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Dining Philosophers Problem (DPP) example for the QP active object framework. Demonstrates: event-driven programming, hierarchical state machines in C++, modeling and graphical state machine design, code generation, preemptive multitasking, software tracing, power saving mode, direct event posting, publish-subscribe. More information available in the [[/users/QL/notebook|Quantum Leaps Notebook pages]]. See also [[http://www.state-machine.com|state-machine.com]].
bsp.cpp@0:efb9ac8d1a88, 2011-02-12 (annotated)
- Committer:
- QL
- Date:
- Sat Feb 12 23:22:47 2011 +0000
- Revision:
- 0:efb9ac8d1a88
- Child:
- 2:2e62e514f323
Who changed what in which revision?
User | Revision | Line number | New contents of line |
---|---|---|---|
QL | 0:efb9ac8d1a88 | 1 | ////////////////////////////////////////////////////////////////////////////// |
QL | 0:efb9ac8d1a88 | 2 | // Product: BSP for "Dining Philosophers Problem" example, QK kernel |
QL | 0:efb9ac8d1a88 | 3 | // Last Updated for Version: 4.1.06 |
QL | 0:efb9ac8d1a88 | 4 | // Date of the Last Update: Feb 10, 2011 |
QL | 0:efb9ac8d1a88 | 5 | // |
QL | 0:efb9ac8d1a88 | 6 | // Q u a n t u m L e a P s |
QL | 0:efb9ac8d1a88 | 7 | // --------------------------- |
QL | 0:efb9ac8d1a88 | 8 | // innovating embedded systems |
QL | 0:efb9ac8d1a88 | 9 | // |
QL | 0:efb9ac8d1a88 | 10 | // Copyright (C) 2002-2011 Quantum Leaps, LLC. All rights reserved. |
QL | 0:efb9ac8d1a88 | 11 | // |
QL | 0:efb9ac8d1a88 | 12 | // This software may be distributed and modified under the terms of the GNU |
QL | 0:efb9ac8d1a88 | 13 | // General Public License version 2 (GPL) as published by the Free Software |
QL | 0:efb9ac8d1a88 | 14 | // Foundation and appearing in the file GPL.TXT included in the packaging of |
QL | 0:efb9ac8d1a88 | 15 | // this file. Please note that GPL Section 2[b] requires that all works based |
QL | 0:efb9ac8d1a88 | 16 | // on this software must also be made publicly available under the terms of |
QL | 0:efb9ac8d1a88 | 17 | // the GPL ("Copyleft"). |
QL | 0:efb9ac8d1a88 | 18 | // |
QL | 0:efb9ac8d1a88 | 19 | // Alternatively, this software may be distributed and modified under the |
QL | 0:efb9ac8d1a88 | 20 | // terms of Quantum Leaps commercial licenses, which expressly supersede |
QL | 0:efb9ac8d1a88 | 21 | // the GPL and are specifically designed for licensees interested in |
QL | 0:efb9ac8d1a88 | 22 | // retaining the proprietary status of their code. |
QL | 0:efb9ac8d1a88 | 23 | // |
QL | 0:efb9ac8d1a88 | 24 | // Contact information: |
QL | 0:efb9ac8d1a88 | 25 | // Quantum Leaps Web site: http://www.quantum-leaps.com |
QL | 0:efb9ac8d1a88 | 26 | // e-mail: info@quantum-leaps.com |
