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# 1224V 2P2N双色LED H桥驱动原理与器件设计
## 1. 文档目的
本文针对一套输入电压为12~24V的双色LED H桥驱动电路。主功率桥由2只PMOS和2只NMOS组成,另外使用2只小信号NMOS驱动高边PMOS,因此整个驱动部分共使用6只MOS管。
本文说明:
- 2P2N主桥和2只驱动MOS分别承担什么工作;
- 双色LED为什么需要H桥改变电流方向;
- 两路PWM输入怎样控制暖光、冷光和关闭状态;
- 为什么两路输入绝对不能同时为高电平;
- 为什么换向必须先输出`00`并保留死区;
- PMOS为什么需要栅极上拉电阻和下拉电阻;
- 两个电阻为什么会形成分压;
- 电阻太大或太小分别会产生什么问题;
- 12V稳压管在电路中起什么作用;
- 如何计算PMOS的栅源电压、电阻功耗和稳压管电流;
- 如果取消稳压管,应当如何重新选择电阻;
- 为什么还必须检查死区时间、MOS管尖峰和PCB布局。
本文尽量使用直观的方式说明,适合刚接触MOS管驱动电路的工程人员阅读。
---
## 2. 完整电路由哪些部分组成
![1224V 2P2N双色LED H桥驱动原理图](images/12-24V_2P2N_H桥驱动原理图.png)
图1:本项目12~24V、2P2N主桥加2只小MOS驱动的完整原理图。
图中的主要器件分工如下:
| 器件 | 类型 | 作用 |
|---|---|---|
| Q1、Q2 | 高边PMOS60P03 | 分别把C端、W端连接到12~24V电源 |
| Q9、Q10 | 低边NMOS60N03 | 分别把C端、W端连接到GND |
| Q7、Q8 | 小信号NMOSAO3400A | 分别下拉Q1、Q2的栅极 |
| R1、R2 | 2.4kΩ上拉电阻 | 使Q1、Q2快速关断 |
| R3、R4 | 3kΩ下拉通路电阻 | 与R1、R2分压,限制高边PMOS的导通VGS |
| D1、D2 | 12V稳压管(BZT52C12 | 限制高边PMOS的栅源电压尖峰 |
| R14、R15 | 10kΩ栅源下拉电阻 | 确保Q9、Q10在控制信号悬空时保持关闭 |
### 2.1 2只高边PMOS
高边使用2只PMOS
- 左侧PMOS负责把输出端`C`连接到1224V电源;
- 右侧PMOS负责把输出端`W`连接到1224V电源。
PMOS适合放在高边,是因为它的源极可以直接接正电源,栅极只需要从源极电压向下拉,就能导通。
### 2.2 2只低边NMOS
低边使用2只NMOS
- 左侧NMOS负责把输出端`C`连接到GND
- 右侧NMOS负责把输出端`W`连接到GND。
低边NMOS的源极接地,MCU输出高电平后比较容易直接驱动其栅极。
### 2.3 2只PMOS驱动NMOS
MCU通常只有3.3V输出,不能直接把接在12~24V电源上的PMOS栅极拉到合适电位,所以增加2只小信号NMOS:
- 左侧驱动NMOS负责下拉左侧PMOS栅极;
- 右侧驱动NMOS负责下拉右侧PMOS栅极。
这2只小MOS不直接承受LED主电流,只负责PMOS栅极的充电和放电控制。
### 2.4 负载是反向并联双色LED
双色LED连接在`C``W`两个H桥输出端之间。两种颜色的LED芯片方向相反:
- 电流从`C`流向`W`时,点亮一种颜色;
- 电流从`W`流向`C`时,点亮另一种颜色;
- 两个方向快速分时工作时,肉眼看到混合色或中性光。
H桥的作用不是简单提供两路独立正电压,而是改变流过双色LED的电流方向。
---
## 3. 两路输入如何控制H桥
本文把两路控制信号称为:
- `PWM_W`:驱动Q7和对角线上的Q10,形成`C→W`电流;
- `PWM_C`:驱动Q8和对角线上的Q9,形成`W→C`电流。
按照当前交叉驱动结构,一路信号会同时控制一只高边PMOS和对角线上的一只低边NMOS。
> `PWM_C`、`PWM_W`是电路网络名称。最终点亮暖色还是冷色,还取决于双色LED的实际安装方向。
### 3.1 PWM_W有效
`PWM_W=1、PWM_C=0`时:
- Q7导通并下拉Q1的栅极,使左侧高边PMOS Q1导通;
- 对角线上的右侧低边NMOS Q10导通;
- `C`端接近电源;
- `W`端接近GND
- 电流方向为`电源 → C → LED → W → GND`
此时点亮一个颜色。
### 3.2 PWM_C有效
`PWM_C=1、PWM_W=0`时:
- Q8导通并下拉Q2的栅极,使右侧高边PMOS Q2导通;
- 对角线上的左侧低边NMOS Q9导通;
- `W`端接近电源;
- `C`端接近GND
- 电流方向为`电源 → W → LED → C → GND`
此时点亮另一个颜色。
### 3.3 两路均为低电平
`PWM_C=0、PWM_W=0`时:
- 两只高边PMOS关闭;
- 两只低边NMOS关闭;
- H桥处于关闭状态;
- LED没有持续驱动电流。
换向时必须先进入这个状态。
### 3.4 两路均为高电平
`PWM_C=1、PWM_W=1`是禁止状态。
此时两组对角桥臂同时收到导通命令,可能导致同一桥臂的上管和下管同时导通,形成:
```text
电源 → 上管 → 下管 → GND
```
这条路径几乎没有LED负载限流,会产生很大的直通电流,可能造成:
- 电源异响;
- MOS管快速发热;
- 电源电压跌落;
- MCU复位或蓝牙掉线;
- MOS管损坏;
- PCB走线或电源器件损坏。
控制真值表如下:
| PWM_C | PWM_W | H桥状态 | 结果 |
|---:|---:|---|---|
| 0 | 0 | 全部关闭 | 安全关闭/换向死区 |
| 0 | 1 | C高、W低 | 电流从C流向W |
| 1 | 0 | W高、C低 | 电流从W流向C |
| 1 | 1 | 禁止状态 | 可能发生桥臂直通 |
---
## 4. 为什么换向必须设置死区
MOS管不是收到控制电平后立即完成导通或关断。栅极电容、米勒平台、驱动电阻和PCB寄生参数都会产生延迟。
如果直接执行:
```text
PWM_C有效 → PWM_W有效
```
可能出现:
- 原方向的PMOS和NMOS还没有完全关闭;
- 新方向的PMOS和NMOS已经开始导通;
- 两个方向在很短时间内重叠;
- H桥形成瞬间直通。
正确换向顺序应为:
```text
方向C导通 → 输出00 → 等待死区 → 方向W导通
方向W导通 → 输出00 → 等待死区 → 方向C导通
```
死区时间不能只根据软件定时值决定,必须结合实际MOS管栅极波形测量。对于本类低频LED PWM,可以先设置较保守的死区进行验证,再根据示波器结果缩短。
需要注意:
- 死区太短,可能发生直通;
- 死区太长,会降低最大有效占空比和LED峰值亮度;
- 调高PWM频率后,相同死区占整个周期的比例会变大;
- PMOS上拉电阻变大后,通常需要重新确认死区是否足够。
---
## 5. 先认识PMOS的三个引脚
PMOS有三个主要引脚:
- `S`:源极(Source),本电路接12V或24V电源;
- `G`:栅极(Gate),用于控制PMOS导通和关断;
- `D`:漏极(Drain),连接H桥输出端。
PMOS是否导通,主要取决于栅源电压:
```text
VGS = VG - VS
```
其中:
- `VG`是栅极对地电压;
- `VS`是源极对地电压。
假设源极接24V
| 栅极电压VG | 栅源电压VGS | PMOS状态 |
|---:|---:|---|
| 24V | 0V | 关断 |
| 20V | -4V | 开始较明显导通 |
| 14V | -10V | 充分导通 |
| 12V | -12V | 充分导通 |
| 0V | -24V | 超过多数PMOS的栅源耐压,危险 |
> 注意:数据手册中的`VGS(th)`是“刚开始有很小电流”的开启阈值,不代表MOS管已经充分导通。
以SL60P03D为例:
- `VGS(th)`约为-1.0V至-2.2V
- 导通电阻通常在`VGS=-4.5V``VGS=-10V`条件下标定;
- 栅源极绝对最大耐压为`±20V`
所以“20V”不是开启阈值,而是不能超过的栅源极极限耐压。
---
## 6. 上拉电阻和下拉电阻分别做什么
为避免受到原理图位号差异影响,本文统一使用下面的名称:
- `RUP`:PMOS栅极到源极(电源)的上拉电阻;
- `RDOWN`PMOS栅极到地的下拉电阻;
- `DZ`:跨接在PMOS栅极和源极之间的稳压管;
- `QDRV`:把PMOS栅极向地拉低的小信号MOS管。
简化结构如下:
```text
电源12V/24V
|
+--------- PMOS源极S
|
RUP
|
+--------- PMOS栅极G
|
RDOWN
|
QDRV
|
GND
DZ稳压管跨接在PMOS的S和G之间。
```
### 6.1 PMOS关断过程
`QDRV`关闭后,下拉路径断开,`RUP`把PMOS栅极充电到源极电压:
```text
VG ≈ VS
VGS ≈ 0V
```
PMOS关断。
因此,`RUP`越小,给栅极电容充电的电流越大,PMOS通常关断得越快。
### 6.2 PMOS导通过程
`QDRV`导通后,`RUP``RDOWN`形成从电源到地的分压回路,栅极电压下降,PMOS得到负的`VGS`并导通。
因此:
- `RUP`太小:关断快,但栅极不容易被拉低,PMOS导通电压可能不足;
- `RUP`太大:PMOS容易得到较大的负`VGS`,但栅极充电慢,关断时间增加;
- `RDOWN`太小:PMOS导通更充分,但电流和电阻功耗增加;
- `RDOWN`太大:功耗降低,但PMOS导通电压减小。
两个电阻必须综合考虑,不能只追求其中一个方向。
---
## 7. 没有稳压管时如何计算
先忽略稳压管,假设`QDRV`已经完全导通。
栅极电压为:
```text
VG = VCC × RDOWN / (RUP + RDOWN)
```
PMOS栅源电压的绝对值为:
```text
|VGS| = VCC × RUP / (RUP + RDOWN)
```
回路电流为:
```text
I = VCC / (RUP + RDOWN)
```
两个电阻的功耗分别为:
```text
PUP = I² × RUP
PDOWN = I² × RDOWN
```
### 7.1 当前原理图:24V、上拉2.4kΩ、下拉3kΩ
```text
VCC = 24V
RUP = 2.4kΩ
RDOWN = 3kΩ
```
计算结果:
```text
VG = 24 × 3 / (2.4 + 3) ≈ 13.33V
VGS = 13.33 - 24 ≈ -10.67V
I = 24 / 5.4k ≈ 4.44mA
PUP = I² × 2.4k ≈ 47mW
PDOWN = I² × 3k ≈ 59mW
```
所以栅极并不会被拉到0V,而是被两个电阻分压到约13.33V。
PMOS得到约-10.67V的栅源电压,能够充分导通。这个数值没有达到12V稳压管的击穿电压,因此D1/D2在稳定导通状态下基本不工作,主要用于处理换向尖峰。
### 7.2 当前原理图:12V、上拉2.4kΩ、下拉3kΩ
同样的电阻在12V输入下:
```text
VG = 12 × 3 / (2.4 + 3) ≈ 6.67V
VGS = 6.67 - 12 ≈ -5.33V
I = 12 / 5.4k ≈ 2.22mA
PUP ≈ 12mW
PDOWN ≈ 15mW
```
此时PMOS仍然可以可靠导通,而且12V稳压管在正常稳定状态下不会反向击穿。
---
## 8. 稳压管的真正作用
12V稳压管跨接在PMOS的源极和栅极之间,主要作用是限制`|VGS|`
### 8.1 正常关断时
PMOS栅极被`RUP`拉到源极电压:
```text
VGS ≈ 0V
```
稳压管不工作。
### 8.2 正常导通时
栅极被下拉,`|VGS|`逐渐增大。
`|VGS|`接近稳压管的击穿电压后,稳压管开始反向导通,把`|VGS|`限制在大约12V附近。
24V输入、12V稳压管钳位时,理想状态约为:
```text
VS ≈ 24V
VG ≈ 12V
VGS ≈ -12V
```
### 8.3 换向尖峰出现时
H桥换向会受到以下因素影响:
- MOS管栅极电容;
- 米勒电容;
- PCB走线电感;
- LED和供电线路电感;
- MOS管体二极管反向恢复;
- 电源母线尖峰。
这些因素可能让`VGS`在很短时间内超过正常分压值。稳压管可以吸收部分栅源尖峰,避免PMOS栅极氧化层承受过高电压。
### 8.4 正向栅源尖峰
如果换向时栅极瞬间高于源极,稳压管会像普通二极管一样正向导通,把正向`VGS`限制在约0.7V至1V附近。
### 8.5 稳压管不能保护什么
栅源稳压管只能保护PMOS的`VGS`,不能保护PMOS的漏源极`VDS`
例如:
- 电源为24V
- PMOS的`VDS`额定值为-30V。
这时漏源极只有约6V的理论尖峰余量。电源母线仍需考虑:
- TVS管;
- 就近低ESR电容;
- 较短、较宽的功率走线;
- 减小H桥电流环路面积;
- 必要时使用耐压更高的MOS管。
---
## 9. 为什么稳压管不是接上就一定能稳定在12V
稳压管必须获得足够的反向电流,才能进入比较稳定的击穿区。
为了说明稳压管为什么需要足够电流,下面使用“上拉1.2kΩ、下拉1kΩ”作为对比算例。这不是图1当前采用的2.4kΩ、3kΩ参数。
假设:
```text
VCC = 24V
VZ = 12V
RUP = 1.2kΩ
RDOWN = 1kΩ
```
钳位后栅极约为12V。
下拉电阻电流:
```text
IDOWN = 12V / 1kΩ = 12mA
```
上拉电阻电流:
```text
IUP = (24V - 12V) / 1.2kΩ = 10mA
```
稳压管电流约为:
```text
IZ = IDOWN - IUP = 12mA - 10mA = 2mA
```
因此,1.2kΩ上拉加1kΩ下拉时,稳压管大约只有2mA电流。
这通常可以产生一定的钳位作用,但实际电压未必正好是12.00V。稳压管的标称电压、测试电流、动态电阻和温度特性需要查看具体厂家的数据手册。
如果上拉和下拉都是1kΩ:
```text
IUP = 12mA
IDOWN = 12mA
IZ ≈ 0mA
```
此时稳压管几乎没有剩余电流,不能指望它进入稳定的反向击穿状态。
对于图1当前的2.4kΩ上拉和3kΩ下拉,在24V正常导通时,计算得到`|VGS|≈10.67V`,低于12V,因此稳压管不会持续击穿。这正是更合适的状态:正常工作由电阻分压确定栅极电压,稳压管只处理异常瞬态。
---
## 10. 为什么电阻不能只考虑关断速度
MOS管的栅极不是普通的纯电阻负载,可以把它理解为一个需要充电和放电的电容。
SL60P03D的典型参数包括:
- 输入电容`CISS`约为1988pF
- 总栅极电荷`Qg`约为35nC(特定测试条件下);
- 米勒电荷`Qgd`约为8.8nC。
PMOS关断时,`RUP`负责给栅极充电。可以先用RC时间常数粗略估算:
```text
τ ≈ RUP × CISS
```
例如:
| RUP | 估算时间常数τ |
|---:|---:|
| 1.2kΩ | 约2.4μs |
| 2.2kΩ | 约4.4μs |
| 2.4kΩ | 约4.8μs |
| 3.6kΩ | 约7.2μs |
实际关断时间还受到栅极电荷、米勒平台、漏极电压变化和PCB寄生参数影响,不能只用一个RC公式定论。
### 10.1 RUP太大
可能产生:
- PMOS关断变慢;
- 换向时上管尚未完全关断,下管已经开启;
- H桥上下管短暂直通;
- 电源出现大电流尖峰;
- MOS管异常发热;
- 电路发出异响;
- 严重时损坏MOS管或电源。
### 10.2 RUP太小
可能产生:
- PMOS关断速度加快;
- 但下拉时大量电流被RUP分走;
- 栅极下拉不够,PMOS的负`VGS`不足;
- PMOS没有充分导通,导通电阻增大;
- 驱动回路静态功耗增加;
- 电阻和驱动管温升增加。
所以“上拉电阻越小越安全”并不成立。
---
## 11. 电阻功耗不能只按照死区时间计算
这是非常容易出现的误区。
死区时间,例如25μs或50μs,表示换向时两边都关闭的保护时间。它不代表上拉、下拉电阻只通电25μs或50μs。
当PMOS保持导通时:
- `QDRV`持续导通;
- `RUP``RDOWN`和稳压管可能持续有电流;
- 电阻功耗会持续整个PMOS导通阶段。
因此必须分别检查:
1. 正常导通期间的连续或平均功耗;
2. 换向尖峰期间的瞬时脉冲功耗。
### 11.1 对比算例:24V钳位在12V、RUP=1.2kΩ、RDOWN=1kΩ
钳位时:
```text
PUP = 12² / 1.2k ≈ 120mW
PDOWN = 12² / 1k ≈ 144mW
PZ = 12V × 2mA ≈ 24mW
```
普通0603电阻常见连续额定功率约为0.1W,但不同厂家、环境温度和PCB焊盘条件会有差异。
因此:
- 120mW和144mW不能简单地当成“只有50μs”;
- 如果PMOS长时间保持导通,电阻可能接近连续承受该功耗;
- 建议使用0805封装,或使用多个电阻分担功耗;
- 最终必须查看所选电阻的数据手册和降额曲线。
图1当前采用2.4kΩ上拉和3kΩ下拉,24V稳定工作时功耗分别约为47mW和59mW,不会出现上述持续钳位功耗;但0603电阻仍应考虑环境温度和功率降额。
---
## 12. 取消稳压管时如何选择电阻
如果决定不安装稳压管,就必须完全依靠电阻分压限制`VGS`
设计时应检查最坏情况:
```text
|VGS|max = VCC,max × RUP,max / (RUP,max + RDOWN,min)
```
必须同时考虑:
- 电源最高电压;
- 电源启动和负载突卸尖峰;
- 电阻误差;
- 温度;
- 驱动管导通压降;
- PCB寄生参数。
### 12.1 同时兼容12V和24V的参考值
可以考虑:
```text
RUP = 2.4kΩ
RDOWN = 3kΩ
```
计算结果:
| 输入电压 | 栅源电压VGS | 回路电流 |
|---:|---:|---:|
| 12V | 约-5.33V | 约2.22mA |
| 24V | 约-10.67V | 约4.44mA |
24V时电阻功耗:
```text
PUP ≈ 47mW
PDOWN ≈ 59mW
```
这个组合具有以下特点:
- 12V输入时仍能获得约-5.33V驱动;
- 24V输入时约为-10.67V
- 正常功耗低于1.2kΩ加1kΩ方案;
- 2.4kΩ上拉的关断速度仍然较快;
- 不需要依靠稳压管在正常工作时持续击穿。
即使使用这个分压,保留稳压管仍然有价值:它在正常工作时不导通,只在异常尖峰时保护PMOS。
