHost() {
instHost = this;
memInit();
memset((void*)usb_hcca, 0, HCCA_SIZE);
for (int i = 0; i < MAX_ENDPOINT; i++) {
edBufAlloc[i] = false;
}
for (int i = 0; i < MAX_TD; i++) {
tdBufAlloc[i] = false;
}
}
void USBHALHost::init() {
ohciwrapp_init(&_usbisr, 1);
ohciwrapp_reg_w(OHCI_REG_CONTROL, 1); // HARDWARE RESET
ohciwrapp_reg_w(OHCI_REG_CONTROLHEADED, 0); // Initialize Control list head to Zero
ohciwrapp_reg_w(OHCI_REG_BULKHEADED, 0); // Initialize Bulk list head to Zero
// Wait 100 ms before apply reset
wait_ms(100);
// software reset
ohciwrapp_reg_w(OHCI_REG_COMMANDSTATUS, OR_CMD_STATUS_HCR);
// Write Fm Interval and Largest Data Packet Counter
ohciwrapp_reg_w(OHCI_REG_FMINTERVAL, DEFAULT_FMINTERVAL);
ohciwrapp_reg_w(OHCI_REG_PERIODICSTART, FI * 90 / 100);
// Put HC in operational state
ohciwrapp_reg_w(OHCI_REG_CONTROL, (ohciwrapp_reg_r(OHCI_REG_CONTROL) & (~OR_CONTROL_HCFS)) | OR_CONTROL_HC_OPER);
// Set Global Power
ohciwrapp_reg_w(OHCI_REG_RHSTATUS, OR_RH_STATUS_LPSC);
ohciwrapp_reg_w(OHCI_REG_HCCA, (uint32_t)(usb_hcca));
// Clear Interrrupt Status
ohciwrapp_reg_w(OHCI_REG_INTERRUPTSTATUS, ohciwrapp_reg_r(OHCI_REG_INTERRUPTSTATUS));
ohciwrapp_reg_w(OHCI_REG_INTERRUPTENABLE, OR_INTR_ENABLE_MIE | OR_INTR_ENABLE_WDH | OR_INTR_ENABLE_RHSC);
// Enable the USB Interrupt
ohciwrapp_reg_w(OHCI_REG_RHPORTSTATUS1, OR_RH_PORT_CSC);
ohciwrapp_reg_w(OHCI_REG_RHPORTSTATUS1, OR_RH_PORT_PRSC);
// Check for any connected devices
if (ohciwrapp_reg_r(OHCI_REG_RHPORTSTATUS1) & OR_RH_PORT_CCS) {
//Device connected
wait_ms(150);
USB_DBG("Device connected (%08x)\n\r", ohciwrapp_reg_r(OHCI_REG_RHPORTSTATUS1));
deviceConnected(0, 1, ohciwrapp_reg_r(OHCI_REG_RHPORTSTATUS1) & OR_RH_PORT_LSDA);
}
}
uint32_t USBHALHost::controlHeadED() {
return ohciwrapp_reg_r(OHCI_REG_CONTROLHEADED);
}
uint32_t USBHALHost::bulkHeadED() {
return ohciwrapp_reg_r(OHCI_REG_BULKHEADED);
}
uint32_t USBHALHost::interruptHeadED() {
return usb_hcca->IntTable[0];
}
void USBHALHost::updateBulkHeadED(uint32_t addr) {
ohciwrapp_reg_w(OHCI_REG_BULKHEADED, addr);
}
void USBHALHost::updateControlHeadED(uint32_t addr) {
ohciwrapp_reg_w(OHCI_REG_CONTROLHEADED, addr);
}
void USBHALHost::updateInterruptHeadED(uint32_t addr) {
usb_hcca->IntTable[0] = addr;
}
void USBHALHost::enableList(ENDPOINT_TYPE type) {
uint32_t wk_data;
switch(type) {
case CONTROL_ENDPOINT:
ohciwrapp_reg_w(OHCI_REG_COMMANDSTATUS, OR_CMD_STATUS_CLF);
wk_data = (ohciwrapp_reg_r(OHCI_REG_CONTROL) | OR_CONTROL_CLE);
ohciwrapp_reg_w(OHCI_REG_CONTROL, wk_data);
break;
case ISOCHRONOUS_ENDPOINT:
break;
case BULK_ENDPOINT:
ohciwrapp_reg_w(OHCI_REG_COMMANDSTATUS, OR_CMD_STATUS_BLF);
wk_data = (ohciwrapp_reg_r(OHCI_REG_CONTROL) | OR_CONTROL_BLE);
ohciwrapp_reg_w(OHCI_REG_CONTROL, wk_data);
break;
case INTERRUPT_ENDPOINT:
wk_data = (ohciwrapp_reg_r(OHCI_REG_CONTROL) | OR_CONTROL_PLE);
ohciwrapp_reg_w(OHCI_REG_CONTROL, wk_data);
break;
}
}
bool USBHALHost::disableList(ENDPOINT_TYPE type) {
uint32_t wk_data;
switch(type) {
case CONTROL_ENDPOINT:
wk_data = ohciwrapp_reg_r(OHCI_REG_CONTROL);
if(wk_data & OR_CONTROL_CLE) {
wk_data &= ~OR_CONTROL_CLE;
ohciwrapp_reg_w(OHCI_REG_CONTROL, wk_data);
return true;
}
return false;
case ISOCHRONOUS_ENDPOINT:
return false;
case BULK_ENDPOINT:
wk_data = ohciwrapp_reg_r(OHCI_REG_CONTROL);
if(wk_data & OR_CONTROL_BLE) {