QL | 0:efb9ac8d1a88 | 27 | ////////////////////////////////////////////////////////////////////////////// |
QL | 0:efb9ac8d1a88 | 28 | #include "qp_port.h" |
QL | 0:efb9ac8d1a88 | 29 | #include "dpp.h" |
QL | 0:efb9ac8d1a88 | 30 | #include "bsp.h" |
QL | 0:efb9ac8d1a88 | 31 | #include "LPC17xx.h" |
QL | 0:efb9ac8d1a88 | 32 | |
QL | 0:efb9ac8d1a88 | 33 | Q_DEFINE_THIS_FILE |
QL | 0:efb9ac8d1a88 | 34 | |
QL | 0:efb9ac8d1a88 | 35 | // Local-scope objects ------------------------------------------------------- |
QL | 0:efb9ac8d1a88 | 36 | enum ISR_Priorities { // ISR priorities starting from the highest urgency |
QL | 0:efb9ac8d1a88 | 37 | GPIOPORTA_PRIO, |
QL | 0:efb9ac8d1a88 | 38 | SYSTICK_PRIO, |
QL | 0:efb9ac8d1a88 | 39 | // ... |
QL | 0:efb9ac8d1a88 | 40 | }; |
QL | 0:efb9ac8d1a88 | 41 | |
QL | 0:efb9ac8d1a88 | 42 | #define LED_PORT LPC_GPIO1 |
QL | 0:efb9ac8d1a88 | 43 | #define LED1_BIT (1U << 18) |
QL | 0:efb9ac8d1a88 | 44 | #define LED2_BIT (1U << 20) |
QL | 0:efb9ac8d1a88 | 45 | #define LED3_BIT (1U << 21) |
QL | 0:efb9ac8d1a88 | 46 | #define LED4_BIT (1U << 23) |
QL | 0:efb9ac8d1a88 | 47 | |
QL | 0:efb9ac8d1a88 | 48 | #ifdef Q_SPY |
QL | 0:efb9ac8d1a88 | 49 | #include "mbed.h" // mbed is used only for the built-in serial |
QL | 0:efb9ac8d1a88 | 50 | |
QL | 0:efb9ac8d1a88 | 51 | QSTimeCtr l_tickTime; |
QL | 0:efb9ac8d1a88 | 52 | QSTimeCtr l_tickPeriod; |
QL | 0:efb9ac8d1a88 | 53 | |
QL | 0:efb9ac8d1a88 | 54 | #define QSPY_BAUD_RATE 115200 |
QL | 0:efb9ac8d1a88 | 55 | |
QL | 0:efb9ac8d1a88 | 56 | enum AppRecords { // application-specific trace records |
QL | 0:efb9ac8d1a88 | 57 | PHILO_STAT = QS_USER |
QL | 0:efb9ac8d1a88 | 58 | }; |
QL | 0:efb9ac8d1a88 | 59 | |
QL | 0:efb9ac8d1a88 | 60 | Serial l_qspy(USBTX, USBRX); |
QL | 0:efb9ac8d1a88 | 61 | #endif |
QL | 0:efb9ac8d1a88 | 62 | |
QL | 0:efb9ac8d1a88 | 63 | //............................................................................ |
QL | 0:efb9ac8d1a88 | 64 | extern "C" void SysTick_Handler(void) { |
QL | 0:efb9ac8d1a88 | 65 | QK_ISR_ENTRY(); // inform the QK kernel of entering the ISR |
QL | 0:efb9ac8d1a88 | 66 | |
QL | 0:efb9ac8d1a88 | 67 | #ifdef Q_SPY |
QL | 0:efb9ac8d1a88 | 68 | uint32_t volatile dummy = SysTick->CTRL; // clear the COUNTFLAG in SysTick |
QL | 0:efb9ac8d1a88 | 69 | l_tickTime += l_tickPeriod; // account for the clock rollover |
QL | 0:efb9ac8d1a88 | 70 | #endif |
QL | 0:efb9ac8d1a88 | 71 | |
QL | 0:efb9ac8d1a88 | 72 | QF::tick(); // process all armed time events |
QL | 0:efb9ac8d1a88 | 73 | |
QL | 0:efb9ac8d1a88 | 74 | QK_ISR_EXIT(); // inform the QK kernel of exiting the ISR |
QL | 0:efb9ac8d1a88 | 75 | } |
QL | 0:efb9ac8d1a88 | 76 | |