---
## 13. 两种方案对比
### 方案A:电阻分压加稳压管
优点:
- 对栅源尖峰有额外保护;
- 元件误差或异常状态下更安全;
- 可以限制`VGS`不超过约12V。
缺点:
- 必须保证稳压管具有合适的工作电流;
- 如果设计成稳压管持续击穿,会增加静态功耗;
- 电阻功耗和稳压管功耗都需要核算。
适合:
- 24V供电;
- H桥换向尖峰明显;
- 对可靠性要求较高;
- PCB空间允许增加保护器件。
### 方案B:只使用电阻分压
优点:
- 元件少;
- 不存在稳压管持续工作产生的额外功耗;
- 参数计算直观。
缺点:
- 失去栅源尖峰钳位;
- 对电源波动、电阻误差和PCB寄生参数更敏感;
- 上拉电阻开路等故障可能让`VGS`超过额定值。
适合:
- 输入电压范围明确;
- 电源尖峰受到良好控制;
- 已经通过示波器确认`VGS`安全;
- 有足够的设计余量。
---
## 14. 本电路的建议
### 14.1 如果保留12V稳压管
建议:
- 不要只根据“关断越快越好”无限减小上拉电阻;
- 计算稳压管电流,确认能够形成有效钳位;
- 按整个PMOS导通时间核算电阻平均功耗;
- 对超过或接近0.1W的电阻优先使用0805;
- 用示波器测量真实`VGS`,确认导通时约为-10V至-12V,关断时回到0V。
### 14.2 如果取消稳压管
12V至24V输入可以先测试:
```text
RUP = 2.4kΩ
RDOWN = 3kΩ
```
但必须满足:
- 实测最大负`VGS`有足够余量;
- 实测正向和反向尖峰没有接近`±20V`
- 电源母线已经做好TVS和就近电容;
- PMOS能在下管开启前完全关断;
- 保留足够的硬件或软件死区。
### 14.3 关于死区
死区的最终取值不能仅凭计算,应根据示波器实测决定。
至少同时测量:
- 上管PMOS的`VGS`
- 下管NMOS的`VGS`
- H桥输出节点;
- 24V母线电压;
- 条件允许时测量桥臂电流。
判断标准是:
> 下管开始导通之前,对应上管必须已经退出导通区,并且换向过程中没有异常母线电流尖峰。
---
## 15. 初学者常见误区
### 误区一:PMOS的20V是开启阈值
错误。20V通常是栅源极最大耐压。真正的`VGS(th)`一般只有约1V至3V,但这个电压只能让MOS管刚刚开始导通。
### 误区二:栅极下拉后一定是0V
错误。如果存在上拉和下拉电阻,栅极由两个电阻分压,不会自然等于0V。
### 误区三:装了12V稳压管,VGS就一定是-12V
错误。稳压管必须获得足够的反向电流,实际钳位电压还受到电流、温度和器件误差影响。
### 误区四:上拉电阻越小,电路越安全
错误。上拉电阻减小会加快关断,但也会降低PMOS导通时的负`VGS`,并增加静态功耗。
### 误区五:电阻的高功耗只持续死区时间
错误。PMOS导通期间,分压回路可能持续有电流。必须按照实际占空比和最坏工作状态核算平均功耗。
### 误区六:栅源稳压管可以保护整个MOS管
错误。它主要保护`VGS`,不能代替24V母线TVS,也不能阻止`VDS`超过MOS管额定值。
---
## 16. 最终检查清单
原理图确定后,至少完成以下检查:
- [ ] 确认PMOS的`VGS(th)`、推荐驱动电压和`VGS(max)`
- [ ] 计算12V和24V下的正常`VGS`
- [ ] 计算最高电源电压和电阻误差下的最坏`VGS`
- [ ] 计算上拉、下拉电阻连续功耗;
- [ ] 计算稳压管正常电流和功耗;
- [ ] 检查0603/0805电阻的额定功率和降额曲线;
- [ ] 测量PMOS栅极对源极波形,而不是只测栅极对地;
- [ ] 检查换向时是否有正向或反向`VGS`尖峰;
- [ ] 检查上下管是否发生交叉导通;
- [ ] 验证`PWM_C=1、PWM_W=1`在软硬件中都不会出现;
- [ ] 验证每次方向切换都经过`00`关闭状态;
- [ ] 检查24V母线是否超过PMOS的`VDS`额定值;
- [ ] 高温、低温、最低输入和最高输入条件下重复测试。
---
## 17. 总结
PMOS栅极驱动电阻的选择,本质上是在以下四项之间寻找平衡:
1. PMOS必须得到足够的负`VGS`,保证充分导通;
2. PMOS必须快速回到`VGS≈0V`,保证及时关断;
3. 分压回路的电流和电阻功耗不能过大;
4. 栅源电压和换向尖峰不能超过MOS管额定值。
稳压管的核心作用是保护PMOS栅源极,而不是替代电阻分压,也不是控制死区。合理的设计应先用电阻比例确定正常工作点,再用稳压管处理异常和瞬态过压,最后通过示波器实测确认。
对于这套12~24V、2P2N主桥加2只驱动MOS的双色LED电路,还必须始终遵守两个基本原则:
1. `PWM_C``PWM_W`不能同时为高电平;
2. 两个电流方向切换时,必须先输出`00`,等待确认安全的死区后再开启另一方向。
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# DWM22 黑盒用户测试文档
## 1. 文档信息
| 项目 | 内容 |
| --- | --- |
| 产品名称 | DWM22 |
| 测试类型 | 用户黑盒功能测试 |
| 固件校验码 | `0F9DA5A0` |
| 固件提交 | `ee68f37 DWM22量产测试` |
| APP | Ultra Life |
| 测试日期 | |
| 测试人员 | |
| 样机编号 | |
> 测试人员只根据实际操作和灯光表现判断结果,不需要查看程序、波形或内部数据。
## 2. 测试准备
- DWM22 测试样机 1 台。
- 双色 LED 灯板及 12~24V 配套电源。
- 安装最新版 Ultra Life APP 的手机 1 台。
- 433 遥控器至少 2 个;测试 5 路记忆时准备 6 个。
- 遥控距离测试场地:无遮挡、直线距离大于 12 米。
- 每个用例测试完成后,在“结果”栏填写:通过或失败。
## 3. 产品模式说明
DWM22 共 14 个产品模式,固定顺序如下:
**暖光静态 → 冷光静态 → 中性光静态 → 暖光呼吸 → 冷光呼吸 → 中性光呼吸 → 三色呼吸 → 暖冷连续渐变 → 暖冷中性渐变 → 暖光闪烁 → 冷光闪烁 → 中性光闪烁 → 暖冷中性跳变 → 三色闪烁**
- 模式 1~3 为静态模式,可以调节亮度。
- 模式 4~14 为动态模式,可以调节亮度和速度。
- 遥控器“模式+”按上述顺序向后切换,“模式-”按相反顺序返回。
- 到达模式 14 后继续按“模式+”,应停留在模式 14,不从头循环。
- 到达模式 1 后继续按“模式-”,应停留在模式 1,不跳到模式 14。
- APP 色温环属于自定义静态色温,不占用以上 14 个模式编号。
| 顺序 | 模式名称 | 产品效果说明 |
| --- | --- | --- |
| 1 | 暖光静态 | 仅暖光常亮 |
| 2 | 冷光静态 | 仅冷光常亮 |
| 3 | 中性光静态 | 暖光和冷光混合形成中性光 |
| 4 | 暖光呼吸 | 暖光由暗到亮、再由亮到暗循环 |
| 5 | 冷光呼吸 | 冷光由暗到亮、再由亮到暗循环 |
| 6 | 中性光呼吸 | 暖冷两路保持中性比例同步呼吸 |
| 7 | 三色呼吸 | 暖光、冷光、中性光依次完成呼吸 |
| 8 | 暖冷连续渐变 | 暖光与冷光互补变化,一个降低时另一个升高,全程不断光 |
| 9 | 暖冷中性渐变 | 在暖光、冷光和中性光之间平滑渐变,颜色衔接时保持亮光 |
| 10 | 暖光闪烁 | 暖光按设定速度亮灭 |
| 11 | 冷光闪烁 | 冷光按设定速度亮灭 |
| 12 | 中性光闪烁 | 中性光按设定速度亮灭 |
| 13 | 暖冷中性跳变 | 暖光、冷光、中性光直接切换,不做渐变 |
| 14 | 三色闪烁 | 暖光、冷光、中性光依次闪烁,中间包含熄灭节拍 |
## 4. 基本功能
| 编号 | 测试操作 | 预期结果 | 结果 | 备注 |
| --- | --- | --- | --- | --- |
| 01 | 接通电源 | 灯具能在正常时间内点亮;无长时间不亮、异常闪烁、异响或发热 | | |
| 02 | 使用遥控器或 APP 开灯、关灯 | 开关响应正确,开关过程柔和;关灯后两路 LED 均完全熄灭 | | |
| 03 | 连续开关灯 10 次 | 每次均正常响应,无死机、失控或蓝牙广播消失 | | |
| 04 | 在暖光、冷光、中性光之间反复切换 | 颜色正确,过渡柔和,无突然增亮、突然变暗或异常颜色闪现 | | |
| 05 | 从最低亮度逐级调到最高亮度,再调回最低亮度 | 亮度变化连续、均匀,无明显顿挫、抖动或提前熄灭 | | |
| 06 | 中性光在低亮度下持续观察 30 秒 | 无肉眼可见抖动,两路混色比例稳定 | | |
## 5. 遥控器对码
对码操作:连接 DWM22,在 APP“更多”页面点击“遥控器对码”,在 5 秒倒计时内长按遥控器“亮度+”按键。
| 编号 | 测试操作 | 预期结果 | 结果 | 备注 |
| --- | --- | --- | --- | --- |
| 07 | 使用未对码遥控器直接控制灯具 | 灯具不响应 | | |
| 08 | 在 APP 中进入“遥控器对码”,长按遥控器“亮度+” | 灯具给出对码闪烁反馈;APP 显示“对码成功”和已对码数量 | | |
| 09 | 对码成功后测试遥控器开关、模式和亮度按键 | 所有按键均能正常控制灯具,短按一次即可响应 | | |
| 10 | 打开对码页面但不操作遥控器,等待 5 秒 | 对码自动结束,APP 提示未收到有效信号;原有遥控器不受影响 | | |
| 11 | 将已经对码的同一个遥控器再次对码 | 可以提示对码成功,但已对码数量不增加,不重复占用位置 | | |
| 12 | 依次对码 5 个不同遥控器 | 5 个遥控器都能控制灯具,APP 显示 `5/5` | | |
| 13 | 已有 5 个遥控器后,再对码第 6 个遥控器 | 第 6 个遥控器可以使用;最早对码的遥控器被替换,其余最近 4 个仍可使用 | | |
| 14 | 对码成功后切断电源,重新上电 | 已对码遥控器仍能使用,对码数据不会因断电丢失 | | |
## 6. 遥控器清码
| 编号 | 测试操作 | 预期结果 | 结果 | 备注 |
| --- | --- | --- | --- | --- |
| 15 | APP“更多”页面点击“清除遥控器” | 出现二次确认窗口,不会直接清码 | | |
| 16 | 在确认窗口点击“取消” | 遥控器数据保留,原遥控器仍可使用 | | |
| 17 | 再次进入清码并点击“清除” | 灯具给出清码反馈,APP 提示“清码成功”,已对码数量变为 0 | | |
| 18 | 清码后测试全部旧遥控器 | 所有旧遥控器均不能控制灯具 | | |
| 19 | 清码后重新对码一个遥控器 | 可以正常重新对码并控制灯具 | | |
| 20 | 清码后断电重启,再测试旧遥控器 | 清码结果被记忆,旧遥控器仍不能控制灯具 | | |
## 7. 遥控距离
| 编号 | 测试操作 | 预期结果 | 结果 | 备注 |
| --- | --- | --- | --- | --- |
| 21 | 在无遮挡环境下,将遥控器与灯具距离拉到 12 米以上 | 在大于 12 米的位置仍可正常控制,判定距离合格 | | 实测距离:____m |
| 22 | 在 12 米位置,分别短按开关、模式+、模式-、亮度+、亮度-各 10 次 | 按键能可靠响应,不能依赖连续按两次或刻意延长短按时间;建议每个按键至少 9 次一次响应 | | |
| 23 | 改变遥控器朝向,在 12 米位置重复测试 | 不应频繁失控;正常手持方向下可以稳定操作 | | |
## 8. 模式顺序测试
先在 APP 中选择模式 1,然后使用遥控器“模式+”按顺序测试到模式 14,每个模式至少观察 20 秒。之后使用“模式-”从模式 14 反向测试回模式 1。
| 编号 | 测试操作 | 预期结果 | 结果 | 备注 |
| --- | --- | --- | --- | --- |
| M01 | APP 依次点击模式 1~14 | 实际效果与 APP 模式名称一致,顺序正确 | | |
| M02 | 从模式 1 开始,遥控短按“模式+”13次 | 严格按照 1→2→…→14 切换,每次只前进一个模式 | | |
| M03 | 在模式 14 再按“模式+” | 保持模式 14,不循环回模式 1 | | |
| M04 | 从模式 14 开始,遥控短按“模式-”13次 | 严格按照 14→13→…→1 返回,每次只后退一个模式 | | |
| M05 | 在模式 1 再按“模式-” | 保持模式 1,不跳转到模式 14 | | |
| M06 | 对比 APP 选中模式、灯光效果和遥控切换结果 | 三者始终对应,不出现错位一个模式的情况 | | |
| 模式 | 效果 | 主要检查内容 | 结果 |
| --- | --- | --- | --- |
| 1 | 暖光静态 | 暖光正确,亮度稳定 | |
| 2 | 冷光静态 | 冷光正确,亮度稳定 | |
| 3 | 中性光静态 | 两路混色正确,无抖动 | |
| 4 | 暖光呼吸 | 从低到高、再从高到低,过程柔和 | |
| 5 | 冷光呼吸 | 从低到高、再从高到低,过程柔和 | |
| 6 | 中性光呼吸 | 呼吸时间与单色接近,低亮度无明显抖动,峰值亮度正常 | |
| 7 | 三色呼吸 | 暖、冷、中性依次呼吸;上一颜色降到最低后下一颜色平滑升起 | |
| 8 | 暖冷连续渐变 | 暖光降低时冷光同步升高,全程不断光、无突然跳变 | |
| 9 | 暖冷中性渐变 | 暖、冷、中性过渡自然;颜色交接时不突然变黑或异常增亮 | |
| 10 | 暖光闪烁 | 只出现暖光,节奏稳定 | |
| 11 | 冷光闪烁 | 只出现冷光,节奏稳定 | |
| 12 | 中性光闪烁 | 只出现中性光,两路比例稳定 | |
| 13 | 暖冷中性跳变 | 暖、冷、中性直接切换,颜色正确,无多余低亮度闪光 | |
| 14 | 三色闪烁 | 暖、冷、中性按设计闪烁,无错误颜色 | |
补充检查:
| 编号 | 测试操作 | 预期结果 | 结果 | 备注 |
| --- | --- | --- | --- | --- |
| 24 | 在模式 1~3 之间切换 | 使用柔和过渡,不出现最后突然亮一下的现象 | | |
| 25 | 从静态模式切换到模式 4~7 | 呼吸从低亮度开始,不会直接从最高亮度开始 | | |
| 26 | 切换到模式 10~14 | 直接进入正确动态效果,不出现其他颜色或多余低亮度脉冲 | | |
| 27 | 在动态模式下调节亮度 | 动态效果整体亮度可以调节,变化正确 | | |
| 28 | 在动态模式下调节速度 1~10 | 速度变化明显且方向正确;APP 显示值与实际效果一致 | | |
| 29 | 遥控器长按模式+或模式- | 按下时先执行一次,持续按住时约每 500ms 切换一次,不快速乱跳 | | |
## 9. 掉电记忆
### 9.1 全部带记忆
在 APP“更多 → 断电设置”中选择“全部带记忆”。
| 编号 | 测试操作 | 预期结果 | 结果 | 备注 |
| --- | --- | --- | --- | --- |
| 30 | 设置任意静态颜色、亮度,等待 2 秒后断电重启 | 恢复断电前的颜色和亮度 | | |
| 31 | 设置任意动态模式、亮度和速度,等待 2 秒后断电重启 | 恢复断电前的模式、亮度和速度 | | |
| 32 | 关灯后等待 2 秒,再切断电源并重新上电 | 恢复关灯状态,不应自行亮起 | | |
| 33 | 在中性光状态下改变亮度、模式或断电设置 | 保存过程中灯光不闪烁、不熄灭,蓝牙连接不中断 | | |
### 9.2 断电切换功能
在 APP“更多 → 断电设置”中选择“断电切换功能”。
| 编号 | 测试操作 | 预期结果 | 结果 | 备注 |
| --- | --- | --- | --- | --- |
| 34 | 设置一个容易识别的亮度,连续断电上电 4 次 | 每次上电依次为:暖光 → 冷光 → 中性光 → 暖光 | | |
| 35 | 检查每次上电后的亮度 | 三种静态颜色均保留之前设置的亮度 | | |
| 36 | 在任意动态模式或自定义色温下断电,再上电 | 仍按暖光、冷光、中性光的固定顺序轮换,不受断电前模式影响 | | |
| 37 | 选择断电切换功能后断电重启多次 | 该设置本身被记忆,不会自动恢复为“全部带记忆” | | |
| 38 | 在 APP 中来回切换两种断电设置 | 切换时灯光不闪烁、不突变,蓝牙连接保持正常 | | |
## 10. 蓝牙控制
| 编号 | 测试操作 | 预期结果 | 结果 | 备注 |
| --- | --- | --- | --- | --- |
| 39 | 打开 APP 搜索设备 | 能发现名称为 `DWM22` 的设备 | | |
| 40 | 连接 DWM22 | 可以正常进入 DWM22 控制界面,连接稳定 | | |
| 41 | APP 控制开灯和关灯 | 灯具正确响应,APP 状态与灯具一致 | | |
| 42 | APP 将亮度从 1 调到 100,再调回 1 | 灯光变化平滑,最低亮度可正常显示,无明显抖动或顿挫 | | |
| 43 | APP 拖动色温环,从暖光连续调到冷光并往返 | 色温连续变化,采用柔和过渡,无黑场、突变或错误颜色 | | |
| 44 | APP 依次选择 14 个模式 | 灯具效果与 APP 名称、图标和选中状态一致 | | |
| 45 | APP 调节动态亮度和速度 1~10 | 实际亮度和速度正确变化,界面数值正确 | | |
| 46 | 使用遥控器改变开关、模式、亮度或速度 | APP 已显示的设备状态能同步更新,不出现明显错乱 | | |
| 47 | 设置 APP 定时关机 | 到达设定时间后灯具自动关闭 | | |
| 48 | 蓝牙连接中关闭手机蓝牙或让设备断电 | APP 自动退出设备控制页,不停留在失效界面 | | |
| 49 | 恢复设备电源和手机蓝牙后重新连接 | 可以再次发现并连接,所有控制恢复正常 | | |
| 50 | 蓝牙连接状态下连续操作 5 分钟 | 无断链、无卡死、无控制延迟持续增大,灯光无异常抖动 | | |
## 11. 测试结论
| 项目 | 结论 |
| --- | --- |
| 对码功能 | □ 通过 □ 失败 |
| 清码功能 | □ 通过 □ 失败 |
| 遥控距离大于 12m | □ 通过 □ 失败 |
| 掉电记忆 | □ 通过 □ 失败 |
| 模式与灯光效果 | □ 通过 □ 失败 |
| 蓝牙控制 | □ 通过 □ 失败 |
| 整机测试结论 | □ 合格 □ 不合格 |
问题记录:
1.
2.
3.