wk_data &= ~OR_CONTROL_BLE;
ohciwrapp_reg_w(OHCI_REG_CONTROL, wk_data);
return true;
}
return false;
case INTERRUPT_ENDPOINT:
wk_data = ohciwrapp_reg_r(OHCI_REG_CONTROL);
if(wk_data & OR_CONTROL_PLE) {
wk_data &= ~OR_CONTROL_PLE;
ohciwrapp_reg_w(OHCI_REG_CONTROL, wk_data);
return true;
}
return false;
}
return false;
}
void USBHALHost::memInit() {
volatile uint8_t *p_wk_buf = (uint8_t *)(((uint32_t)usb_buf + ALIGNE_MSK) & ~ALIGNE_MSK);
usb_hcca = (volatile HCCA *)p_wk_buf;
usb_edBuf = (volatile uint8_t *)(p_wk_buf + HCCA_SIZE);
usb_tdBuf = (volatile uint8_t *)(p_wk_buf + HCCA_SIZE + (MAX_ENDPOINT*ED_SIZE));
}
volatile uint8_t * USBHALHost::getED() {
for (int i = 0; i < MAX_ENDPOINT; i++) {
if ( !edBufAlloc[i] ) {
edBufAlloc[i] = true;
return (volatile uint8_t *)(usb_edBuf + i*ED_SIZE);
}
}
perror("Could not allocate ED\r\n");
return NULL; //Could not alloc ED
}
volatile uint8_t * USBHALHost::getTD() {
int i;
for (i = 0; i < MAX_TD; i++) {
if ( !tdBufAlloc[i] ) {
tdBufAlloc[i] = true;
return (volatile uint8_t *)(usb_tdBuf + i*TD_SIZE);
}
}
perror("Could not allocate TD\r\n");
return NULL; //Could not alloc TD
}
void USBHALHost::freeED(volatile uint8_t * ed) {
int i;
i = (ed - usb_edBuf) / ED_SIZE;
edBufAlloc[i] = false;
}
void USBHALHost::freeTD(volatile uint8_t * td) {
int i;
i = (td - usb_tdBuf) / TD_SIZE;
tdBufAlloc[i] = false;
}
void USBHALHost::resetRootHub() {
// Initiate port reset
ohciwrapp_reg_w(OHCI_REG_RHPORTSTATUS1, OR_RH_PORT_PRS);
while (ohciwrapp_reg_r(OHCI_REG_RHPORTSTATUS1) & OR_RH_PORT_PRS);
// ...and clear port reset signal
ohciwrapp_reg_w(OHCI_REG_RHPORTSTATUS1, OR_RH_PORT_PRSC);
}
void USBHALHost::_usbisr(void) {
if (instHost) {
instHost->UsbIrqhandler();
}
}
void USBHALHost::UsbIrqhandler() {
uint32_t int_status = ohciwrapp_reg_r(OHCI_REG_INTERRUPTSTATUS) & ohciwrapp_reg_r(OHCI_REG_INTERRUPTENABLE);
uint32_t data;
if (int_status != 0) { //Is there something to actually process?
// Root hub status change interrupt
if (int_status & OR_INTR_STATUS_RHSC) {
if (ohciwrapp_reg_r(OHCI_REG_RHPORTSTATUS1) & OR_RH_PORT_CSC) {
if (ohciwrapp_reg_r(OHCI_REG_RHSTATUS) & OR_RH_STATUS_DRWE) {
// When DRWE is on, Connect Status Change
// means a remote wakeup event.
} else {
//Root device connected
if (ohciwrapp_reg_r(OHCI_REG_RHPORTSTATUS1) & OR_RH_PORT_CCS) {
// wait 150ms to avoid bounce
wait_ms(150);
//Hub 0 (root hub), Port 1 (count starts at 1), Low or High speed
data = ohciwrapp_reg_r(OHCI_REG_RHPORTSTATUS1) & OR_RH_PORT_LSDA;
deviceConnected(0, 1, data);
}
//Root device disconnected
else {
if (!(int_status & OR_INTR_STATUS_WDH)) {
usb_hcca->DoneHead = 0;
}
// wait 200ms to avoid bounce
wait_ms(200);
deviceDisconnected(0, 1, NULL, usb_hcca->DoneHead & 0xFFFFFFFE);
if (int_status & OR_INTR_STATUS_WDH) {
usb_hcca->DoneHead = 0;
ohciwrapp_reg_w(OHCI_REG_INTERRUPTSTATUS, OR_INTR_STATUS_WDH);
}
}
}
ohciwrapp_reg_w(OHCI_REG_RHPORTSTATUS1, OR_RH_PORT_CSC);
}
if (ohciwrapp_reg_r(OHCI_REG_RHPORTSTATUS1) & OR_RH_PORT_PRSC) {
ohciwrapp_reg_w(OHCI_REG_RHPORTSTATUS1, OR_RH_PORT_PRSC);
}
ohciwrapp_reg_w(OHCI_REG_INTERRUPTSTATUS, OR_INTR_STATUS_RHSC);
}
// Writeback Done Head interrupt
if (int_status & OR_INTR_STATUS_WDH) {
transferCompleted(usb_hcca->DoneHead & 0xFFFFFFFE);
ohciwrapp_reg_w(OHCI_REG_INTERRUPTSTATUS, OR_INTR_STATUS_WDH);
}
}
}
#endif