QL | 0:efb9ac8d1a88 | 77 | //............................................................................ |
QL | 0:efb9ac8d1a88 | 78 | void BSP_init(void) { |
QL | 0:efb9ac8d1a88 | 79 | SystemInit(); // initialize the clocking system |
QL | 0:efb9ac8d1a88 | 80 | |
QL | 0:efb9ac8d1a88 | 81 | // set LED port to output |
QL | 0:efb9ac8d1a88 | 82 | LED_PORT->FIODIR |= (LED1_BIT | LED2_BIT | LED3_BIT | LED4_BIT); |
QL | 0:efb9ac8d1a88 | 83 | |
QL | 0:efb9ac8d1a88 | 84 | // clear the LEDs |
QL | 0:efb9ac8d1a88 | 85 | LED_PORT->FIOCLR = (LED1_BIT | LED2_BIT | LED3_BIT | LED4_BIT); |
QL | 0:efb9ac8d1a88 | 86 | |
QL | 0:efb9ac8d1a88 | 87 | if (QS_INIT((void *)0) == 0) { // initialize the QS software tracing |
QL | 0:efb9ac8d1a88 | 88 | Q_ERROR(); |
QL | 0:efb9ac8d1a88 | 89 | } |
QL | 0:efb9ac8d1a88 | 90 | } |
QL | 0:efb9ac8d1a88 | 91 | //............................................................................ |
QL | 0:efb9ac8d1a88 | 92 | void BSP_displyPhilStat(uint8_t n, char const *stat) { |
QL | 0:efb9ac8d1a88 | 93 | // represent LEDs in a const array for convenience |
QL | 0:efb9ac8d1a88 | 94 | static uint32_t const led[] = { LED1_BIT, LED2_BIT, LED3_BIT, LED4_BIT }; |
QL | 0:efb9ac8d1a88 | 95 | if (n < 3) { |
QL | 0:efb9ac8d1a88 | 96 | if (stat[0] == 'e') { |
QL | 0:efb9ac8d1a88 | 97 | LED_PORT->FIOSET = led[n]; |
QL | 0:efb9ac8d1a88 | 98 | } |
QL | 0:efb9ac8d1a88 | 99 | else { |
QL | 0:efb9ac8d1a88 | 100 | LED_PORT->FIOCLR = led[n]; |
QL | 0:efb9ac8d1a88 | 101 | } |
QL | 0:efb9ac8d1a88 | 102 | } |
QL | 0:efb9ac8d1a88 | 103 | |
QL | 0:efb9ac8d1a88 | 104 | QS_BEGIN(PHILO_STAT, AO_Philo[n]) // application-specific record begin |
QL | 0:efb9ac8d1a88 | 105 | QS_U8(1, n); // Philosopher number |
QL | 0:efb9ac8d1a88 | 106 | QS_STR(stat); // Philosopher status |
QL | 0:efb9ac8d1a88 | 107 | QS_END() |
QL | 0:efb9ac8d1a88 | 108 | } |
QL | 0:efb9ac8d1a88 | 109 | //............................................................................ |
QL | 0:efb9ac8d1a88 | 110 | void BSP_busyDelay(void) { |
QL | 0:efb9ac8d1a88 | 111 | uint32_t volatile i = 10; |
QL | 0:efb9ac8d1a88 | 112 | while (i-- > 0UL) { // busy-wait loop |
QL | 0:efb9ac8d1a88 | 113 | } |
QL | 0:efb9ac8d1a88 | 114 | } |
QL | 0:efb9ac8d1a88 | 115 | |
QL | 0:efb9ac8d1a88 | 116 | //............................................................................ |
QL | 0:efb9ac8d1a88 | 117 | void QF::onStartup(void) { |
QL | 0:efb9ac8d1a88 | 118 | // set up the SysTick timer to fire at BSP_TICKS_PER_SEC rate |
QL | 0:efb9ac8d1a88 | 119 | SysTick_Config(SystemCoreClock / BSP_TICKS_PER_SEC); |
QL | 0:efb9ac8d1a88 | 120 | |
QL | 0:efb9ac8d1a88 | 121 | // set priorities of all interrupts in the system... |