测试人员签名:________________  日期:________________
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@@ -340,6 +340,10 @@ __RAM_CODE static uint8_t xc_fmc_spi_flash_status(void)
return sta[1]; return sta[1];
} }
__RAM_CODE __WEAK void xc_fmc_spi_flash_busy_hook(void)
{
}
/** /**
**************************************************************************************** ****************************************************************************************
* @brief xc_fmc_spi_flash_wait_busy * @brief xc_fmc_spi_flash_wait_busy
@@ -354,8 +358,14 @@ __RAM_CODE static uint8_t xc_fmc_spi_flash_status(void)
*/ */
__RAM_CODE static void xc_fmc_spi_flash_wait_busy(void) __RAM_CODE static void xc_fmc_spi_flash_wait_busy(void)
{ {
while ((xc_fmc_spi_flash_status() & PUYA_FLASH_STATUS_WIP_SET)) for (;;) {
; xc_fmc_spi_flash_busy_hook();
if ((xc_fmc_spi_flash_status() &
PUYA_FLASH_STATUS_WIP_SET) == 0U)
break;
}
xc_fmc_spi_flash_busy_hook();
} }
/** /**
@@ -472,6 +482,30 @@ __RAM_CODE void xc_fmc_spi_flash_erase_page(uint32_t addr)
* @retval void * @retval void
**************************************************************************************** ****************************************************************************************
*/ */
__RAM_CODE void xc_fmc_spi_flash_write_16bytes(uint32_t addr, uint8_t *data)
{
uint8_t cmd[16 + 4] = {0};
xc_fmc_spi_flash_wait_busy();
xc_fmc_spi_flash_write_enable();
xc_fmc_spi_flash_wait_busy();
cmd[0] = CMD_PAGE_PROGRAM;
cmd[1] = addr >> 16;
cmd[2] = addr >> 8;
cmd[3] = addr;
ram_memcpy_bytes(&cmd[4], data, 16);
xc_fmc_status_wait_idle();
xc_fmc_spi_enable(FMC_SSI_CTRL0_DFS_LEN_32BIT);
xc_fmc_spi_write_nbyte(cmd, sizeof(cmd));
xc_fmc_spi_flash_wait_busy();
xc_fmc_spi_disable();
}
__RAM_CODE void xc_fmc_spi_flash_write_page(uint32_t addr, uint8_t *data, __RAM_CODE void xc_fmc_spi_flash_write_page(uint32_t addr, uint8_t *data,
uint16_t size) uint16_t size)
{ {
@@ -293,6 +293,7 @@ void xc_fmc_spi_flash_wait_busy(void);
void xc_fmc_spi_flash_write_enable(void); void xc_fmc_spi_flash_write_enable(void);
void xc_fmc_spi_flash_erase_sector(uint32_t addr); void xc_fmc_spi_flash_erase_sector(uint32_t addr);
void xc_fmc_spi_flash_erase_page(uint32_t addr); void xc_fmc_spi_flash_erase_page(uint32_t addr);
void xc_fmc_spi_flash_write_16bytes(uint32_t addr, uint8_t *data);
void xc_fmc_spi_flash_write_page(uint32_t addr, uint8_t *buff, void xc_fmc_spi_flash_write_page(uint32_t addr, uint8_t *buff,
uint16_t size); uint16_t size);
void xc_fmc_spi_flash_read_page(uint32_t addr, uint8_t *buff, void xc_fmc_spi_flash_read_page(uint32_t addr, uint8_t *buff,
@@ -121,6 +121,17 @@ void set_mode(){
{ {
Light_Transition_BeginModeChange(); Light_Transition_BeginModeChange();
} }
else if(choose_mode_falsg == CUSTOM_TEMPERATURE_MODE)
{
/*
* APP CCT packets can arrive continuously while the color
* ring is dragged. Restart the same 200 ms linear transition
* used by static mode changes from the current visible
* output, so the latest W/C target is followed without a
* discontinuity.
*/
Light_Transition_BeginModeChange();
}
else else
{ {
Light_Transition_ModeActive=0U; Light_Transition_ModeActive=0U;
@@ -147,6 +147,9 @@ void Bridge_Init(void);
void Bridge_Off(void); void Bridge_Off(void);
void Bridge_Service_1ms(void); void Bridge_Service_1ms(void);
void Bridge_Deadtime_Expired(void); void Bridge_Deadtime_Expired(void);
void Bridge_FlashBlank_Request(void);
uint8_t Bridge_FlashBlank_Ready(void);
void Bridge_FlashBlank_Resume(void);
#ifdef __cplusplus #ifdef __cplusplus
} }
#endif #endif
@@ -188,7 +188,10 @@ void scan_433();
void Lock_Pwm7xd(); void Lock_Pwm7xd();
void Delay_50us(); void Delay_50us();
void Encoder_key(); void Encoder_key();
void rf433_clear_code(void);
uint8_t rf433_start_pairing(void);
void rf433_cancel_pairing(void);
uint8_t rf433_paired_count(void);
#endif #endif
@@ -7,6 +7,8 @@
#include "light_transition.h" #include "light_transition.h"
#include "pwm.h" #include "pwm.h"
#include "rf433_decoder.h" #include "rf433_decoder.h"
#include "timeslice.h"
#include "usr_server.h"
union rf433_flag rf_flag = {0}; union rf433_flag rf_flag = {0};
unsigned char high_level_time; unsigned char high_level_time;
unsigned char low_level_time; unsigned char low_level_time;
@@ -17,6 +19,8 @@ uint32_t receive_data;
uint8_t res_data=255; //433返回的最后一个控制字节(低八位) uint8_t res_data=255; //433返回的最后一个控制字节(低八位)
static uint16_t long_time=0; //表示长按短按 该值一定要大与68,68是指68ms通过逻辑分析仪测量一帧433的时间
static uint16_t time_300ms=1; //表示:当长按的时候要300ms执行一次
static uint8_t POWER_flag; static uint8_t POWER_flag;
uint32_t flag_1h =0; uint32_t flag_1h =0;
@@ -93,22 +97,19 @@ static uint8_t pair_deferred_command;
static uint8_t pair_deferred_res_data; static uint8_t pair_deferred_res_data;
static uint32_t pair_deferred_receive_data; static uint32_t pair_deferred_receive_data;
static uint8_t pair_command_replay; static uint8_t pair_command_replay;
static uint8_t app_pairing_requested;
#define PAIR_HOLD_FRAME_COUNT 4U #define PAIR_HOLD_FRAME_COUNT 4U
#define PAIR_FRAME_SILENCE_TICKS 100U #define PAIR_FRAME_SILENCE_TICKS 100U
#define PAIRING_WINDOW_TICKS 50000UL #define PAIRING_WINDOW_TICKS 50000UL
#define RF433_RELEASE_TIMEOUT_TICKS 1500U
#define RF433_MS_TO_SAMPLE_TICKS(ms) ((uint16_t)((ms) * (1000U / RF433_DECODER_SAMPLE_US))) #define RF433_MS_TO_SAMPLE_TICKS(ms) ((uint16_t)((ms) * (1000U / RF433_DECODER_SAMPLE_US)))
#define RF433_HOLD_GAP_TICKS ((uint32_t)RF433_MS_TO_SAMPLE_TICKS(250U)) #define RF433_MODE_REPEAT_TICKS ((uint32_t)RF433_MS_TO_SAMPLE_TICKS(500U))
#define RF433_REPEAT_TICKS ((uint32_t)RF433_MS_TO_SAMPLE_TICKS(500U))
uint8_t long_flag_s=0; uint8_t long_flag_s=0;
static volatile uint32_t rf433_sample_ticks;
static volatile uint32_t rf_sample_ticks; static uint32_t rf433_mode_last_action_tick;
static uint16_t rf_dispatch_sequence; static uint8_t rf433_mode_last_key;
static uint32_t rf_hold_code; static uint8_t rf433_mode_action_valid;
static uint32_t rf_hold_last_frame_tick;
static uint32_t rf_hold_next_repeat_tick;
static uint8_t rf_hold_key;
static uint8_t rf_hold_active;
void _433_fun(void); void _433_fun(void);
@@ -259,11 +260,83 @@ static void Pairing_Candidate_Reset(void)
pair_deferred_command = 0U; pair_deferred_command = 0U;
} }
uint8_t rf433_paired_count(void)
{
uint8_t count = 0U;
uint8_t i;
for(i = 0U; i < 5U; i++)
{
if(!Pairing_Address_IsEmpty(adress_H_array[i], adress_L_array[i]))
count++;
}
return count;
}
uint8_t rf433_start_pairing(void)
{
if(pairing_feedback_active)
{
ble_remote_event_notify(0x0DU, 0U, rf433_paired_count());
return 0U;
}
ssse = 0U;
time_5s = 1U;
pair_last_frame_sequence = rf_frame_sequence;
Pairing_Candidate_Reset();
app_pairing_requested = 1U;
ble_remote_event_notify(0x0DU, 1U, rf433_paired_count());
return 1U;
}
void rf433_cancel_pairing(void)
{
ssse = 1U;
time_5s = PAIRING_WINDOW_TICKS + 1U;
Pairing_Candidate_Reset();
if(app_pairing_requested)
{
app_pairing_requested = 0U;
ble_remote_event_notify(0x0DU, 0U, rf433_paired_count());
}
}
void rf433_clear_code(void)
{
uint8_t i;
for(i = 0U; i < 5U; i++)
{
adress_H_array[i] = 0xffU;
adress_L_array[i] = 0xffU;
}
adress = 0U;
adress_H = 0U;
adress_L = 0U;
match_success = 0U;
ssse = 1U;
time_5s = PAIRING_WINDOW_TICKS + 1U;
Pairing_Candidate_Reset();
Pairing_Feedback_Start(200U);
app_pairing_requested = 0U;
set_TaskComps_timer(2U, 2000U);
ble_remote_event_notify(0x0EU, 1U, 0U);
}
static void Encoder_key_NoCode(){ static void Encoder_key_NoCode(){
uint16_t times_s=0; uint16_t times_s=0;
uint8_t pairing_data_changed=0U; uint8_t pairing_data_changed=0U;
if(app_pairing_requested &&
(ssse != 0U || time_5s > PAIRING_WINDOW_TICKS))
{
app_pairing_requested = 0U;
ble_remote_event_notify(0x0DU, 0U, rf433_paired_count());
}
if(pair_frame_silence_ticks < 0xffU) pair_frame_silence_ticks++; if(pair_frame_silence_ticks < 0xffU) pair_frame_silence_ticks++;
if(pair_frame_silence_ticks > PAIR_FRAME_SILENCE_TICKS) if(pair_frame_silence_ticks > PAIR_FRAME_SILENCE_TICKS)
@@ -363,6 +436,17 @@ static void Encoder_key_NoCode(){
ssse=1; ssse=1;
if(pairing_data_changed) set_TaskComps_timer(2,2000); if(pairing_data_changed) set_TaskComps_timer(2,2000);
if(app_pairing_requested)
{
app_pairing_requested = 0U;
if(res_data==Brightness_H ||
res_data==B_Brightness_H ||
res_data==F_Brightness_10)
ble_remote_event_notify(0x0DU, 2U,
rf433_paired_count());
else
ble_remote_event_notify(0x0EU, 1U, 0U);
}
} }
} }
@@ -378,6 +462,7 @@ static void Rf433_Decoder_Frame_Poll(void)
res_data = frame.key; res_data = frame.key;
rf_frame_sequence++; rf_frame_sequence++;
rf_flag.rf_receive_flag.receive_finish = 1U; rf_flag.rf_receive_flag.receive_finish = 1U;
long_time = RF433_RELEASE_TIMEOUT_TICKS;
} }
void Encoder_key(){ void Encoder_key(){
@@ -387,11 +472,84 @@ void Encoder_key(){
} }
typedef struct {
uint32_t KEY_STATE_Click; // 单击
uint32_t KEY_STATE_LONG_PRESS; // 长按
} _Key_TypeDef;
_Key_TypeDef Key_TypeDef={0,0};
uint32_t KEY_STATE_re=0; // 长按
//该函数选择那个按键为单击,哪个为长按按键
static void set_click(){
if(res_data==Mode_add||res_data==Mode_dow||res_data==F_ON_OFF||res_data==F_Mode_choose||res_data==ON||res_data==OFF){
Key_TypeDef.KEY_STATE_Click=1; //单击
}else{
Key_TypeDef.KEY_STATE_LONG_PRESS=1; //长按
KEY_STATE_re=1;
}
}
static uint8_t rf433_is_mode_step_command(uint8_t command)
{
return command == Mode_add || command == Mode_dow;
}
/*
* Act immediately on the first valid mode frame. Repeated frames carrying
* the same key are accepted at most once every 500 ms. Keep this independent
* from the generic 150 ms release detector so an occasional missing RF frame
* cannot turn one physical hold into several rapid short presses.
*/
static uint8_t rf433_mode_step_ready(uint8_t command)
{
uint32_t now = rf433_sample_ticks;
if(!rf433_mode_action_valid ||
rf433_mode_last_key != command ||
(uint32_t)(now - rf433_mode_last_action_tick) >=
RF433_MODE_REPEAT_TICKS)
{
rf433_mode_last_key = command;
rf433_mode_last_action_tick = now;
rf433_mode_action_valid = 1U;
return 1U;
}
return 0U;
}
void rf433_receive(void)//RF433 sample, called every 100 us void rf433_receive(void)//RF433 sample, called every 100 us
{ {
rf433_sample_ticks++;
rf433_decoder_sample((RF_DATA == HIGH_LEVEL) ? 1U : 0U); rf433_decoder_sample((RF_DATA == HIGH_LEVEL) ? 1U : 0U);
rf_sample_ticks++;
long_flag_s = 0U; if(long_time > 0U)
{
long_time--;
long_flag_s = 0U;
if(KEY_STATE_re == 1U)
{
if(time_300ms == 0U)
{
time_300ms = RF433_MS_TO_SAMPLE_TICKS(Short_time);
long_flag_s = 1U;
KEY_STATE_re = 0U;
}
else
{
time_300ms--;
}
}
}
else
{
time_300ms = RF433_MS_TO_SAMPLE_TICKS(LongPress_time);
long_flag_s = 0U;
Key_TypeDef.KEY_STATE_Click = 0U;
KEY_STATE_re = 0U;
}
if(time_5s <= PAIRING_WINDOW_TICKS) if(time_5s <= PAIRING_WINDOW_TICKS)
{ {
@@ -414,8 +572,15 @@ void _433_fun(){
pair_deferred_receive_data = receive_data; pair_deferred_receive_data = receive_data;
return; return;
} }
if(rf433_is_mode_step_command(res_data))
sss=1;//记忆标志位 {
if(!rf433_mode_step_ready(res_data)) return;
}
else
{
if(Key_TypeDef.KEY_STATE_Click==1||KEY_STATE_re==1) return;
set_click();
}
switch(res_data){ switch(res_data){
//椭圆 //椭圆
case ON://单击 case ON://单击
@@ -496,91 +661,33 @@ void _433_fun(){
} }
break; break;
} }
set_TaskComps_timer(2U, 1000U);
} }
//3748 //3748
static uint8_t Rf433_Address_Matched(uint32_t code)
{
uint8_t high = (uint8_t)((code >> 16) & 0xffU);
uint8_t low = (uint8_t)((code >> 8) & 0xffU);
uint8_t i;
if(match_success == 0U) return 1U;
for(i = 0U; i < 5U; i++)
{
if(adress_H_array[i] == high && adress_L_array[i] == low)
return 1U;
}
return 0U;
}
static uint8_t Rf433_Time_Reached(uint32_t now, uint32_t deadline)
{
return ((int32_t)(now - deadline) >= 0) ? 1U : 0U;
}
static void Rf433_Run_Command(uint32_t code, uint8_t key)
{
receive_data = code;
res_data = key;
_433_fun();
}
void scan_433(){ void scan_433(){
uint32_t now = rf_sample_ticks;
if(power==0){
if(power != 0U) return; if(rf_flag.rf_receive_flag.receive_finish==1){
if(match_success==1){
if(rf_hold_active && if((adress_H_array[0]==((receive_data >> 16) & 0xff)&&adress_L_array[0]==((receive_data >> 8) & 0xff))||
(uint32_t)(now - rf_hold_last_frame_tick) > RF433_HOLD_GAP_TICKS) (adress_H_array[1]==((receive_data >> 16) & 0xff)&&adress_L_array[1]==((receive_data >> 8) & 0xff))||
{ (adress_H_array[2]==((receive_data >> 16) & 0xff)&&adress_L_array[2]==((receive_data >> 8) & 0xff))||
rf_hold_active = 0U; (adress_H_array[3]==((receive_data >> 16) & 0xff)&&adress_L_array[3]==((receive_data >> 8) & 0xff))||
} (adress_H_array[4]==((receive_data >> 16) & 0xff)&&adress_L_array[4]==((receive_data >> 8) & 0xff))
){
if(rf_dispatch_sequence != rf_frame_sequence) _433_fun();
{ }
uint32_t code = receive_data; }else if(match_success==0){
uint8_t key = res_data; _433_fun();
uint32_t frame_gap = (uint32_t)(now - rf_hold_last_frame_tick); }
}
rf_dispatch_sequence = rf_frame_sequence; rf_flag.rf_receive_flag.receive_finish=0;
rf_flag.rf_receive_flag.receive_finish = 0U; }
if(!Rf433_Address_Matched(code))
{
rf_hold_active = 0U;
}
else if(key >= 16U)
{
/* Color-ring frames stay unthrottled for smooth sliding. */
rf_hold_active = 0U;
Rf433_Run_Command(code, key);
}
else if(!rf_hold_active || rf_hold_code != code ||
frame_gap > RF433_HOLD_GAP_TICKS)
{
/* The first valid frame is an immediate short-press action. */
rf_hold_active = 1U;
rf_hold_code = code;
rf_hold_key = key;
rf_hold_last_frame_tick = now;
rf_hold_next_repeat_tick = now + RF433_REPEAT_TICKS;
Rf433_Run_Command(code, key);
}
else
{
rf_hold_last_frame_tick = now;
}
}
if(rf_hold_active &&
(uint32_t)(now - rf_hold_last_frame_tick) <= RF433_HOLD_GAP_TICKS &&
Rf433_Time_Reached(now, rf_hold_next_repeat_tick))
{
Rf433_Run_Command(rf_hold_code, rf_hold_key);
rf_hold_next_repeat_tick = now + RF433_REPEAT_TICKS;
}
} }
@@ -57,6 +57,7 @@
#include "mode.h" #include "mode.h"
#include "RF433.h" #include "RF433.h"
#include "rf433_decoder.h" #include "rf433_decoder.h"
#include "external_key.h"
#include "rgblight.h" #include "rgblight.h"
#include "timer.h" #include "timer.h"
#include "fmc_spi.h" #include "fmc_spi.h"
@@ -389,7 +390,6 @@ int main(void)
#endif #endif
wdt_init();
/* Set the broadcast address of the device. */ /* Set the broadcast address of the device. */
board_init(); board_init();
xc_fmc_spi_init_oprt( ); xc_fmc_spi_init_oprt( );
@@ -397,6 +397,8 @@ int main(void)
fmc_spi_read(); fmc_spi_read();
power_restore_apply_on_boot(); power_restore_apply_on_boot();
/* Start the watchdog after the optional boot-time Flash update. */
wdt_init();
timer0_2_init(); timer0_2_init();
bluetooth_init(); bluetooth_init();
@@ -450,8 +452,11 @@ int main(void)
#endif #endif
// gpio_pullup_input_inter_test(); // gpio_pullup_input_inter_test();
adc_Init(); adc_Init();
rf433_decoder_init(); external_key_init();
/* Keep RF433 GPIO initialization after the other input setup. */
rf433_gpio_init(); rf433_gpio_init();
/* Clear any startup transition pulses after RF433 GPIO is stable. */
rf433_decoder_init();
while (1){ while (1){
//DEBUG("222\r\n"); //DEBUG("222\r\n");
//printf("ddd=%d---%d---%d\r\n",W_PWM_duty,C_PWM_duty,(2*deadTime)); //printf("ddd=%d---%d---%d\r\n",W_PWM_duty,C_PWM_duty,(2*deadTime));
@@ -54,9 +54,14 @@
#define BRIDGE_STAGE_START_C 4U #define BRIDGE_STAGE_START_C 4U
#define BRIDGE_STAGE_END_C 5U #define BRIDGE_STAGE_END_C 5U
#define BRIDGE_FLASH_BLANK_IDLE 0U
#define BRIDGE_FLASH_BLANK_REQUEST 1U
#define BRIDGE_FLASH_BLANK_READY 2U
static volatile uint8_t active_state; static volatile uint8_t active_state;
static volatile uint8_t output_mode; static volatile uint8_t output_mode;
static volatile uint8_t timer_stage; static volatile uint8_t timer_stage;
static volatile uint8_t flash_blank_state;
static volatile uint8_t pending_single_state; static volatile uint8_t pending_single_state;
static volatile uint16_t pending_single_duty; static volatile uint16_t pending_single_duty;
static volatile uint16_t frame_w_us; static volatile uint16_t frame_w_us;
@@ -212,6 +217,7 @@ void Bridge_Init(void)
NVIC_SetPriority((IRQn_Type)TIMER3_IRQn, 0); NVIC_SetPriority((IRQn_Type)TIMER3_IRQn, 0);
NVIC_EnableIRQ(TIMER3_IRQn); NVIC_EnableIRQ(TIMER3_IRQn);
flash_blank_state = BRIDGE_FLASH_BLANK_IDLE;
bridge_ready = 1U; bridge_ready = 1U;
Bridge_Off(); Bridge_Off();
} }
@@ -244,6 +250,57 @@ void Bridge_Off(void)
cached_c_mix = 0xFFFFU; cached_c_mix = 0xFFFFU;
bridge_force_off(); bridge_force_off();
output_mode = BRIDGE_MODE_OFF; output_mode = BRIDGE_MODE_OFF;
if (flash_blank_state == BRIDGE_FLASH_BLANK_REQUEST)
flash_blank_state = BRIDGE_FLASH_BLANK_READY;
}
void Bridge_FlashBlank_Request(void)
{
if (!bridge_ready ||
flash_blank_state != BRIDGE_FLASH_BLANK_IDLE)
return;
if (output_mode == BRIDGE_MODE_DUAL &&
timer_stage != BRIDGE_STAGE_IDLE) {
flash_blank_state = BRIDGE_FLASH_BLANK_REQUEST;
return;
}
flash_blank_state = BRIDGE_FLASH_BLANK_READY;
}
uint8_t Bridge_FlashBlank_Ready(void)
{
return (flash_blank_state == BRIDGE_FLASH_BLANK_READY) ? 1U : 0U;
}
void Bridge_FlashBlank_Resume(void)
{
if (flash_blank_state != BRIDGE_FLASH_BLANK_READY)
return;
flash_blank_state = BRIDGE_FLASH_BLANK_IDLE;
}
/*
* Flash page-program keeps global interrupts disabled. Poll Timer3 from the
* RAM-resident Flash busy loop so the software H-bridge frame continues.
*/
__RAM_CODE void xc_fmc_spi_flash_busy_hook(void)
{
if (!bridge_ready ||
(deviceStatus == POWEROFF && !Light_Transition_FadeActive) ||
output_mode != BRIDGE_MODE_DUAL ||
timer_stage < BRIDGE_STAGE_START_W ||
timer_stage > BRIDGE_STAGE_END_C)
return;
if (timer_tis_get(TIMER3_IDX) != 0U) {
NVIC_ClearPendingIRQ((IRQn_Type)TIMER3_IRQn);
(void)timer_tic_get(TIMER3_IDX);
Bridge_Deadtime_Expired();
}
} }
__RAM_CODE void Bridge_Deadtime_Expired(void) __RAM_CODE void Bridge_Deadtime_Expired(void)
@@ -260,6 +317,10 @@ __RAM_CODE void Bridge_Deadtime_Expired(void)
} }
if (timer_stage == BRIDGE_STAGE_START_W) { if (timer_stage == BRIDGE_STAGE_START_W) {
if (flash_blank_state == BRIDGE_FLASH_BLANK_REQUEST) {
flash_blank_state = BRIDGE_FLASH_BLANK_READY;
}
/* /*
* Latch all four durations together at the W boundary. A brightness * Latch all four durations together at the W boundary. A brightness
* update can then never mix old and new timings inside one frame. * update can then never mix old and new timings inside one frame.
@@ -355,6 +416,9 @@ __RAM_CODE void Bridge_Service_1ms(void)
uint16_t pwm_duty; uint16_t pwm_duty;
uint8_t single_state; uint8_t single_state;
if (flash_blank_state != BRIDGE_FLASH_BLANK_IDLE)
return;
if (!bridge_ready || if (!bridge_ready ||
(deviceStatus == POWEROFF && !Light_Transition_FadeActive)) { (deviceStatus == POWEROFF && !Light_Transition_FadeActive)) {
if (output_mode != BRIDGE_MODE_OFF || timer_stage != BRIDGE_STAGE_IDLE) { if (output_mode != BRIDGE_MODE_OFF || timer_stage != BRIDGE_STAGE_IDLE) {
@@ -457,15 +521,13 @@ __RAM_CODE void Bridge_Service_1ms(void)
pwm_duty = (uint16_t)((total * BRIDGE_PWM_SCALE + pwm_duty = (uint16_t)((total * BRIDGE_PWM_SCALE +
(BRIDGE_MIX_SCALE / 2U)) / BRIDGE_MIX_SCALE); (BRIDGE_MIX_SCALE / 2U)) / BRIDGE_MIX_SCALE);
/* /*
* A mixed H-bridge frame has 450 us of active time after deadtime. * Use the same 450 us maximum energy as mixed light for every
* Use the same 450/500 energy at both single-color endpoints of the * single-color output. Switching between the hardware-PWM and
* continuous gradient so its total brightness does not jump there. * Timer3 mixed-light paths therefore does not change total energy.
*/ */
if (Mode == mode3 && choose_mode_falsg == 7U) { pwm_duty = (uint16_t)(
pwm_duty = (uint16_t)( ((uint32_t)pwm_duty * BRIDGE_DUAL_ACTIVE_US +
((uint32_t)pwm_duty * BRIDGE_DUAL_ACTIVE_US + (BRIDGE_FRAME_US / 2U)) / BRIDGE_FRAME_US);
(BRIDGE_FRAME_US / 2U)) / BRIDGE_FRAME_US);
}
if (output_mode == BRIDGE_MODE_SINGLE && if (output_mode == BRIDGE_MODE_SINGLE &&
active_state == single_state && active_state == single_state &&
@@ -492,22 +554,8 @@ __RAM_CODE void Bridge_Service_1ms(void)
* split evenly between W->C and C->W, which both absorbs interrupt * split evenly between W->C and C->W, which both absorbs interrupt
* latency and spreads the two optical pulses across the 500 us frame. * latency and spreads the two optical pulses across the 500 us frame.
*/ */
if (Mode == mode3 && choose_mode_falsg == 8U) { total_on_us = (BRIDGE_DUAL_ACTIVE_US * total +
/* (BRIDGE_MIX_SCALE / 2U)) / BRIDGE_MIX_SCALE;
* The overlap gradient intentionally carries only 40% combined
* output through its crossover. Base that section on the complete
* 500 us frame so entering/leaving dual output does not create a
* 10% brightness step. The 450 us safety ceiling still applies.
*/
total_on_us = (BRIDGE_FRAME_US * total +
(BRIDGE_MIX_SCALE / 2U)) / BRIDGE_MIX_SCALE;
if (total_on_us > BRIDGE_DUAL_ACTIVE_US) {
total_on_us = BRIDGE_DUAL_ACTIVE_US;
}
} else {
total_on_us = (BRIDGE_DUAL_ACTIVE_US * total +
(BRIDGE_MIX_SCALE / 2U)) / BRIDGE_MIX_SCALE;
}
/* Keep a non-zero timer interval without imposing a brightness floor. */ /* Keep a non-zero timer interval without imposing a brightness floor. */
if (total_on_us < (2U * BRIDGE_MIN_DUAL_PULSE_US)) { if (total_on_us < (2U * BRIDGE_MIN_DUAL_PULSE_US)) {
total_on_us = 2U * BRIDGE_MIN_DUAL_PULSE_US; total_on_us = 2U * BRIDGE_MIN_DUAL_PULSE_US;
@@ -0,0 +1,278 @@
#include "external_key.h"
#include "xc_drv_gpio.h"
#include "Mode.h"
#include "PWM.h"
#include "RF433.h"
#include "timer.h"
#include "timeslice.h"
#define EXTERNAL_KEY_PIN GPIO_5
#define EXTERNAL_KEY_PRESSED_LEVEL GPIO_PIN_RESET
/* external_key_scan is called every 10 ms. */
#define EXT_KEY_DEBOUNCE_TICKS 2U
#define EXT_KEY_DOUBLE_TICKS 15U
#define EXT_KEY_LONG_TICKS 40U
#define EXT_KEY_BRIGHTNESS_STEP_TICKS 5U
#define EXT_KEY_SPEED_STEP_TICKS 15U
#define EXT_KEY_CLEAR_CODE_TICKS 3000U
#define EXT_KEY_BRIGHTNESS_STEP 3U
#define EXT_KEY_SPEED_STEP 1U
#define EXT_KEY_SAVE_DELAY_MS 1000U
typedef enum
{
EXT_KEY_IDLE = 0,
EXT_KEY_DOWN,
EXT_KEY_WAIT_SECOND,
EXT_KEY_SECOND_DOWN,
EXT_KEY_LONG
} EXT_KEY_STATE;
static EXT_KEY_STATE ext_key_state = EXT_KEY_IDLE;
static uint16_t ext_key_press_ticks;
static uint16_t ext_key_wait_ticks;
static uint16_t ext_key_step_ticks;
static uint8_t ext_key_direction_up = 1U;
static uint8_t ext_key_adjust_speed;
static uint8_t ext_key_clear_triggered;
static uint8_t external_key_is_pressed(void)
{
return xc_gpio_read_pin(EXTERNAL_KEY_PIN) ==
EXTERNAL_KEY_PRESSED_LEVEL;
}
static void external_key_save_later(void)
{
set_TaskComps_timer(2U, EXT_KEY_SAVE_DELAY_MS);
}
static void external_key_power_toggle(void)
{
if(deviceStatus == POWEROFF)
Start_PWM();
else
Stop_PWM();
external_key_save_later();
}
static void external_key_mode_next(void)
{
if(deviceStatus == POWEROFF)
Start_PWM();
if(choose_mode_falsg >= EFFECT_MODE_MAX)
choose_mode_falsg = EFFECT_MODE_MIN;
else
choose_mode_falsg++;
choose_mode_bh = 0U;
startTimer(&timer1, 1U);
external_key_save_later();
}
static void external_key_brightness_step(void)
{
if(ext_key_direction_up)
{
if(Brightness >=
(BRIGHTNESS_MAX_PERCENT - EXT_KEY_BRIGHTNESS_STEP))
Brightness = BRIGHTNESS_MAX_PERCENT;
else
Brightness += EXT_KEY_BRIGHTNESS_STEP;
}
else
{
if(Brightness <=
(BRIGHTNESS_MIN_PERCENT + EXT_KEY_BRIGHTNESS_STEP))
Brightness = BRIGHTNESS_MIN_PERCENT;
else
Brightness -= EXT_KEY_BRIGHTNESS_STEP;
}
}
static void external_key_speed_step(void)
{
/*
* A smaller Speed value is faster in the current effect tables.
* Keep the same direction convention used by DWM11.
*/
if(ext_key_direction_up)
{
if(Speed > SPEED_MIN_LEVEL)
Speed -= EXT_KEY_SPEED_STEP;
}
else
{
if(Speed < SPEED_MAX_LEVEL)
Speed += EXT_KEY_SPEED_STEP;
}
}
static void external_key_adjust_step(void)
{
if(deviceStatus == POWEROFF)
Start_PWM();
if(ext_key_adjust_speed)
external_key_speed_step();
else
external_key_brightness_step();
}
static void external_key_long_start(void)
{
ext_key_adjust_speed = (Mode == mode0) ? 0U : 1U;
ext_key_step_ticks = 0U;
external_key_adjust_step();
}
static void external_key_long_stop(void)
{
if(ext_key_clear_triggered)
{
ext_key_clear_triggered = 0U;
ext_key_adjust_speed = 0U;
return;
}
external_key_save_later();
ext_key_direction_up = ext_key_direction_up ? 0U : 1U;
ext_key_adjust_speed = 0U;
}
void external_key_init(void)
{
GPIO_InitCfg_t gpio_cfg = {0};
gpio_cfg.Mux = GPIO_Mux0;
gpio_cfg.FunSel = GPIO_Dx;
gpio_cfg.Pull = GPIO_PULLUP;
gpio_cfg.Dir = GPIO_DIR_INPUT;
gpio_cfg.Int = NOT_INT;
gpio_cfg.Pin = EXTERNAL_KEY_PIN;
xc_gpio_init(&gpio_cfg);
}
void external_key_scan(void)
{
uint8_t pressed = external_key_is_pressed();
uint16_t step_period;
switch(ext_key_state)
{
case EXT_KEY_IDLE:
if(pressed)
{
ext_key_press_ticks = 1U;
ext_key_step_ticks = 0U;
ext_key_clear_triggered = 0U;
ext_key_state = EXT_KEY_DOWN;
}
break;
case EXT_KEY_DOWN:
if(pressed)
{
if(ext_key_press_ticks < 0xFFFFU)
ext_key_press_ticks++;
if(ext_key_press_ticks >= EXT_KEY_LONG_TICKS)
{
external_key_long_start();
ext_key_state = EXT_KEY_LONG;
}
}
else
{
if(ext_key_press_ticks >= EXT_KEY_DEBOUNCE_TICKS)
{
ext_key_wait_ticks = 0U;
ext_key_state = EXT_KEY_WAIT_SECOND;
}
else
{
ext_key_state = EXT_KEY_IDLE;
}
}
break;
case EXT_KEY_WAIT_SECOND:
if(pressed)
{
ext_key_press_ticks = 1U;
ext_key_step_ticks = 0U;
ext_key_clear_triggered = 0U;
ext_key_state = EXT_KEY_SECOND_DOWN;
}
else
{
ext_key_wait_ticks++;
if(ext_key_wait_ticks >= EXT_KEY_DOUBLE_TICKS)
{
external_key_power_toggle();
ext_key_state = EXT_KEY_IDLE;
}
}
break;
case EXT_KEY_SECOND_DOWN:
if(pressed)
{
if(ext_key_press_ticks < 0xFFFFU)
ext_key_press_ticks++;
if(ext_key_press_ticks >= EXT_KEY_LONG_TICKS)
{
external_key_long_start();
ext_key_state = EXT_KEY_LONG;
}
}
else
{
if(ext_key_press_ticks >= EXT_KEY_DEBOUNCE_TICKS)
external_key_mode_next();
ext_key_state = EXT_KEY_IDLE;
}
break;
case EXT_KEY_LONG:
if(pressed)
{
if(ext_key_press_ticks < 0xFFFFU)
ext_key_press_ticks++;
if(!ext_key_clear_triggered &&
ext_key_press_ticks >= EXT_KEY_CLEAR_CODE_TICKS)
{
ext_key_clear_triggered = 1U;
rf433_clear_code();
}
else if(!ext_key_clear_triggered)
{
step_period = ext_key_adjust_speed ?
EXT_KEY_SPEED_STEP_TICKS :
EXT_KEY_BRIGHTNESS_STEP_TICKS;
ext_key_step_ticks++;
if(ext_key_step_ticks >= step_period)
{
ext_key_step_ticks = 0U;
external_key_adjust_step();
}
}
}
else
{
external_key_long_stop();
ext_key_state = EXT_KEY_IDLE;
}
break;
default:
ext_key_state = EXT_KEY_IDLE;
break;
}
}
@@ -0,0 +1,7 @@
#ifndef _EXTERNAL_KEY_H_
#define _EXTERNAL_KEY_H_
void external_key_init(void);
void external_key_scan(void);
#endif
@@ -33,6 +33,7 @@
#include "PWM.h" #include "PWM.h"
#include "RF433.h" #include "RF433.h"
#include "xc60xx.h" #include "xc60xx.h"
#include "timeslice.h"
/*------------------------------------------------------------------------------------ /*------------------------------------------------------------------------------------
Macros Macros
@@ -77,9 +78,11 @@ unsigned char get_checksum(unsigned char *ptrdata, unsigned char length)
#define FLASH_POWER_MODE_INDEX 28U #define FLASH_POWER_MODE_INDEX 28U
#define FLASH_POWER_CYCLE_INDEX 29U #define FLASH_POWER_CYCLE_INDEX 29U
#define FLASH_POWER_MODE_MARK 0xA7U #define FLASH_POWER_MODE_MARK 0xA7U
#define POWER_POLICY_SAVE_DELAY_MS 100U
#define USER_DATA_FLASH_ADDR 0x1E000UL
uint8_t power_restore_policy = POWER_RESTORE_CYCLE_STATIC; uint8_t power_restore_policy = POWER_RESTORE_CYCLE_STATIC;
static uint8_t power_cycle_next_color; static uint8_t power_cycle_next_mode;
void read_user_data(void) void read_user_data(void)
{ {
@@ -153,14 +156,14 @@ void read_user_data(void)
power_restore_policy = r_data[FLASH_POWER_MODE_INDEX]; power_restore_policy = r_data[FLASH_POWER_MODE_INDEX];
if(power_restore_policy > POWER_RESTORE_CYCLE_STATIC) if(power_restore_policy > POWER_RESTORE_CYCLE_STATIC)
power_restore_policy = POWER_RESTORE_CYCLE_STATIC; power_restore_policy = POWER_RESTORE_CYCLE_STATIC;
power_cycle_next_color = r_data[FLASH_POWER_CYCLE_INDEX]; power_cycle_next_mode = r_data[FLASH_POWER_CYCLE_INDEX];
if(power_cycle_next_color > 2U) if(power_cycle_next_mode > 2U)
power_cycle_next_color = 0U; power_cycle_next_mode = 0U;
} }
else else
{ {
power_restore_policy = POWER_RESTORE_CYCLE_STATIC; power_restore_policy = POWER_RESTORE_CYCLE_STATIC;
power_cycle_next_color = 0U; power_cycle_next_mode = 0U;
} }
//choose_mode_bh=r_data[31]; //choose_mode_bh=r_data[31];
driveMode=r_data[32]; driveMode=r_data[32];
@@ -210,7 +213,7 @@ void wright_user_data(void)
app_data[FLASH_MODE_LAYOUT_INDEX]=FLASH_MODE_LAYOUT_MARK; app_data[FLASH_MODE_LAYOUT_INDEX]=FLASH_MODE_LAYOUT_MARK;
app_data[FLASH_POWER_MODE_MARK_INDEX]=FLASH_POWER_MODE_MARK; app_data[FLASH_POWER_MODE_MARK_INDEX]=FLASH_POWER_MODE_MARK;
app_data[FLASH_POWER_MODE_INDEX]=power_restore_policy; app_data[FLASH_POWER_MODE_INDEX]=power_restore_policy;
app_data[FLASH_POWER_CYCLE_INDEX]=power_cycle_next_color; app_data[FLASH_POWER_CYCLE_INDEX]=power_cycle_next_mode;
app_data[30]=choose_mode_falsg; app_data[30]=choose_mode_falsg;
app_data[31]=choose_mode_bh; app_data[31]=choose_mode_bh;
app_data[32]=driveMode; app_data[32]=driveMode;
@@ -240,33 +243,37 @@ void power_restore_policy_set(uint8_t policy)
{ {
if(policy > POWER_RESTORE_CYCLE_STATIC) return; if(policy > POWER_RESTORE_CYCLE_STATIC) return;
if(policy == POWER_RESTORE_CYCLE_STATIC &&
power_restore_policy != POWER_RESTORE_CYCLE_STATIC)
power_cycle_next_mode = 0U;
if(policy == power_restore_policy) return;
power_restore_policy = policy; power_restore_policy = policy;
if(policy == POWER_RESTORE_CYCLE_STATIC) set_TaskComps_timer(2U, POWER_POLICY_SAVE_DELAY_MS);
power_cycle_next_color = 0U;
sss = 1U;
} }
void power_restore_apply_on_boot(void) void power_restore_apply_on_boot(void)
{ {
uint8_t color; uint8_t mode_index;
if(power_restore_policy != POWER_RESTORE_CYCLE_STATIC) return; if(power_restore_policy != POWER_RESTORE_CYCLE_STATIC) return;
color = power_cycle_next_color; mode_index = power_cycle_next_mode;
if(color > 2U) color = 0U; if(mode_index > 2U) mode_index = 0U;
deviceStatus = POWERON; deviceStatus = POWERON;
Mode = mode0; Mode = mode0;
choose_mode_falsg = color; choose_mode_falsg = mode_index;
choose_mode_bh = 0U; choose_mode_bh = 0U;
if(color == 0U) if(mode_index == 0U)
{ {
W_PWM = 100U; W_PWM = 100U;
C_PWM = 0U; C_PWM = 0U;
driveMode = 1U; driveMode = 1U;
} }
else if(color == 1U) else if(mode_index == 1U)
{ {
W_PWM = 0U; W_PWM = 0U;
C_PWM = 100U; C_PWM = 100U;
@@ -279,6 +286,12 @@ void power_restore_apply_on_boot(void)
driveMode = 0U; driveMode = 0U;
} }
power_cycle_next_color = (uint8_t)((color + 1U) % 3U); power_cycle_next_mode = (uint8_t)((mode_index + 1U) % 3U);
sss = 1U;
/*
* Cycle-static is also a remembered state. Start PWM, BLE and the
* H-bridge through the same path as full-memory restore, then persist
* the next static mode through the normal deferred Flash state machine.