QL | 0:efb9ac8d1a88 | 122 | NVIC_SetPriority(SysTick_IRQn, SYSTICK_PRIO); |
QL | 0:efb9ac8d1a88 | 123 | NVIC_SetPriority(EINT0_IRQn, GPIOPORTA_PRIO); |
QL | 0:efb9ac8d1a88 | 124 | |
QL | 0:efb9ac8d1a88 | 125 | NVIC_EnableIRQ(EINT0_IRQn); |
QL | 0:efb9ac8d1a88 | 126 | } |
QL | 0:efb9ac8d1a88 | 127 | //............................................................................ |
QL | 0:efb9ac8d1a88 | 128 | void QF::onCleanup(void) { |
QL | 0:efb9ac8d1a88 | 129 | } |
QL | 0:efb9ac8d1a88 | 130 | //............................................................................ |
QL | 0:efb9ac8d1a88 | 131 | void QK::onIdle(void) { |
QL | 0:efb9ac8d1a88 | 132 | |
QL | 0:efb9ac8d1a88 | 133 | QF_INT_LOCK(dummy); |
QL | 0:efb9ac8d1a88 | 134 | LED_PORT->FIOSET = LED4_BIT; // turn the LED4 on |
QL | 0:efb9ac8d1a88 | 135 | LED_PORT->FIOCLR = LED4_BIT; // turn the LED4 off |
QL | 0:efb9ac8d1a88 | 136 | QF_INT_UNLOCK(dummy); |
QL | 0:efb9ac8d1a88 | 137 | |
QL | 0:efb9ac8d1a88 | 138 | #ifdef Q_SPY |
QL | 0:efb9ac8d1a88 | 139 | if (l_qspy.writeable()) { |
QL | 0:efb9ac8d1a88 | 140 | QF_INT_LOCK(dummy); |
QL | 0:efb9ac8d1a88 | 141 | uint16_t b = QS::getByte(); |
QL | 0:efb9ac8d1a88 | 142 | QF_INT_UNLOCK(dummy); |
QL | 0:efb9ac8d1a88 | 143 | if (b != QS_EOD) { |
QL | 0:efb9ac8d1a88 | 144 | l_qspy.putc((uint8_t)b); |
QL | 0:efb9ac8d1a88 | 145 | } |
QL | 0:efb9ac8d1a88 | 146 | } |
QL | 0:efb9ac8d1a88 | 147 | #else |
QL | 0:efb9ac8d1a88 | 148 | // put the CPU and peripherals to the low-power mode |
QL | 0:efb9ac8d1a88 | 149 | // you might need to customize the clock management for your application, |
QL | 0:efb9ac8d1a88 | 150 | // see the datasheet for your particular Cortex-M3 MCU. |
QL | 0:efb9ac8d1a88 | 151 | __WFI(); |
QL | 0:efb9ac8d1a88 | 152 | #endif |
QL | 0:efb9ac8d1a88 | 153 | } |
QL | 0:efb9ac8d1a88 | 154 | |
QL | 0:efb9ac8d1a88 | 155 | //............................................................................ |
QL | 0:efb9ac8d1a88 | 156 | void Q_onAssert(char const Q_ROM * const Q_ROM_VAR file, int line) { |
QL | 0:efb9ac8d1a88 | 157 | (void)file; // avoid compiler warning |
QL | 0:efb9ac8d1a88 | 158 | (void)line; // avoid compiler warning |
QL | 0:efb9ac8d1a88 | 159 | QF_INT_LOCK(dummy); // make sure that all interrupts are disabled |
QL | 0:efb9ac8d1a88 | 160 | // light up all LEDs |
QL | 0:efb9ac8d1a88 | 161 | LED_PORT->FIOSET = (LED1_BIT | LED2_BIT | LED3_BIT | LED4_BIT); |
QL | 0:efb9ac8d1a88 | 162 | |
QL | 0:efb9ac8d1a88 | 163 | for (;;) { // NOTE: replace the loop with reset for final version |
QL | 0:efb9ac8d1a88 | 164 | } |
QL | 0:efb9ac8d1a88 | 165 | } |
QL | 0:efb9ac8d1a88 | 166 | |
QL | 0:efb9ac8d1a88 | 167 | //---------------------------------------------------------------------------- |
QL | 0:efb9ac8d1a88 | 168 | #ifdef Q_SPY |
QL | 0:efb9ac8d1a88 | 169 | //............................................................................ |
QL | 0:efb9ac8d1a88 | 170 | uint8_t QS::onStartup(void const *arg) { |
QL | 0:efb9ac8d1a88 | 171 | static uint8_t qsBuf[6*256]; // buffer for Quantum Spy |
QL | 0:efb9ac8d1a88 | 172 | initBuf(qsBuf, sizeof(qsBuf)); |
QL | 0:efb9ac8d1a88 | 173 | |
QL | 0:efb9ac8d1a88 | 174 | l_qspy.baud(QSPY_BAUD_RATE); |
QL | 0:efb9ac8d1a88 | 175 | |
QL | 0:efb9ac8d1a88 | 176 | l_tickPeriod = SystemCoreClock / BSP_TICKS_PER_SEC; |
QL | 0:efb9ac8d1a88 | 177 | l_tickTime = l_tickPeriod; // to start the timestamp at zero |
QL | 0:efb9ac8d1a88 | 178 | |
QL | 0:efb9ac8d1a88 | 179 | // setup the QS filters... |
QL | 0:efb9ac8d1a88 | 180 | QS_FILTER_ON(QS_ALL_RECORDS); |
QL | 0:efb9ac8d1a88 | 181 | |
QL | 0:efb9ac8d1a88 | 182 | // QS_FILTER_OFF(QS_QEP_STATE_EMPTY); |
QL | 0:efb9ac8d1a88 | 183 | // QS_FILTER_OFF(QS_QEP_STATE_ENTRY); |
QL | 0:efb9ac8d1a88 | 184 | // QS_FILTER_OFF(QS_QEP_STATE_EXIT); |
QL | 0:efb9ac8d1a88 | 185 | // QS_FILTER_OFF(QS_QEP_STATE_INIT); |
QL | 0:efb9ac8d1a88 | 186 | // QS_FILTER_OFF(QS_QEP_INIT_TRAN); |
QL | 0:efb9ac8d1a88 | 187 | // QS_FILTER_OFF(QS_QEP_INTERN_TRAN); |
QL | 0:efb9ac8d1a88 | 188 | // QS_FILTER_OFF(QS_QEP_TRAN); |
QL | 0:efb9ac8d1a88 | 189 | // QS_FILTER_OFF(QS_QEP_IGNORED); |
QL | 0:efb9ac8d1a88 | 190 | |
QL | 0:efb9ac8d1a88 | 191 | QS_FILTER_OFF(QS_QF_ACTIVE_ADD); |
QL | 0:efb9ac8d1a88 | 192 | QS_FILTER_OFF(QS_QF_ACTIVE_REMOVE); |
QL | 0:efb9ac8d1a88 | 193 | QS_FILTER_OFF(QS_QF_ACTIVE_SUBSCRIBE); |
QL | 0:efb9ac8d1a88 | 194 | QS_FILTER_OFF(QS_QF_ACTIVE_UNSUBSCRIBE); |
QL | 0:efb9ac8d1a88 | 195 | QS_FILTER_OFF(QS_QF_ACTIVE_POST_FIFO); |
QL | 0:efb9ac8d1a88 | 196 | QS_FILTER_OFF(QS_QF_ACTIVE_POST_LIFO); |
QL | 0:efb9ac8d1a88 | 197 | QS_FILTER_OFF(QS_QF_ACTIVE_GET); |
QL | 0:efb9ac8d1a88 | 198 | QS_FILTER_OFF(QS_QF_ACTIVE_GET_LAST); |
QL | 0:efb9ac8d1a88 | 199 | QS_FILTER_OFF(QS_QF_EQUEUE_INIT); |
QL | 0:efb9ac8d1a88 | 200 | QS_FILTER_OFF(QS_QF_EQUEUE_POST_FIFO); |
QL | 0:efb9ac8d1a88 | 201 | QS_FILTER_OFF(QS_QF_EQUEUE_POST_LIFO); |
QL | 0:efb9ac8d1a88 | 202 | QS_FILTER_OFF(QS_QF_EQUEUE_GET); |
QL | 0:efb9ac8d1a88 | 203 | QS_FILTER_OFF(QS_QF_EQUEUE_GET_LAST); |
QL | 0:efb9ac8d1a88 | 204 | QS_FILTER_OFF(QS_QF_MPOOL_INIT); |
QL | 0:efb9ac8d1a88 | 205 | QS_FILTER_OFF(QS_QF_MPOOL_GET); |
QL | 0:efb9ac8d1a88 | 206 | QS_FILTER_OFF(QS_QF_MPOOL_PUT); |
QL | 0:efb9ac8d1a88 | 207 | QS_FILTER_OFF(QS_QF_PUBLISH); |
QL | 0:efb9ac8d1a88 | 208 | QS_FILTER_OFF(QS_QF_NEW); |
QL | 0:efb9ac8d1a88 | 209 | QS_FILTER_OFF(QS_QF_GC_ATTEMPT); |
QL | 0:efb9ac8d1a88 | 210 | QS_FILTER_OFF(QS_QF_GC); |