*/
set_TaskComps_timer(2U, POWER_POLICY_SAVE_DELAY_MS);
} }
@@ -9,7 +9,11 @@ volatile uint32_t Light_Transition_C_Output_Q12;
#define BRIGHTNESS_SMOOTH_SHIFT 4U #define BRIGHTNESS_SMOOTH_SHIFT 4U
#define OUTPUT_SMOOTH_SHIFT 4U #define OUTPUT_SMOOTH_SHIFT 4U
#define MODE_TRANSITION_TICKS 40U #define MODE_TRANSITION_TICKS 100U
#define CCT_RING_TRANSITION_TICKS 40U
#define TRANSITION_CURVE_LINEAR 0U
#define TRANSITION_CURVE_GAMMA_S 1U
#define TRANSITION_CURVE_GAMMA_OUT 2U
#define LIGHT_OUTPUT_SCALE 1000U #define LIGHT_OUTPUT_SCALE 1000U
#define BREATH_MIN_OUTPUT (LIGHT_OUTPUT_SCALE / 100U) #define BREATH_MIN_OUTPUT (LIGHT_OUTPUT_SCALE / 100U)
#define DUAL_MIN_STABLE_CHANNEL_OUTPUT 102U #define DUAL_MIN_STABLE_CHANNEL_OUTPUT 102U
@@ -78,6 +82,29 @@ static const uint16_t power_fade_gamma_q12[101] = {
4096U 4096U
}; };
/*
* Symmetric Gamma 1.8 transition curve:
* q = p^1.8 / (p^1.8 + (1-p)^1.8)
*
* Unlike applying Gamma independently to W and C, q and (1-q) remain
* complementary. The transition therefore eases in and out without causing
* a brightness dip in the middle. A table keeps the 5 ms task free of
* floating-point and power calculations.
*/
static const uint16_t transition_gamma_s_q12[101] = {
0U, 1U, 4U, 8U, 13U, 20U, 29U, 39U, 50U, 63U,
77U, 93U, 110U, 130U, 150U, 173U, 197U, 223U, 251U, 281U,
312U, 345U, 381U, 418U, 457U, 498U, 541U, 586U, 633U, 681U,
732U, 784U, 839U, 895U, 953U, 1012U, 1073U, 1136U, 1200U, 1265U,
1332U, 1400U, 1469U, 1539U, 1610U, 1682U, 1754U, 1827U, 1901U, 1974U,
2048U, 2122U, 2195U, 2269U, 2342U, 2414U, 2486U, 2557U, 2627U, 2696U,
2764U, 2831U, 2896U, 2960U, 3023U, 3084U, 3143U, 3201U, 3257U, 3312U,
3364U, 3415U, 3463U, 3510U, 3555U, 3598U, 3639U, 3678U, 3715U, 3751U,
3784U, 3815U, 3845U, 3873U, 3899U, 3923U, 3946U, 3966U, 3986U, 4003U,
4019U, 4033U, 4046U, 4057U, 4067U, 4076U, 4083U, 4088U, 4092U, 4095U,
4096U
};
static uint16_t current_brightness_q12; static uint16_t current_brightness_q12;
static uint16_t power_fade_progress_q12; static uint16_t power_fade_progress_q12;
static uint16_t power_fade_remainder; static uint16_t power_fade_remainder;
@@ -86,6 +113,8 @@ static uint8_t transition_sync_pending;
static uint16_t mode_transition_start_w; static uint16_t mode_transition_start_w;
static uint16_t mode_transition_start_c; static uint16_t mode_transition_start_c;
static uint8_t mode_transition_tick; static uint8_t mode_transition_tick;
static uint8_t mode_transition_total_ticks;
static uint8_t mode_transition_gamma_curve;
static volatile uint8_t feedback_active; static volatile uint8_t feedback_active;
static volatile uint8_t feedback_on; static volatile uint8_t feedback_on;
@@ -153,24 +182,54 @@ static uint16_t approach_target(uint16_t current, uint16_t target)
return current - step; return current - step;
} }
static uint16_t transition_gamma_s_scale(uint8_t tick, uint8_t total_ticks)
{
uint16_t index;
if(total_ticks == 0U || tick >= total_ticks) return 4096U;
index = (uint16_t)(((uint16_t)tick * 100U +
(total_ticks / 2U)) / total_ticks);
if(index > 100U) index = 100U;
return transition_gamma_s_q12[index];
}
static uint16_t transition_gamma_out_scale(uint8_t tick, uint8_t total_ticks)
{
uint16_t index;
if(total_ticks == 0U || tick >= total_ticks) return 4096U;
index = (uint16_t)(((uint16_t)tick * 100U +
(total_ticks / 2U)) / total_ticks);
if(index > 100U) index = 100U;
return (uint16_t)(4096U - power_fade_gamma_q12[100U - index]);
}
static uint16_t interpolate_mode_output(uint16_t start, uint16_t target, static uint16_t interpolate_mode_output(uint16_t start, uint16_t target,
uint8_t tick) uint8_t tick)
{ {
uint32_t delta; uint32_t delta;
uint16_t progress_q12;
uint8_t total_ticks = mode_transition_total_ticks;
if(total_ticks == 0U || tick >= total_ticks) return target;
if(mode_transition_gamma_curve == TRANSITION_CURVE_GAMMA_S)
progress_q12 = transition_gamma_s_scale(tick, total_ticks);
else if(mode_transition_gamma_curve == TRANSITION_CURVE_GAMMA_OUT)
progress_q12 = transition_gamma_out_scale(tick, total_ticks);
else
progress_q12 = (uint16_t)(
((uint32_t)tick * 4096U + (total_ticks / 2U)) / total_ticks);
if(tick >= MODE_TRANSITION_TICKS) return target;
if(target >= start) if(target >= start)
{ {
delta = (uint32_t)(target - start) * tick; delta = (uint32_t)(target - start) * progress_q12;
return (uint16_t)(start + return (uint16_t)(start +
((delta + (MODE_TRANSITION_TICKS / 2U)) / ((delta + 2048U) >> 12));
MODE_TRANSITION_TICKS));
} }
delta = (uint32_t)(start - target) * tick; delta = (uint32_t)(start - target) * progress_q12;
return (uint16_t)(start - return (uint16_t)(start -
((delta + (MODE_TRANSITION_TICKS / 2U)) / ((delta + 2048U) >> 12));
MODE_TRANSITION_TICKS));
} }
static uint16_t effect_gamma_output(uint16_t level) static uint16_t effect_gamma_output(uint16_t level)
@@ -265,6 +324,16 @@ void Light_Transition_BeginModeChange(void)
mode_transition_start_w = W_PWM_duty; mode_transition_start_w = W_PWM_duty;
mode_transition_start_c = C_PWM_duty; mode_transition_start_c = C_PWM_duty;
mode_transition_tick = 0U; mode_transition_tick = 0U;
mode_transition_total_ticks =
(choose_mode_falsg == CUSTOM_TEMPERATURE_MODE)
? CCT_RING_TRANSITION_TICKS : MODE_TRANSITION_TICKS;
if(Mode == mode0 && choose_mode_falsg <= 2U)
mode_transition_gamma_curve = TRANSITION_CURVE_GAMMA_S;
else if(Mode == mode0 &&
choose_mode_falsg == CUSTOM_TEMPERATURE_MODE)
mode_transition_gamma_curve = TRANSITION_CURVE_GAMMA_OUT;
else
mode_transition_gamma_curve = TRANSITION_CURVE_GAMMA_S;
Light_Transition_ModeActive = 1U; Light_Transition_ModeActive = 1U;
} }
@@ -302,6 +371,7 @@ void Light_Transition_Task(void)
uint16_t weak_mix; uint16_t weak_mix;
uint16_t required_total; uint16_t required_total;
uint16_t floor_w; uint16_t floor_w;
uint16_t color_progress_q12;
uint32_t scaled_w_q12; uint32_t scaled_w_q12;
uint32_t scaled_c_q12; uint32_t scaled_c_q12;
uint8_t power_transitioning; uint8_t power_transitioning;
@@ -344,18 +414,28 @@ void Light_Transition_Task(void)
/* /*
* Continuous CCT uses one shared brightness envelope. Derive one * Continuous CCT uses one shared brightness envelope. Derive one
* side from the other so every visible step is strictly complementary * side from the other so every visible step is strictly complementary
* and W + C remains constant throughout the sweep. * and W + C remains constant throughout the sweep. Map the color
* position through the same symmetric Gamma curve used by static
* transitions so the ends of each sweep are also eased.
*/ */
target_total = (uint16_t)( target_total = (uint16_t)(
((uint32_t)LIGHT_OUTPUT_SCALE * brightness_scale + 2048U) >> 12); ((uint32_t)LIGHT_OUTPUT_SCALE * brightness_scale + 2048U) >> 12);
target_w = (uint16_t)( color_progress_q12 =
((uint32_t)target_total * W_PWM + 50U) / 100U); transition_gamma_s_q12[(C_PWM <= 100U) ? C_PWM : 100U];
if(target_w > target_total) target_c = (uint16_t)(
target_w = target_total; ((uint32_t)target_total * color_progress_q12 + 2048U) >> 12);
target_c = target_total - target_w; if(target_c > target_total)
target_c = target_total;
target_w = target_total - target_c;
} }
else if(Mode == mode1) else if(Mode == mode1 ||
(Mode == mode3 && choose_mode_falsg == 8U))
{ {
/*
* Breathing and overlap-gradient amplitudes are perceptual light
* transitions, so both use the Gamma table instead of raw linear
* channel levels. Jump/flash modes remain outside this branch.
*/
target_w = (uint16_t)( target_w = (uint16_t)(
((uint32_t)effect_gamma_output(W_PWM) * ((uint32_t)effect_gamma_output(W_PWM) *
brightness_scale + 2048U) >> 12); brightness_scale + 2048U) >> 12);
@@ -435,8 +515,10 @@ void Light_Transition_Task(void)
C_PWM_duty = C_PWM_duty =
interpolate_mode_output(mode_transition_start_c, target_c, interpolate_mode_output(mode_transition_start_c, target_c,
mode_transition_tick); mode_transition_tick);
if(mode_transition_tick >= MODE_TRANSITION_TICKS) if(mode_transition_tick >= mode_transition_total_ticks)
{
Light_Transition_ModeActive = 0U; Light_Transition_ModeActive = 0U;
}
} }
else if(((Mode == mode2 || Mode == mode3) && powered_on) || else if(((Mode == mode2 || Mode == mode3) && powered_on) ||
power_transitioning || power_transitioning ||
@@ -4,6 +4,14 @@
// extern uint8_t ble_flash_operation_can_check(void); // extern uint8_t ble_flash_operation_can_check(void);
#include "ota_protocol.h" #include "ota_protocol.h"
#include "fmc_spi.h" #include "fmc_spi.h"
#include "PWM.h"
#define USER_DATA_FLASH_ADDR 0x1E000UL
#define USER_FLASH_WRITE_CHUNKS 16U
#define USER_FLASH_CHUNK_GAP_MS 20U
static uint8_t user_flash_write_chunk;
static uint8_t user_flash_chunk_gap_ms;
op_flash_t op_flash = { op_flash_t op_flash = {
OP_IDEL, OP_IDEL,
}; };
@@ -62,9 +70,43 @@ void ble_flash_handle(void)
{ {
// LOGI("FMC_SPI_Flash_WritePage: op_flash.op_addr=%x\n", // LOGI("FMC_SPI_Flash_WritePage: op_flash.op_addr=%x\n",
// op_flash.op_addr); // op_flash.op_addr);
GLOBAL_INT_DISABLE(); if(op_flash.op_addr == USER_DATA_FLASH_ADDR)
FMC_SPI_Flash_WritePage(op_flash.op_addr, op_flash.op_buff, 256); {
GLOBAL_INT_RESTORE(); if(user_flash_chunk_gap_ms != 0U)
{
user_flash_chunk_gap_ms--;
return;
}
uint32_t chunk_offset =
(uint32_t)user_flash_write_chunk * 16U;
Bridge_FlashBlank_Request();
if(Bridge_FlashBlank_Ready() == 0U)
return;
GLOBAL_INT_DISABLE();
FMC_SPI_Flash_Write16Bytes(
op_flash.op_addr + chunk_offset,
&op_flash.op_buff[chunk_offset]);
GLOBAL_INT_RESTORE();
Bridge_FlashBlank_Resume();
user_flash_write_chunk++;
if(user_flash_write_chunk < USER_FLASH_WRITE_CHUNKS) {
user_flash_chunk_gap_ms = USER_FLASH_CHUNK_GAP_MS;
return;
}
user_flash_write_chunk = 0U;
user_flash_chunk_gap_ms = 0U;
}
else
{
GLOBAL_INT_DISABLE();
FMC_SPI_Flash_WritePage(op_flash.op_addr, op_flash.op_buff, 256);
GLOBAL_INT_RESTORE();
}
op_flash.op_state = OP_IDEL; op_flash.op_state = OP_IDEL;
app_op_flash_flag = 2; app_op_flash_flag = 2;
@@ -83,30 +125,40 @@ void ble_flash_handle(void)
} }
} else if (op_flash.op_state == OP_WIAT_PAGE_ERASE) { } else if (op_flash.op_state == OP_WIAT_PAGE_ERASE) {
{ {
if(op_flash.op_addr == USER_DATA_FLASH_ADDR) {
Bridge_FlashBlank_Request();
if(Bridge_FlashBlank_Ready() == 0U)
return;
}
GLOBAL_INT_DISABLE(); GLOBAL_INT_DISABLE();
FMC_SPI_Flash_Erase_Page(op_flash.op_addr); FMC_SPI_Flash_Erase_Page(op_flash.op_addr);
GLOBAL_INT_RESTORE(); GLOBAL_INT_RESTORE();
if(op_flash.op_addr == USER_DATA_FLASH_ADDR) {
Bridge_FlashBlank_Resume();
user_flash_write_chunk = 0U;
user_flash_chunk_gap_ms = 0U;
}
op_flash.op_state = OP_IDEL; op_flash.op_state = OP_IDEL;
app_op_flash_flag = 1; app_op_flash_flag = 1;
} }
} }
} }
uint8_t app_data[128] = {0}; uint8_t app_data[FLASH_PAGE_SIZE] = {0};
//uint16_t app_op_flash_start = 10000; //uint16_t app_op_flash_start = 10000;
void app_op_flash(void) void app_op_flash(void)
{ {
if(op_flash.op_state == OP_IDEL&&app_op_flash_flag ==0) if(op_flash.op_state == OP_IDEL && app_op_flash_flag == 0U)
{ {
ble_flash_later_page_erase(0x1E000); ble_flash_later_page_erase(USER_DATA_FLASH_ADDR);
} }
else if(op_flash.op_state == OP_IDEL &&app_op_flash_flag ==1) else if(op_flash.op_state == OP_IDEL && app_op_flash_flag == 1U)
{ {
ble_flash_later_write_page(app_data,0x1E000); ble_flash_later_write_page(app_data, USER_DATA_FLASH_ADDR);
}
}
} }
extern uint8_t aa; extern uint8_t aa;
@@ -7,7 +7,9 @@
#endif // (USE_ROM_FLASH) #endif // (USE_ROM_FLASH)
#endif // !(USE_XIP) #endif // !(USE_XIP)
#include <stdint.h> #include <stdint.h>
void xc_fmc_spi_flash_write_16bytes(uint32_t addr, uint8_t *data);
#define FMC_SPI_Flash_WritePage xc_fmc_spi_flash_write_page #define FMC_SPI_Flash_WritePage xc_fmc_spi_flash_write_page
#define FMC_SPI_Flash_Write16Bytes xc_fmc_spi_flash_write_16bytes
#define FMC_SPI_Flash_ReadPage xc_fmc_spi_flash_read_page #define FMC_SPI_Flash_ReadPage xc_fmc_spi_flash_read_page
#define FMC_SPI_Flash_Erase_Sector FMC_SPI_Flash_Erase_Sector #define FMC_SPI_Flash_Erase_Sector FMC_SPI_Flash_Erase_Sector
#define FMC_SPI_Flash_Erase_Page xc_fmc_spi_flash_erase_page #define FMC_SPI_Flash_Erase_Page xc_fmc_spi_flash_erase_page
@@ -42,5 +44,3 @@ int ble_flash_later_write_page(uint8_t *buff, uint32_t PageAddR);
int ble_flash_later_sector_erase(uint32_t addr); int ble_flash_later_sector_erase(uint32_t addr);
#endif // __OTA_FLASH_INTERFACE_H_ #endif // __OTA_FLASH_INTERFACE_H_
@@ -1,657 +1,179 @@
#include "rf433_decoder.h" #include "rf433_decoder.h"
#include "rf433_decoder_port.h" #include "rf433_decoder_port.h"
#define RF433_FIFO_SIZE 256u /*
* DWM11 fixed-width 24-bit RF433 decoder.
*
* The input is sampled every 100 us. A complete pulse pair is evaluated on
* each rising edge, exactly like the proven DWM11 implementation.
*/
#define RF433_SYNC_HIGH_MIN_EXCLUSIVE 1u
#define RF433_SYNC_HIGH_MAX_EXCLUSIVE 7u
#define RF433_SYNC_LOW_MIN_EXCLUSIVE 115u
#define RF433_SYNC_LOW_MAX_EXCLUSIVE 130u
#define RF433_SYNC_LOW_MIN 35u //45改35 #define RF433_ZERO_HIGH_MIN 1u
#define RF433_SYNC_LOW_MAX 200u //180改200 #define RF433_ZERO_HIGH_MAX 7u
#define RF433_SYNC_HIGH_MIN 1u #define RF433_ZERO_LOW_MIN 7u
#define RF433_SYNC_HIGH_MAX 15u //12改15 #define RF433_ZERO_LOW_MAX 16u
#define RF433_BIT_LEN 24u #define RF433_ONE_HIGH_MIN 7u
#define RF433_DIRECT_CONFIRM 1u #define RF433_ONE_HIGH_MAX 16u
#define RF433_WEAK_CONFIRM 2u #define RF433_ONE_LOW_MIN 2u
#define RF433_ONE_LOW_MAX 7u
#define RF433_LEVEL_TIMEOUT 300u //300 #define RF433_BIT_LEN 24u
#define RF433_BIT_TOTAL_MIN 3u //4改3
#define RF433_BIT_TOTAL_MAX 40u //35改40
#define RF433_PROCESS_MAX_ONCE 32u
#define RF433_FRAME_SCORE_DIRECT_MIN 50u
#define RF433_FRAME_SCORE_WEAK_MIN 35u
#define RF433_BIT_SCORE_GOOD 4u
#define RF433_BIT_SCORE_NORMAL 3u
#define RF433_BIT_SCORE_POOR 1u
#define RF433_WINDOW_TIGHT 0u
#define RF433_WINDOW_NORMAL 1u
#define RF433_WINDOW_LOOSE 2u
// 新增:连发屏蔽间隔(单位:100us采样tick,200=20ms内相同码只输出一次)
#define RF433_ANTI_REPEAT_TICK 200u
#if RF433_DECODER_DEBUG_DETAIL
#define RF433_DETAIL_LOG(fmt, ...) RF433_DECODER_LOG(fmt, ##__VA_ARGS__)
#else
#define RF433_DETAIL_LOG(fmt, ...)