QL | 0:efb9ac8d1a88 | 211 | // QS_FILTER_OFF(QS_QF_TICK); |
QL | 0:efb9ac8d1a88 | 212 | QS_FILTER_OFF(QS_QF_TIMEEVT_ARM); |
QL | 0:efb9ac8d1a88 | 213 | QS_FILTER_OFF(QS_QF_TIMEEVT_AUTO_DISARM); |
QL | 0:efb9ac8d1a88 | 214 | QS_FILTER_OFF(QS_QF_TIMEEVT_DISARM_ATTEMPT); |
QL | 0:efb9ac8d1a88 | 215 | QS_FILTER_OFF(QS_QF_TIMEEVT_DISARM); |
QL | 0:efb9ac8d1a88 | 216 | QS_FILTER_OFF(QS_QF_TIMEEVT_REARM); |
QL | 0:efb9ac8d1a88 | 217 | QS_FILTER_OFF(QS_QF_TIMEEVT_POST); |
QL | 0:efb9ac8d1a88 | 218 | QS_FILTER_OFF(QS_QF_INT_LOCK); |
QL | 0:efb9ac8d1a88 | 219 | QS_FILTER_OFF(QS_QF_INT_UNLOCK); |
QL | 0:efb9ac8d1a88 | 220 | QS_FILTER_OFF(QS_QF_ISR_ENTRY); |
QL | 0:efb9ac8d1a88 | 221 | QS_FILTER_OFF(QS_QF_ISR_EXIT); |
QL | 0:efb9ac8d1a88 | 222 | |
QL | 0:efb9ac8d1a88 | 223 | // QS_FILTER_OFF(QS_QK_MUTEX_LOCK); |
QL | 0:efb9ac8d1a88 | 224 | // QS_FILTER_OFF(QS_QK_MUTEX_UNLOCK); |
QL | 0:efb9ac8d1a88 | 225 | // QS_FILTER_OFF(QS_QK_SCHEDULE); |
QL | 0:efb9ac8d1a88 | 226 | |
QL | 0:efb9ac8d1a88 | 227 | return (uint8_t)1; // return success |
QL | 0:efb9ac8d1a88 | 228 | } |
QL | 0:efb9ac8d1a88 | 229 | //............................................................................ |
QL | 0:efb9ac8d1a88 | 230 | void QS::onCleanup(void) { |
QL | 0:efb9ac8d1a88 | 231 | } |
QL | 0:efb9ac8d1a88 | 232 | //............................................................................ |
QL | 0:efb9ac8d1a88 | 233 | QSTimeCtr QS::onGetTime(void) { // invoked with interrupts locked |
QL | 0:efb9ac8d1a88 | 234 | if ((SysTick->CTRL & 0x00000100) == 0) { // COUNTFLAG no set? |
QL | 0:efb9ac8d1a88 | 235 | return l_tickTime - (QSTimeCtr)SysTick->VAL; |
QL | 0:efb9ac8d1a88 | 236 | } |
QL | 0:efb9ac8d1a88 | 237 | else { // the rollover occured, but the SysTick_ISR did not run yet |
QL | 0:efb9ac8d1a88 | 238 | return l_tickTime + l_tickPeriod - (QSTimeCtr)SysTick->VAL; |
QL | 0:efb9ac8d1a88 | 239 | } |
QL | 0:efb9ac8d1a88 | 240 | } |
QL | 0:efb9ac8d1a88 | 241 | //............................................................................ |
QL | 0:efb9ac8d1a88 | 242 | void QS::onFlush(void) { |
QL | 0:efb9ac8d1a88 | 243 | uint16_t b; |
QL | 0:efb9ac8d1a88 | 244 | QF_INT_LOCK(dummy); |
QL | 0:efb9ac8d1a88 | 245 | while ((b = QS::getByte()) != QS_EOD) { |
QL | 0:efb9ac8d1a88 | 246 | while (!l_qspy.writeable()) { // wait until serial port is writable |
QL | 0:efb9ac8d1a88 | 247 | } |
QL | 0:efb9ac8d1a88 | 248 | l_qspy.putc((uint8_t)b); |
QL | 0:efb9ac8d1a88 | 249 | } |
QL | 0:efb9ac8d1a88 | 250 | QF_INT_UNLOCK(dummy); |
QL | 0:efb9ac8d1a88 | 251 | } |
QL | 0:efb9ac8d1a88 | 252 | #endif // Q_SPY |
QL | 0:efb9ac8d1a88 | 253 | //---------------------------------------------------------------------------- |