#endif
typedef enum
{
RF433_STATE_IDLE = 0,
RF433_STATE_DATA,
} Rf433State_t;
typedef struct typedef struct
{ {
uint8_t level; volatile uint16_t high_ticks;
uint16_t width; volatile uint16_t low_ticks;
} Rf433Pulse_t; volatile uint8_t current_level;
volatile uint8_t sync_found;
typedef struct volatile uint8_t bit_count;
{ volatile uint32_t data;
volatile Rf433Pulse_t fifo[RF433_FIFO_SIZE]; volatile uint8_t frame_ready;
volatile uint16_t w;
volatile uint16_t r;
volatile uint16_t lost;
uint8_t last_level;
uint16_t width;
uint8_t inited;
} Rf433Fifo_t;
typedef struct
{
Rf433State_t state;
uint16_t last_high;
uint16_t last_low;
uint16_t t;
uint16_t short_min;
uint16_t short_max;
uint16_t long_min;
uint16_t long_max;
uint32_t data;
uint8_t bit_cnt;
uint8_t bit_score_sum;
uint8_t frame_score;
uint8_t ppl_locked;
uint8_t window_mode;
uint32_t last_code;
uint8_t same_cnt;
Rf433DecoderFrame_t frame; Rf433DecoderFrame_t frame;
bool frame_ready; } Rf433Dwm11Decoder_t;
} Rf433Decode_t;
static Rf433Fifo_t s_fifo; static Rf433Dwm11Decoder_t s_dec;
static Rf433Decode_t s_dec;
static uint16_t rf433_limit_t(uint16_t t) static void rf433_increment_saturated(volatile uint16_t *value)
{ {
if (t < 2u) if (*value < 0xffffu)
{ {
t = 2u; (*value)++;
}
if (t > 12u)
{
t = 12u;
}
return t;
}
static void rf433_update_range_by_t(uint16_t t)
{
t = rf433_limit_t(t);
s_dec.t = t;
if (s_dec.window_mode == RF433_WINDOW_TIGHT)
{
s_dec.short_min = 1u;
s_dec.short_max = (uint16_t)(t + t / 2u + 2u);
s_dec.long_min = (uint16_t)(t * 2u);
s_dec.long_max = (uint16_t)(t * 4u + 2u);
}
else if (s_dec.window_mode == RF433_WINDOW_LOOSE)
{
s_dec.short_min = 1u;
s_dec.short_max = (uint16_t)(t * 2u + 4u);
s_dec.long_min = (uint16_t)(t + t / 2u);
if (s_dec.long_min < 3u)
{
s_dec.long_min = 3u;
}
s_dec.long_max = (uint16_t)(t * 7u + 4u);
}
else
{
s_dec.short_min = 1u;
s_dec.short_max = (uint16_t)(t * 2u + 3u);
s_dec.long_min = (uint16_t)(t + t / 2u);
if (s_dec.long_min < 3u)
{
s_dec.long_min = 3u;
}
s_dec.long_max = (uint16_t)(t * 7u + 3u);
} }
} }
static void rf433_decode_reset(void) static uint8_t rf433_in_range(uint16_t value, uint16_t min, uint16_t max)
{ {
s_dec.state = RF433_STATE_IDLE; return (value >= min && value <= max) ? 1u : 0u;
s_dec.last_high = 0;
s_dec.last_low = 0;
s_dec.data = 0;
s_dec.bit_cnt = 0;
s_dec.bit_score_sum = 0;
s_dec.frame_score = 0;
s_dec.window_mode = RF433_WINDOW_NORMAL;
rf433_update_range_by_t(4u);
} }
static void rf433_debug_reset(const char *reason, uint16_t high, uint16_t low) static uint8_t rf433_is_sync(uint16_t high, uint16_t low)
{ {
RF433_DETAIL_LOG("[RF433 RESET] %s bits=%d high=%d low=%d data=0x%06X T=%d win=%d lost=%d\r\n", return (high > RF433_SYNC_HIGH_MIN_EXCLUSIVE &&
reason, high < RF433_SYNC_HIGH_MAX_EXCLUSIVE &&
s_dec.bit_cnt, low > RF433_SYNC_LOW_MIN_EXCLUSIVE &&
high, low < RF433_SYNC_LOW_MAX_EXCLUSIVE) ? 1u : 0u;
low, }
(unsigned int)s_dec.data,
s_dec.t, static void rf433_publish_frame(uint32_t code)
s_dec.window_mode, {
s_fifo.lost); s_dec.frame.code = code;
s_dec.frame.bit_len = RF433_BIT_LEN;
s_dec.frame.addr_h = (uint8_t)((code >> 16) & 0xffu);
s_dec.frame.addr_l = (uint8_t)((code >> 8) & 0xffu);
s_dec.frame.key = (uint8_t)(code & 0xffu);
s_dec.frame.score = 100u;
s_dec.frame_ready = 1u;
RF433_DECODER_LOG("[RF433 DWM11 OK] code=0x%06X key=0x%02X\r\n",
(unsigned int)code,
s_dec.frame.key);
}
static void rf433_decode_bit(uint8_t bit)
{
s_dec.data <<= 1;
if (bit != 0u)
{
s_dec.data |= 1u;
}
s_dec.bit_count++;
if (s_dec.bit_count >= RF433_BIT_LEN)
{
rf433_publish_frame(s_dec.data);
s_dec.sync_found = 0u;
s_dec.bit_count = 0u;
}
} }
void rf433_decoder_init(void) void rf433_decoder_init(void)
{ {
s_fifo.w = 0; s_dec.high_ticks = 0u;
s_fifo.r = 0; s_dec.low_ticks = 0u;
s_fifo.lost = 0; s_dec.current_level = 0u;
s_fifo.last_level = 0; s_dec.sync_found = 0u;
s_fifo.width = 0; s_dec.bit_count = 0u;
s_fifo.inited = 0; s_dec.data = 0u;
s_dec.frame_ready = 0u;
s_dec.last_code = 0;
s_dec.same_cnt = 0;
s_dec.frame_ready = false;
s_dec.ppl_locked = 0;
s_dec.window_mode = RF433_WINDOW_NORMAL;
rf433_decode_reset();
} }
void rf433_decoder_sample(uint8_t level) void rf433_decoder_sample(uint8_t level)
{ {
uint16_t next; uint16_t high;
Rf433Pulse_t pulse; uint16_t low;
level = level ? 1u : 0u; level = level ? 1u : 0u;
if (!s_fifo.inited) if (level == 0u)
{ {
s_fifo.last_level = level; rf433_increment_saturated(&s_dec.low_ticks);
s_fifo.width = 1; s_dec.current_level = 0u;
s_fifo.inited = 1;
return; return;
} }
if (level == s_fifo.last_level) rf433_increment_saturated(&s_dec.high_ticks);
if (s_dec.current_level == 0u)
{ {
if (s_fifo.width < 0xFFFFu) high = s_dec.high_ticks;
low = s_dec.low_ticks;
if (rf433_is_sync(high, low))
{ {
s_fifo.width++; s_dec.sync_found = 1u;
s_dec.bit_count = 0u;
s_dec.data = 0u;
} }
return; else if (s_dec.sync_found != 0u)
}
pulse.level = s_fifo.last_level;
pulse.width = s_fifo.width;
s_fifo.last_level = level;
s_fifo.width = 1;
next = (uint16_t)((s_fifo.w + 1u) % RF433_FIFO_SIZE);
if (next != s_fifo.r)
{
s_fifo.fifo[s_fifo.w] = pulse;
s_fifo.w = next;
}
else if (s_fifo.lost < 0xFFFFu)
{
s_fifo.lost++;
}
}
static bool rf433_fifo_pop(Rf433Pulse_t *pulse)
{
if (pulse == 0 || s_fifo.r == s_fifo.w)
{
return false;
}
*pulse = s_fifo.fifo[s_fifo.r];
s_fifo.r = (uint16_t)((s_fifo.r + 1u) % RF433_FIFO_SIZE);
return true;
}
static bool rf433_is_sync(uint16_t high, uint16_t low)
{
if (high == 0u || low == 0u)
{
return false;
}
if (high < RF433_SYNC_HIGH_MIN || high > RF433_SYNC_HIGH_MAX)
{
return false;
}
if (low < RF433_SYNC_LOW_MIN || low > RF433_SYNC_LOW_MAX)
{
return false;
}
if (low < (uint16_t)(high * 10u)) //12
{
return false;
}
return true;
}
static void rf433_ppl_update_by_sync(uint16_t sync_low)
{
uint16_t t_new = rf433_limit_t((uint16_t)(sync_low / 31u));
uint16_t t_filter;
if (s_dec.ppl_locked)
{
t_filter = (uint16_t)((s_dec.t * 7u + t_new) / 8u);
}
else
{
t_filter = (uint16_t)((s_dec.t * 3u + t_new) / 4u);
}
rf433_update_range_by_t(t_filter);
}
static void rf433_update_t_by_bit(uint16_t high, uint16_t low, uint8_t bit)
{
uint16_t t_new;
uint16_t t_filter;
if (bit == 0u)
{
t_new = (uint16_t)((high + low / 3u) / 2u);
}
else
{
t_new = (uint16_t)((high / 3u + low) / 2u);
}
t_new = rf433_limit_t(t_new);
if (s_dec.ppl_locked)
{
t_filter = (uint16_t)((s_dec.t * 7u + t_new) / 8u);
}
else
{
t_filter = (uint16_t)((s_dec.t * 3u + t_new) / 4u);
}
rf433_update_range_by_t(t_filter);
}
static bool rf433_is_short(uint16_t width)
{
return ((width >= s_dec.short_min) && (width <= s_dec.short_max));
}
static bool rf433_is_long(uint16_t width)
{
return ((width >= s_dec.long_min) && (width <= s_dec.long_max));
}
static bool rf433_total_valid(uint16_t high, uint16_t low)
{
uint16_t total = (uint16_t)(high + low);
return ((total >= RF433_BIT_TOTAL_MIN) && (total <= RF433_BIT_TOTAL_MAX));
}
static bool rf433_decode_bit(uint16_t high, uint16_t low, uint8_t *bit)
{
if (bit == 0 || !rf433_total_valid(high, low))
{
return false;
}
if (rf433_is_short(high) && rf433_is_long(low))
{
*bit = 0;
return true;
}
if (rf433_is_long(high) && rf433_is_short(low))
{
*bit = 1;
return true;
}
return false;
}
#if RF433_DECODER_DEBUG_DETAIL
static const char *rf433_bit_fail_reason(uint16_t high, uint16_t low)
{
if (!rf433_total_valid(high, low))
{
return "total";
}
if (!rf433_is_short(high) && !rf433_is_long(high))
{
return "high";
}
if (!rf433_is_short(low) && !rf433_is_long(low))
{
return "low";
}
return "pair";
}
#endif
static uint16_t rf433_abs_diff_u16(uint16_t a, uint16_t b)
{
return (a > b) ? (uint16_t)(a - b) : (uint16_t)(b - a);
}
static uint8_t rf433_score_bit(uint16_t high, uint16_t low, uint8_t bit)
{
uint16_t ideal_high;
uint16_t ideal_low;
uint16_t err;
if (bit == 0u)
{
ideal_high = s_dec.t;
ideal_low = (uint16_t)(s_dec.t * 3u);
}
else
{
ideal_high = (uint16_t)(s_dec.t * 3u);
ideal_low = s_dec.t;
}
err = (uint16_t)(rf433_abs_diff_u16(high, ideal_high) +
rf433_abs_diff_u16(low, ideal_low));
if (err <= 2u)
{
return RF433_BIT_SCORE_GOOD;
}
if (err <= 5u)
{
return RF433_BIT_SCORE_NORMAL;
}
return RF433_BIT_SCORE_POOR;
}
static uint8_t rf433_calc_frame_score(void)
{
uint16_t score;
if (s_dec.bit_cnt == 0u)
{
return 0u;
}
score = (uint16_t)s_dec.bit_score_sum * 100u;
score = score / (uint16_t)(RF433_BIT_LEN * RF433_BIT_SCORE_GOOD);
return (score > 100u) ? 100u : (uint8_t)score;
}
static void rf433_update_window_by_score(uint8_t score)
{
if (score >= 90u)
{
s_dec.window_mode = RF433_WINDOW_TIGHT;
s_dec.ppl_locked = 1u;
}
else if (score >= 60u)
{
s_dec.window_mode = RF433_WINDOW_NORMAL;
}
else
{
s_dec.window_mode = RF433_WINDOW_LOOSE;
s_dec.ppl_locked = 0u;
}
rf433_update_range_by_t(s_dec.t);
}
static void rf433_output_code(uint32_t code, uint8_t required_count)
{
if (code == s_dec.last_code)
{
if (s_dec.same_cnt < 255u)
{ {
s_dec.same_cnt++; if (rf433_in_range(high, RF433_ZERO_HIGH_MIN, RF433_ZERO_HIGH_MAX) &&
} rf433_in_range(low, RF433_ZERO_LOW_MIN, RF433_ZERO_LOW_MAX))
}
else
{
s_dec.last_code = code;
s_dec.same_cnt = 1;
}
RF433_DETAIL_LOG("[RF433 REPEAT] code=0x%06X same=%d/%d\r\n",
(unsigned int)code,
s_dec.same_cnt,
required_count);
if (s_dec.same_cnt >= required_count)
{
s_dec.frame.code = code;
s_dec.frame.bit_len = RF433_BIT_LEN;
s_dec.frame.addr_h = (uint8_t)((code >> 16) & 0xFFu);
s_dec.frame.addr_l = (uint8_t)((code >> 8) & 0xFFu);
s_dec.frame.key = (uint8_t)(code & 0xFFu);
s_dec.frame.score = s_dec.frame_score;
s_dec.frame_ready = true;
s_dec.same_cnt = 0;
RF433_DECODER_LOG("[RF433 OK] code=0x%06X addr_h=0x%02X addr_l=0x%02X key=0x%02X score=%d\r\n",
(unsigned int)s_dec.frame.code,
s_dec.frame.addr_h,
s_dec.frame.addr_l,
s_dec.frame.key,
s_dec.frame.score);
}
}
static void rf433_process_clean_pulse(Rf433Pulse_t pulse)
{
uint8_t bit;
uint8_t bit_score;
if (pulse.width == 0u)
{
return;
}
if (pulse.width > RF433_LEVEL_TIMEOUT)
{
rf433_debug_reset("timeout", s_dec.last_high, pulse.width);
rf433_decode_reset();
return;
}
if (pulse.level)
{
s_dec.last_high = pulse.width;
return;
}
s_dec.last_low = pulse.width;
if (rf433_is_sync(s_dec.last_high, s_dec.last_low))
{
s_dec.window_mode = s_dec.ppl_locked ? RF433_WINDOW_TIGHT : RF433_WINDOW_NORMAL;
rf433_ppl_update_by_sync(s_dec.last_low);
RF433_DETAIL_LOG("[RF433 SYNC] high=%d low=%d T=%d short=%d-%d long=%d-%d win=%d lock=%d\r\n",
s_dec.last_high,
s_dec.last_low,
s_dec.t,
s_dec.short_min,
s_dec.short_max,
s_dec.long_min,
s_dec.long_max,
s_dec.window_mode,
s_dec.ppl_locked);
s_dec.state = RF433_STATE_DATA;
s_dec.data = 0;
s_dec.bit_cnt = 0;
s_dec.bit_score_sum = 0;
s_dec.frame_score = 0;
s_dec.last_high = 0;
s_dec.last_low = 0;
return;
}
if (s_dec.state != RF433_STATE_DATA ||
s_dec.last_high == 0u ||
s_dec.last_low == 0u)
{
return;
}
if (rf433_decode_bit(s_dec.last_high, s_dec.last_low, &bit))
{
bit_score = rf433_score_bit(s_dec.last_high, s_dec.last_low, bit);
if (s_dec.bit_score_sum <= (uint8_t)(255u - bit_score))
{
s_dec.bit_score_sum += bit_score;
}
rf433_update_t_by_bit(s_dec.last_high, s_dec.last_low, bit);
s_dec.data <<= 1;
if (bit)
{
s_dec.data |= 1u;
}
s_dec.bit_cnt++;
RF433_DETAIL_LOG("[RF433 BIT] idx=%02d bit=%d high=%d low=%d score=%d T=%d data=0x%06X\r\n",
s_dec.bit_cnt,
bit,
s_dec.last_high,
s_dec.last_low,
bit_score,
s_dec.t,
(unsigned int)s_dec.data);
if (s_dec.bit_cnt >= RF433_BIT_LEN)
{
s_dec.frame_score = rf433_calc_frame_score();
rf433_update_window_by_score(s_dec.frame_score);
RF433_DECODER_LOG("[RF433 FRAME] score=%3d T=%2d win=%d lock=%d bits=%2d code=0x%06X addr_h=0x%02X addr_l=0x%02X key=0x%02X\r\n",
s_dec.frame_score,
s_dec.t,
s_dec.window_mode,
s_dec.ppl_locked,
s_dec.bit_cnt,
(unsigned int)s_dec.data,
(unsigned int)((s_dec.data >> 16) & 0xFFu),
(unsigned int)((s_dec.data >> 8) & 0xFFu),
(unsigned int)(s_dec.data & 0xFFu));
if (s_dec.frame_score >= RF433_FRAME_SCORE_DIRECT_MIN)
{ {
rf433_output_code(s_dec.data, RF433_DIRECT_CONFIRM); rf433_decode_bit(0u);
} }
else if (s_dec.frame_score >= RF433_FRAME_SCORE_WEAK_MIN) else if (rf433_in_range(high, RF433_ONE_HIGH_MIN, RF433_ONE_HIGH_MAX) &&
rf433_in_range(low, RF433_ONE_LOW_MIN, RF433_ONE_LOW_MAX))
{ {
rf433_output_code(s_dec.data, RF433_WEAK_CONFIRM); rf433_decode_bit(1u);
} }
else else
{ {
RF433_DECODER_LOG("[RF433 BAD] score=%d code=0x%06X\r\n", s_dec.sync_found = 0u;
s_dec.frame_score, s_dec.bit_count = 0u;
(unsigned int)s_dec.data); s_dec.data = 0u;
} }
rf433_decode_reset();
} }
s_dec.low_ticks = 0u;
s_dec.high_ticks = 1u;
} }
else
{ s_dec.current_level = 1u;
#if RF433_DECODER_DEBUG_DETAIL
RF433_DETAIL_LOG("[RF433 BIT_ERR] reason=%s idx=%02d high=%d low=%d total=%d T=%d short=%d-%d long=%d-%d data=0x%06X\r\n",
rf433_bit_fail_reason(s_dec.last_high, s_dec.last_low),
(uint8_t)(s_dec.bit_cnt + 1u),
s_dec.last_high,
s_dec.last_low,
(uint16_t)(s_dec.last_high + s_dec.last_low),
s_dec.t,
s_dec.short_min,
s_dec.short_max,
s_dec.long_min,
s_dec.long_max,
(unsigned int)s_dec.data);
#endif
rf433_debug_reset("bit", s_dec.last_high, s_dec.last_low);
rf433_decode_reset();
}
} }
void rf433_decoder_process(void) void rf433_decoder_process(void)
{ {
Rf433Pulse_t pulse; /* DWM11 decodes directly in the 100 us sampling callback. */
uint8_t cnt = 0;
while ((cnt < RF433_PROCESS_MAX_ONCE) && rf433_fifo_pop(&pulse))
{
rf433_process_clean_pulse(pulse);
cnt++;
}
} }
bool rf433_decoder_get_frame(Rf433DecoderFrame_t *frame) bool rf433_decoder_get_frame(Rf433DecoderFrame_t *frame)
{ {
if (frame == 0 || !s_dec.frame_ready) if (frame == 0 || s_dec.frame_ready == 0u)
{ {
return false; return false;
} }
*frame = s_dec.frame; *frame = s_dec.frame;
s_dec.frame_ready = false; s_dec.frame_ready = 0u;
return true; return true;
} }
uint16_t rf433_decoder_get_lost_count(void) uint16_t rf433_decoder_get_lost_count(void)
{ {
return s_fifo.lost; return 0u;
} }
@@ -13,8 +13,9 @@
#include "ota_flash_interface.h" #include "ota_flash_interface.h"
#include "ota_protocol.h" #include "ota_protocol.h"
#include "pwm.h" #include "pwm.h"
#include "light_transition.h" #include "light_transition.h"
#include "usr_server.h" #include "usr_server.h"
#include "external_key.h"
/*********************************************************************************************************************/ /*********************************************************************************************************************/
void rwip_schedule(void); void rwip_schedule(void);
@@ -26,13 +27,14 @@ TASK_COMPONENTS TaskComps[] =
{0,1,1,choice_mode}, {0,1,1,choice_mode},
{0,5,5,set_mode}, {0,5,5,set_mode},
{0,1,1,Set_timing}, {0,1,1,Set_timing},
{0,10,10,scan_433}, {0,100,100,scan_433},
{0,3,3,Encoder_key}, {0, 100,3, Encoder_key},
{0,1,1,My_ADC_Get_Value}, {0,1,1,My_ADC_Get_Value},
{0,50,50,ble_state_sync_poll}, {0,50,50,ble_state_sync_poll},
{0, 311, 1, app_op_flash}, //用户数据持久化 fmc_spi_read9 {0, 311, 1, app_op_flash}, //用户数据持久化 fmc_spi_read9
{0, 311, 1, xc_ota_schedule}, //保存flash数据任务 8 //最后调用的 {0, 311, 1, xc_ota_schedule}, //保存flash数据任务 8 //最后调用的
{0, 1, 1, rf433_decoder_process}, {0, 1, 1, rf433_decoder_process},
{0, 10, 10, external_key_scan}, //GPIO5 external key scan
}; };
/************************************************************************************** /**************************************************************************************
@@ -84,7 +84,6 @@ void uart_receive_cb(uint8_t *buff, uint16_t len)
void scan_uar_data(uint8_t *frame){ void scan_uar_data(uint8_t *frame){
} }
extern uint8_t sss;
uint8_t rx_date; uint8_t rx_date;
void scan_uart(uint8_t *arr) void scan_uart(uint8_t *arr)
{ {
@@ -106,8 +105,7 @@ void scan_uart(uint8_t *arr)
checksum += user_rx_buf[i]; checksum += user_rx_buf[i];
} }
user_rx_buf[5] = checksum; // 校验位 user_rx_buf[5] = checksum; // 校验位
sss=1; set_TaskComps_timer(2U, 1000U);
// printf("sss=%d\r\n",sss);
switch (user_rx_buf[4]) switch (user_rx_buf[4])
{ {
@@ -135,11 +133,13 @@ void scan_uart(uint8_t *arr)
break; break;
case 3: case 3:
if(POWEROFF==deviceStatus)break; if(POWEROFF==deviceStatus)break;
if(user_rx_buf[1] < BRIGHTNESS_MIN_PERCENT) if(Mode==mode0){
user_rx_buf[1] = BRIGHTNESS_MIN_PERCENT; if(user_rx_buf[1] < BRIGHTNESS_MIN_PERCENT)
else if(user_rx_buf[1] > BRIGHTNESS_MAX_PERCENT) user_rx_buf[1] = BRIGHTNESS_MIN_PERCENT;
user_rx_buf[1] = BRIGHTNESS_MAX_PERCENT; else if(user_rx_buf[1] > BRIGHTNESS_MAX_PERCENT)
Brightness = user_rx_buf[1]; user_rx_buf[1] = BRIGHTNESS_MAX_PERCENT;
Brightness = user_rx_buf[1];
}
break; break;
case 4: case 4:
if(POWEROFF==deviceStatus)break; if(POWEROFF==deviceStatus)break;
@@ -174,6 +174,17 @@ void scan_uart(uint8_t *arr)
case 12: case 12:
power_restore_policy_set(user_rx_buf[1]); power_restore_policy_set(user_rx_buf[1]);
break; break;
case 13:
if(user_rx_buf[1] == 0x01U)
rf433_start_pairing();
else
rf433_cancel_pairing();
break;
case 14:
/* A5 guard prevents accidental clear. */
if(user_rx_buf[1] == 0xA5U)
rf433_clear_code();
break;
case 9: case 9:
break; break;
@@ -102,6 +102,10 @@ static uint8_t ble_last_brightness;
static uint8_t ble_last_speed; static uint8_t ble_last_speed;
static uint8_t ble_last_temperature; static uint8_t ble_last_temperature;
static uint8_t ble_last_power_mode; static uint8_t ble_last_power_mode;
static volatile uint8_t ble_remote_event_pending;
static volatile uint8_t ble_remote_event_command;
static volatile uint8_t ble_remote_event_status;
static volatile uint8_t ble_remote_event_paired_count;
static uint8_t ble_temperature_value(void) static uint8_t ble_temperature_value(void)
{ {
@@ -112,10 +116,22 @@ static uint8_t ble_temperature_value(void)
void ble_state_disconnect(void) void ble_state_disconnect(void)
{ {
custom_svc_tx_char_notify = DISABLE; custom_svc_tx_char_notify = DISABLE;
ble_remote_event_pending = 0U;
send_flag = 1U; send_flag = 1U;
ble_state_dirty = BLE_STATE_DIRTY_ALL; ble_state_dirty = BLE_STATE_DIRTY_ALL;
} }
void ble_remote_event_notify(uint8_t command, uint8_t status,
uint8_t paired_count)
{
if(!custom_svc_tx_char_notify) return;
ble_remote_event_command = command;
ble_remote_event_status = status;
ble_remote_event_paired_count = paired_count;
ble_remote_event_pending = 1U;
}
void ble_state_sync_poll(void) void ble_state_sync_poll(void)
{ {
uint8_t data[4] = {0U, 0U, 0U, 0U}; uint8_t data[4] = {0U, 0U, 0U, 0U};
@@ -138,7 +154,24 @@ void ble_state_sync_poll(void)
if(power_restore_policy != ble_last_power_mode) if(power_restore_policy != ble_last_power_mode)
ble_state_dirty |= BLE_STATE_DIRTY_POWER_MODE; ble_state_dirty |= BLE_STATE_DIRTY_POWER_MODE;
if(!send_flag || !ble_state_dirty) return; if(!send_flag) return;
/*
* Remote pairing/clear acknowledgements have priority over periodic
* state synchronization so the APP receives operation results promptly.
*/
if(ble_remote_event_pending)
{
data[0] = ble_remote_event_status;
data[1] = ble_remote_event_paired_count;
data[3] = ble_remote_event_command;
if(slave_send_data(data, sizeof(data),
CUSTOM_SVC_TX_CHAR_VAL) == GATT_NO_ERROR)
ble_remote_event_pending = 0U;
return;
}
if(!ble_state_dirty) return;
if(ble_state_dirty & BLE_STATE_DIRTY_POWER) if(ble_state_dirty & BLE_STATE_DIRTY_POWER)
{ {
@@ -49,4 +49,6 @@ uint8_t custom_svc_add(void);
uint8_t slave_send_data(uint8_t *data, uint8_t len, uint8_t att_idx); uint8_t slave_send_data(uint8_t *data, uint8_t len, uint8_t att_idx);
void ble_state_sync_poll(void); void ble_state_sync_poll(void);
void ble_state_disconnect(void); void ble_state_disconnect(void);
void ble_remote_event_notify(uint8_t command, uint8_t status,
uint8_t paired_count);
#endif // _USR_SERVER_H_ #endif // _USR_SERVER_H_
@@ -1,6 +1,6 @@
LOAD 0x1100E000 LOAD 0x1100E000
{ {
EXE 0x1100E000 EXE 0x1100E000
{ {
startup_xinc.o (RESET, +FIRST) startup_xinc.o (RESET, +FIRST)
* (+RO) * (+RO)
File diff suppressed because it is too large Load Diff
@@ -22,44 +22,324 @@ Dialog DLL: TARMCM1.DLL V1.14.6.0
<h2>Project:</h2> <h2>Project:</h2>
D:\workplace\工作文件\程序\新向远XC6517蓝牙芯片\PWM32EPRO\project\example\ble\ble_peripheral\mdk\ble_peripheral.uvprojx D:\workplace\工作文件\程序\新向远XC6517蓝牙芯片\PWM32EPRO\project\example\ble\ble_peripheral\mdk\ble_peripheral.uvprojx
Project File Date: 07/26/2026 Project File Date: 07/29/2026
<h2>Output:</h2> <h2>Output:</h2>
*** Using Compiler 'V5.06 update 6 (build 750)', folder: 'D:\Program Files\Keil_v5\ARM\ARMCC\Bin' *** Using Compiler 'V5.06 update 6 (build 750)', folder: 'D:\Program Files\Keil_v5\ARM\ARMCC\Bin'
Build target 'ble-sdk-xip_scan' Build target 'ble-sdk-xip_scan'
Note: source file '..\app\src\uart.c' - object file renamed from '.\Objects\uart.o' to '.\Objects\uart_1.o'. Note: source file '..\app\src\uart.c' - object file renamed from '.\Objects\uart.o' to '.\Objects\uart_1.o'.
compiling light_transition.c... compiling external_key.c...
..\app\src\pwm.h(134): warning: #1295-D: Deprecated declaration _PWM_INIT - give arg types ..\app\src\Mode.h(43): warning: #1295-D: Deprecated declaration choice_mode - give arg types
void _PWM_INIT();
..\app\src\pwm.h(140): warning: #1295-D: Deprecated declaration adc_Init - give arg types
void adc_Init();
..\app\src\pwm.h(141): warning: #1295-D: Deprecated declaration My_ADC_Get_Value - give arg types
void My_ADC_Get_Value();
..\app\src\pwm.h(142): warning: #1295-D: Deprecated declaration gpio_pullup_input_inter_test - give arg types
void gpio_pullup_input_inter_test();
..\app\src\mode.h(39): warning: #1295-D: Deprecated declaration choice_mode - give arg types
void choice_mode(); void choice_mode();
..\app\src\mode.h(40): warning: #1295-D: Deprecated declaration set_mode - give arg types ..\app\src\Mode.h(44): warning: #1295-D: Deprecated declaration set_mode - give arg types
void set_mode(); void set_mode();
..\app\src\mode.h(41): warning: #1295-D: Deprecated declaration Start_PWM - give arg types ..\app\src\Mode.h(45): warning: #1295-D: Deprecated declaration Start_PWM - give arg types
void Start_PWM(); void Start_PWM();
..\app\src\mode.h(42): warning: #1295-D: Deprecated declaration Stop_PWM - give arg types ..\app\src\Mode.h(46): warning: #1295-D: Deprecated declaration Stop_PWM - give arg types
void Stop_PWM(); void Stop_PWM();
..\app\src\mode.h(43): warning: #1295-D: Deprecated declaration Set_timing - give arg types ..\app\src\Mode.h(47): warning: #1295-D: Deprecated declaration Set_timing - give arg types
void Set_timing(); void Set_timing();
..\app\src\light_transition.c: 9 warnings, 0 errors ..\app\src\PWM.h(137): warning: #1295-D: Deprecated declaration _PWM_INIT - give arg types
void _PWM_INIT();
..\app\src\PWM.h(143): warning: #1295-D: Deprecated declaration adc_Init - give arg types
void adc_Init();
..\app\src\PWM.h(144): warning: #1295-D: Deprecated declaration My_ADC_Get_Value - give arg types
void My_ADC_Get_Value();
..\app\src\PWM.h(145): warning: #1295-D: Deprecated declaration gpio_pullup_input_inter_test - give arg types
void gpio_pullup_input_inter_test();
..\app\src\RF433.h(185): warning: #1295-D: Deprecated declaration rf433_receive - give arg types
void rf433_receive();
..\app\src\RF433.h(186): warning: #1295-D: Deprecated declaration rf433_gpio_init - give arg types
void rf433_gpio_init();
..\app\src\RF433.h(187): warning: #1295-D: Deprecated declaration scan_433 - give arg types
void scan_433();
..\app\src\RF433.h(188): warning: #1295-D: Deprecated declaration Lock_Pwm7xd - give arg types
void Lock_Pwm7xd();
..\app\src\RF433.h(189): warning: #1295-D: Deprecated declaration Delay_50us - give arg types
void Delay_50us();
..\app\src\RF433.h(190): warning: #1295-D: Deprecated declaration Encoder_key - give arg types
void Encoder_key();
..\app\src\external_key.c: 15 warnings, 0 errors
compiling timer.c...
..\app\src\PWM.h(137): warning: #1295-D: Deprecated declaration _PWM_INIT - give arg types
void _PWM_INIT();
..\app\src\PWM.h(143): warning: #1295-D: Deprecated declaration adc_Init - give arg types
void adc_Init();
..\app\src\PWM.h(144): warning: #1295-D: Deprecated declaration My_ADC_Get_Value - give arg types
void My_ADC_Get_Value();
..\app\src\PWM.h(145): warning: #1295-D: Deprecated declaration gpio_pullup_input_inter_test - give arg types
void gpio_pullup_input_inter_test();
..\app\src\mode.h(43): warning: #1295-D: Deprecated declaration choice_mode - give arg types
void choice_mode();
..\app\src\mode.h(44): warning: #1295-D: Deprecated declaration set_mode - give arg types
void set_mode();
..\app\src\mode.h(45): warning: #1295-D: Deprecated declaration Start_PWM - give arg types
void Start_PWM();
..\app\src\mode.h(46): warning: #1295-D: Deprecated declaration Stop_PWM - give arg types
void Stop_PWM();
..\app\src\mode.h(47): warning: #1295-D: Deprecated declaration Set_timing - give arg types
void Set_timing();
..\app\src\RF433.h(185): warning: #1295-D: Deprecated declaration rf433_receive - give arg types
void rf433_receive();
..\app\src\RF433.h(186): warning: #1295-D: Deprecated declaration rf433_gpio_init - give arg types
void rf433_gpio_init();
..\app\src\RF433.h(187): warning: #1295-D: Deprecated declaration scan_433 - give arg types
void scan_433();
..\app\src\RF433.h(188): warning: #1295-D: Deprecated declaration Lock_Pwm7xd - give arg types
void Lock_Pwm7xd();
..\app\src\RF433.h(189): warning: #1295-D: Deprecated declaration Delay_50us - give arg types
void Delay_50us();
..\app\src\RF433.h(190): warning: #1295-D: Deprecated declaration Encoder_key - give arg types
void Encoder_key();
..\app\src\timer.c: 15 warnings, 0 errors
compiling fmc_spi.c...
..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_fmc_spi.h(230): warning: #47-D: incompatible redefinition of macro "CUR_PAGE_NUM" (declared at line 115 of "..\..\..\..\..\component\ble\modules\flash\xc6xxx_fmc_spi.h")
#define CUR_PAGE_NUM(addr) (addr / FLASH_PAGE_SIZE)
..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_fmc_spi.h(231): warning: #47-D: incompatible redefinition of macro "CUR_START_PSR" (declared at line 116 of "..\..\..\..\..\component\ble\modules\flash\xc6xxx_fmc_spi.h")
#define CUR_START_PSR(addr) (addr % FLASH_PAGE_SIZE)
..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_fmc_spi.h(237): warning: #47-D: incompatible redefinition of macro "FMC_IDLE_STATUS" (declared at line 78 of "..\..\..\..\..\component\ble\modules\flash\xc6xxx_fmc_spi.h")
#define FMC_IDLE_STATUS ((uint32_t)0x01 << 31)
..\app\src\mode.h(43): warning: #1295-D: Deprecated declaration choice_mode - give arg types
void choice_mode();
..\app\src\mode.h(44): warning: #1295-D: Deprecated declaration set_mode - give arg types
void set_mode();
..\app\src\mode.h(45): warning: #1295-D: Deprecated declaration Start_PWM - give arg types
void Start_PWM();
..\app\src\mode.h(46): warning: #1295-D: Deprecated declaration Stop_PWM - give arg types
void Stop_PWM();
..\app\src\mode.h(47): warning: #1295-D: Deprecated declaration Set_timing - give arg types
void Set_timing();
..\app\src\PWM.h(137): warning: #1295-D: Deprecated declaration _PWM_INIT - give arg types
void _PWM_INIT();
..\app\src\PWM.h(143): warning: #1295-D: Deprecated declaration adc_Init - give arg types
void adc_Init();
..\app\src\PWM.h(144): warning: #1295-D: Deprecated declaration My_ADC_Get_Value - give arg types
void My_ADC_Get_Value();
..\app\src\PWM.h(145): warning: #1295-D: Deprecated declaration gpio_pullup_input_inter_test - give arg types
void gpio_pullup_input_inter_test();
..\app\src\RF433.h(185): warning: #1295-D: Deprecated declaration rf433_receive - give arg types
void rf433_receive();
..\app\src\RF433.h(186): warning: #1295-D: Deprecated declaration rf433_gpio_init - give arg types
void rf433_gpio_init();
..\app\src\RF433.h(187): warning: #1295-D: Deprecated declaration scan_433 - give arg types
void scan_433();
..\app\src\RF433.h(188): warning: #1295-D: Deprecated declaration Lock_Pwm7xd - give arg types
void Lock_Pwm7xd();
..\app\src\RF433.h(189): warning: #1295-D: Deprecated declaration Delay_50us - give arg types
void Delay_50us();
..\app\src\RF433.h(190): warning: #1295-D: Deprecated declaration Encoder_key - give arg types
void Encoder_key();
..\app\src\fmc_spi.c(179): warning: #177-D: variable "i" was declared but never referenced
uint8_t i = 0;
..\app\src\fmc_spi.c(234): warning: #167-D: argument of type "uint8_t (*)[256]" is incompatible with parameter of type "uint8_t *"
xc_fmc_spi_flash_read_page(0x1E000,&r_data, FLASH_PAGE_SIZE);
..\app\src\fmc_spi.c: 20 warnings, 0 errors
compiling uart.c...
..\app\src\RF433.h(185): warning: #1295-D: Deprecated declaration rf433_receive - give arg types
void rf433_receive();
..\app\src\RF433.h(186): warning: #1295-D: Deprecated declaration rf433_gpio_init - give arg types
void rf433_gpio_init();
..\app\src\RF433.h(187): warning: #1295-D: Deprecated declaration scan_433 - give arg types
void scan_433();
..\app\src\RF433.h(188): warning: #1295-D: Deprecated declaration Lock_Pwm7xd - give arg types
void Lock_Pwm7xd();
..\app\src\RF433.h(189): warning: #1295-D: Deprecated declaration Delay_50us - give arg types
void Delay_50us();
..\app\src\RF433.h(190): warning: #1295-D: Deprecated declaration Encoder_key - give arg types
void Encoder_key();
..\app\src\pwm.h(137): warning: #1295-D: Deprecated declaration _PWM_INIT - give arg types
void _PWM_INIT();
..\app\src\pwm.h(143): warning: #1295-D: Deprecated declaration adc_Init - give arg types
void adc_Init();
..\app\src\pwm.h(144): warning: #1295-D: Deprecated declaration My_ADC_Get_Value - give arg types
void My_ADC_Get_Value();
..\app\src\pwm.h(145): warning: #1295-D: Deprecated declaration gpio_pullup_input_inter_test - give arg types
void gpio_pullup_input_inter_test();
..\app\src\mode.h(43): warning: #1295-D: Deprecated declaration choice_mode - give arg types
void choice_mode();
..\app\src\mode.h(44): warning: #1295-D: Deprecated declaration set_mode - give arg types
void set_mode();
..\app\src\mode.h(45): warning: #1295-D: Deprecated declaration Start_PWM - give arg types
void Start_PWM();
..\app\src\mode.h(46): warning: #1295-D: Deprecated declaration Stop_PWM - give arg types
void Stop_PWM();
..\app\src\mode.h(47): warning: #1295-D: Deprecated declaration Set_timing - give arg types
void Set_timing();
..\app\src\uart.c(153): warning: #223-D: function "temperature" declared implicitly
temperature(user_rx_buf[1]);
..\app\src\uart.c(90): warning: #177-D: variable "uart_handle" was declared but never referenced
uint8_t uart_handle = UART0_IDX;
..\app\src\uart.c(211): warning: #1-D: last line of file ends without a newline
..\app\src\uart.c: 18 warnings, 0 errors
compiling arch_main.c...
..\app\src\pwm.h(137): warning: #1295-D: Deprecated declaration _PWM_INIT - give arg types
void _PWM_INIT();
..\app\src\pwm.h(143): warning: #1295-D: Deprecated declaration adc_Init - give arg types
void adc_Init();
..\app\src\pwm.h(144): warning: #1295-D: Deprecated declaration My_ADC_Get_Value - give arg types
void My_ADC_Get_Value();
..\app\src\pwm.h(145): warning: #1295-D: Deprecated declaration gpio_pullup_input_inter_test - give arg types
void gpio_pullup_input_inter_test();
..\app\src\mode.h(43): warning: #1295-D: Deprecated declaration choice_mode - give arg types
void choice_mode();
..\app\src\mode.h(44): warning: #1295-D: Deprecated declaration set_mode - give arg types
void set_mode();
..\app\src\mode.h(45): warning: #1295-D: Deprecated declaration Start_PWM - give arg types
void Start_PWM();
..\app\src\mode.h(46): warning: #1295-D: Deprecated declaration Stop_PWM - give arg types
void Stop_PWM();
..\app\src\mode.h(47): warning: #1295-D: Deprecated declaration Set_timing - give arg types
void Set_timing();
..\app\src\RF433.h(185): warning: #1295-D: Deprecated declaration rf433_receive - give arg types
void rf433_receive();
..\app\src\RF433.h(186): warning: #1295-D: Deprecated declaration rf433_gpio_init - give arg types
void rf433_gpio_init();
..\app\src\RF433.h(187): warning: #1295-D: Deprecated declaration scan_433 - give arg types
void scan_433();
..\app\src\RF433.h(188): warning: #1295-D: Deprecated declaration Lock_Pwm7xd - give arg types
void Lock_Pwm7xd();
..\app\src\RF433.h(189): warning: #1295-D: Deprecated declaration Delay_50us - give arg types
void Delay_50us();
..\app\src\RF433.h(190): warning: #1295-D: Deprecated declaration Encoder_key - give arg types
void Encoder_key();
..\app\src\arch_main.c(163): warning: #223-D: function "xc_fmc_spi_init_oprt" declared implicitly
xc_fmc_spi_init_oprt();
..\app\src\arch_main.c(164): warning: #223-D: function "xc_fmc_spi_flash_wake_up" declared implicitly
xc_fmc_spi_flash_wake_up();
..\app\src\arch_main.c(166): warning: #223-D: function "xc_fmc_spi_flash_rdid" declared implicitly
xc_fmc_spi_flash_rdid((uint8_t *)&mid);
..\app\src\arch_main.c(171): warning: #223-D: function "xc_fmc_spi_flash_ruid" declared implicitly
xc_fmc_spi_flash_ruid(ruid);
..\app\src\arch_main.c(188): warning: #223-D: function "xc_unique_identification_read" declared implicitly
if (false == xc_unique_identification_read(co_default_bdaddr.addr)) {
..\app\src\arch_main.c(161): warning: #177-D: variable "flash_size" was declared but never referenced
uint32_t flash_size;
..\app\src\arch_main.c(162): warning: #177-D: variable "flash_type" was declared but never referenced
uint16_t flash_type;
..\app\src\arch_main.c(215): warning: #144-D: a value of type "uint32_t *" cannot be used to initialize an entity of type "uint8_t *"
uint8_t *ptr = (uint32_t *)(0x10000800);
..\app\src\arch_main.c(375): warning: #188-D: enumerated type mixed with another type
wdt_cfg.ReloadValue = WDT_CLK_32K_RESET_MODE0_8192MS;
..\app\src\arch_main.c(395): warning: #223-D: function "xc_fmc_spi_init_oprt" declared implicitly
xc_fmc_spi_init_oprt( );
..\app\src\arch_main.c(396): warning: #223-D: function "xc_fmc_spi_flash_wake_up" declared implicitly
xc_fmc_spi_flash_wake_up();
..\app\src\arch_main.c(463): warning: #223-D: function "TaskProcess" declared implicitly
TaskProcess();
..\app\src\arch_main.c: 27 warnings, 0 errors
compiling timeslice.c...
..\app\src\mode.h(43): warning: #1295-D: Deprecated declaration choice_mode - give arg types
void choice_mode();
..\app\src\mode.h(44): warning: #1295-D: Deprecated declaration set_mode - give arg types
void set_mode();
..\app\src\mode.h(45): warning: #1295-D: Deprecated declaration Start_PWM - give arg types
void Start_PWM();
..\app\src\mode.h(46): warning: #1295-D: Deprecated declaration Stop_PWM - give arg types
void Stop_PWM();
..\app\src\mode.h(47): warning: #1295-D: Deprecated declaration Set_timing - give arg types
void Set_timing();
..\app\src\RF433.h(185): warning: #1295-D: Deprecated declaration rf433_receive - give arg types
void rf433_receive();
..\app\src\RF433.h(186): warning: #1295-D: Deprecated declaration rf433_gpio_init - give arg types
void rf433_gpio_init();
..\app\src\RF433.h(187): warning: #1295-D: Deprecated declaration scan_433 - give arg types
void scan_433();
..\app\src\RF433.h(188): warning: #1295-D: Deprecated declaration Lock_Pwm7xd - give arg types
void Lock_Pwm7xd();
..\app\src\RF433.h(189): warning: #1295-D: Deprecated declaration Delay_50us - give arg types
void Delay_50us();
..\app\src\RF433.h(190): warning: #1295-D: Deprecated declaration Encoder_key - give arg types
void Encoder_key();
..\app\src\pwm.h(137): warning: #1295-D: Deprecated declaration _PWM_INIT - give arg types
void _PWM_INIT();
..\app\src\pwm.h(143): warning: #1295-D: Deprecated declaration adc_Init - give arg types
void adc_Init();
..\app\src\pwm.h(144): warning: #1295-D: Deprecated declaration My_ADC_Get_Value - give arg types
void My_ADC_Get_Value();
..\app\src\pwm.h(145): warning: #1295-D: Deprecated declaration gpio_pullup_input_inter_test - give arg types
void gpio_pullup_input_inter_test();
..\app\src\timeslice.c: 15 warnings, 0 errors
compiling Rf433.c...
..\app\src\RF433.h(185): warning: #1295-D: Deprecated declaration rf433_receive - give arg types
void rf433_receive();
..\app\src\RF433.h(186): warning: #1295-D: Deprecated declaration rf433_gpio_init - give arg types
void rf433_gpio_init();
..\app\src\RF433.h(187): warning: #1295-D: Deprecated declaration scan_433 - give arg types
void scan_433();
..\app\src\RF433.h(188): warning: #1295-D: Deprecated declaration Lock_Pwm7xd - give arg types
void Lock_Pwm7xd();
..\app\src\RF433.h(189): warning: #1295-D: Deprecated declaration Delay_50us - give arg types
void Delay_50us();
..\app\src\RF433.h(190): warning: #1295-D: Deprecated declaration Encoder_key - give arg types
void Encoder_key();
..\app\src\mode.h(43): warning: #1295-D: Deprecated declaration choice_mode - give arg types
void choice_mode();
..\app\src\mode.h(44): warning: #1295-D: Deprecated declaration set_mode - give arg types
void set_mode();
..\app\src\mode.h(45): warning: #1295-D: Deprecated declaration Start_PWM - give arg types
void Start_PWM();
..\app\src\mode.h(46): warning: #1295-D: Deprecated declaration Stop_PWM - give arg types
void Stop_PWM();
..\app\src\mode.h(47): warning: #1295-D: Deprecated declaration Set_timing - give arg types
void Set_timing();
..\app\src\pwm.h(137): warning: #1295-D: Deprecated declaration _PWM_INIT - give arg types
void _PWM_INIT();
..\app\src\pwm.h(143): warning: #1295-D: Deprecated declaration adc_Init - give arg types
void adc_Init();
..\app\src\pwm.h(144): warning: #1295-D: Deprecated declaration My_ADC_Get_Value - give arg types
void My_ADC_Get_Value();
..\app\src\pwm.h(145): warning: #1295-D: Deprecated declaration gpio_pullup_input_inter_test - give arg types
void gpio_pullup_input_inter_test();
..\app\src\Rf433.c(659): warning: #223-D: function "temperature" declared implicitly
temperature((uint8_t)(((uint16_t)(255U - res_data) * 255U + 119U) / 239U));
..\app\src\Rf433.c(24): warning: #177-D: variable "POWER_flag" was declared but never referenced
static uint8_t POWER_flag;
..\app\src\Rf433.c: 17 warnings, 0 errors
compiling Mode.c...
..\app\src\pwm.h(137): warning: #1295-D: Deprecated declaration _PWM_INIT - give arg types
void _PWM_INIT();
..\app\src\pwm.h(143): warning: #1295-D: Deprecated declaration adc_Init - give arg types
void adc_Init();
..\app\src\pwm.h(144): warning: #1295-D: Deprecated declaration My_ADC_Get_Value - give arg types
void My_ADC_Get_Value();
..\app\src\pwm.h(145): warning: #1295-D: Deprecated declaration gpio_pullup_input_inter_test - give arg types
void gpio_pullup_input_inter_test();
..\app\src\mode.h(43): warning: #1295-D: Deprecated declaration choice_mode - give arg types
void choice_mode();
..\app\src\mode.h(44): warning: #1295-D: Deprecated declaration set_mode - give arg types
void set_mode();
..\app\src\mode.h(45): warning: #1295-D: Deprecated declaration Start_PWM - give arg types
void Start_PWM();
..\app\src\mode.h(46): warning: #1295-D: Deprecated declaration Stop_PWM - give arg types
void Stop_PWM();
..\app\src\mode.h(47): warning: #1295-D: Deprecated declaration Set_timing - give arg types
void Set_timing();
..\app\src\RF433.h(185): warning: #1295-D: Deprecated declaration rf433_receive - give arg types
void rf433_receive();
..\app\src\RF433.h(186): warning: #1295-D: Deprecated declaration rf433_gpio_init - give arg types
void rf433_gpio_init();
..\app\src\RF433.h(187): warning: #1295-D: Deprecated declaration scan_433 - give arg types
void scan_433();
..\app\src\RF433.h(188): warning: #1295-D: Deprecated declaration Lock_Pwm7xd - give arg types
void Lock_Pwm7xd();
..\app\src\RF433.h(189): warning: #1295-D: Deprecated declaration Delay_50us - give arg types
void Delay_50us();
..\app\src\RF433.h(190): warning: #1295-D: Deprecated declaration Encoder_key - give arg types
void Encoder_key();
..\app\src\Mode.c: 15 warnings, 0 errors
linking... linking...
Program Size: Code=27716 RO-data=1380 RW-data=2740 ZI-data=3700 Program Size: Code=32588 RO-data=2208 RW-data=2828 ZI-data=3856
FromELF: creating hex file... FromELF: creating hex file...
After Build - User command #1: fromelf --bin --output=app.bin .\Objects\Xinc_ble_sdk.axf After Build - User command #1: fromelf --bin --output=app.bin .\Objects\Xinc_ble_sdk.axf
After Build - User command #2: .\output_tool\ge_ota_scan.bat After Build - User command #2: .\output_tool\ge_ota_scan.bat
Size of file: 29380 bytes. Size of file: 35064 bytes.
all_size=29380 all_size=35064
dual_xip dual_xip
Addr:13000 Addr:13000
Size:0x72c4 Size:0x88f8
BAddr:0x40000 BAddr:0x40000
Acheck:0x42b99760 Acheck:0xf227e680
SoftVer:0x10 SoftVer:0x10
RomVer:0x20 RomVer:0x20
LoadAddr:0x11013000 LoadAddr:0x11013000
@@ -87,7 +367,7 @@ status2=1
updata file success ! updata file success !
已复制 1 个文件。 已复制 1 个文件。
已复制 1 个文件。 已复制 1 个文件。
".\Objects\Xinc_ble_sdk.axf" - 0 Error(s), 9 Warning(s). ".\Objects\Xinc_ble_sdk.axf" - 0 Error(s), 142 Warning(s).
<h2>Software Packages used:</h2> <h2>Software Packages used:</h2>
@@ -100,7 +380,7 @@ Package Vendor: ARM
D:/Program Files/Keil_v5/ARM/Packs/ARM/CMSIS/5.9.0/Device/ARM/ARMCM0/Include D:/Program Files/Keil_v5/ARM/Packs/ARM/CMSIS/5.9.0/Device/ARM/ARMCM0/Include
<h2>Collection of Component Files used:</h2> <h2>Collection of Component Files used:</h2>
Build Time Elapsed: 00:00:07 Build Time Elapsed: 00:00:08
</pre> </pre>
</body> </body>
</html> </html>
File diff suppressed because it is too large Load Diff
File diff suppressed because it is too large Load Diff
@@ -42,9 +42,11 @@
".\objects\rgblight.o" ".\objects\rgblight.o"
".\objects\mode.o" ".\objects\mode.o"
".\objects\rf433.o" ".\objects\rf433.o"
".\objects\rf433_decoder.o"
".\objects\pwm.o" ".\objects\pwm.o"
".\objects\bridge_pwm.o" ".\objects\bridge_pwm.o"
".\objects\light_transition.o" ".\objects\light_transition.o"
".\objects\external_key.o"
".\objects\fmc_spi.o" ".\objects\fmc_spi.o"
--strict --scatter ".\Linker\cpu_xip_scan.scat" --strict --scatter ".\Linker\cpu_xip_scan.scat"
--feedback fb.txt --summary_stderr --info summarysizes --map --load_addr_map_info --xref --callgraph --symbols --feedback fb.txt --summary_stderr --info summarysizes --map --load_addr_map_info --xref --callgraph --symbols
Binary file not shown.
@@ -132,6 +132,8 @@
.\objects\arch_main.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\math.h .\objects\arch_main.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\math.h
.\objects\arch_main.o: ..\app\src\mode.h .\objects\arch_main.o: ..\app\src\mode.h
.\objects\arch_main.o: ..\app\src\RF433.h .\objects\arch_main.o: ..\app\src\RF433.h
.\objects\arch_main.o: ..\app\src\rf433_decoder.h
.\objects\arch_main.o: ..\app\src\external_key.h
.\objects\arch_main.o: ..\app\src\rgblight.h .\objects\arch_main.o: ..\app\src\rgblight.h
.\objects\arch_main.o: ..\app\src\timer.h .\objects\arch_main.o: ..\app\src\timer.h
.\objects\arch_main.o: ..\app\src\fmc_spi.h .\objects\arch_main.o: ..\app\src\fmc_spi.h
File diff suppressed because one or more lines are too long
@@ -0,0 +1,63 @@
.\objects\external_key.o: ..\app\src\external_key.c
.\objects\external_key.o: ..\app\src\external_key.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_gpio.h
.\objects\external_key.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\stdbool.h
.\objects\external_key.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\stdio.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc6xxx.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc60xx.h
.\objects\external_key.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\stdint.h
.\objects\external_key.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\string.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\core_cm0.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\core_cmInstr.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\core_cmFunc.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_conf.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_cpr.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_offset.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_cprao.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_rf.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_adc.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_aotimer.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc6xxx.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_dma.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_fmc.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_fmc_cache.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_gpio.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_i2c.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_qdec.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_pwm.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_pwm_comn.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_rtc.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\core_cm0.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_spi.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_timer.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_uart.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_wdt.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\CMSIS\Device\xc_m0_register\xc_reg_pwm_timer.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_calib.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_clock.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_systick.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_pwr.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_gpio.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_aotimer.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_timer.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_rtc.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_uart.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\ringbuffer.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_dma.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_spi.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_spi_dma.h
.\objects\external_key.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\stdlib.h
.\objects\external_key.o: ..\..\..\..\..\component\ble\modules\flash\xc6xxx_fmc_spi.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_fmc_spi_dma.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_uart_dma.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_i2c.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_sw_i2c.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_wdt.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_adc.h
.\objects\external_key.o: ..\..\..\..\..\component\xc6xx_drivers\Drivers\xc_driver\xc_drv_pwm.h
.\objects\external_key.o: ..\app\src\Mode.h
.\objects\external_key.o: ..\app\src\PWM.h
.\objects\external_key.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\math.h
.\objects\external_key.o: ..\app\src\RF433.h
.\objects\external_key.o: ..\app\src\timer.h
.\objects\external_key.o: ..\app\src\timeslice.h
@@ -60,3 +60,4 @@
.\objects\fmc_spi.o: ..\app\src\PWM.h .\objects\fmc_spi.o: ..\app\src\PWM.h
.\objects\fmc_spi.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\math.h .\objects\fmc_spi.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\math.h
.\objects\fmc_spi.o: ..\app\src\RF433.h .\objects\fmc_spi.o: ..\app\src\RF433.h
.\objects\fmc_spi.o: ..\app\src\timeslice.h
@@ -97,3 +97,5 @@
.\objects\ota_flash_interface.o: ..\..\..\..\..\component\ble\modules\dbg\api\dbg_trc.h .\objects\ota_flash_interface.o: ..\..\..\..\..\component\ble\modules\dbg\api\dbg_trc.h
.\objects\ota_flash_interface.o: ..\app\src\ota_protocol.h .\objects\ota_flash_interface.o: ..\app\src\ota_protocol.h
.\objects\ota_flash_interface.o: ..\app\src\fmc_spi.h .\objects\ota_flash_interface.o: ..\app\src\fmc_spi.h
.\objects\ota_flash_interface.o: ..\app\src\PWM.h
.\objects\ota_flash_interface.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\math.h
Binary file not shown.
@@ -58,5 +58,80 @@
.\objects\rf433.o: ..\app\src\uart.h .\objects\rf433.o: ..\app\src\uart.h
.\objects\rf433.o: ..\app\src\mode.h .\objects\rf433.o: ..\app\src\mode.h
.\objects\rf433.o: ..\app\src\timer.h .\objects\rf433.o: ..\app\src\timer.h
.\objects\rf433.o: ..\app\src\light_transition.h
.\objects\rf433.o: ..\app\src\pwm.h .\objects\rf433.o: ..\app\src\pwm.h
.\objects\rf433.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\math.h .\objects\rf433.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\math.h
.\objects\rf433.o: ..\app\src\rf433_decoder.h
.\objects\rf433.o: ..\app\src\timeslice.h
.\objects\rf433.o: ..\app\src\usr_server.h
.\objects\rf433.o: ..\app\api\app_task.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\common\api\co_bt_defines.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\dbg\api\dbg.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\rwip\api\rwip_config.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\ll\api\rwble_config.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\rwip\api\rwip_config.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\inc\rwble_hl_config.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\api\rwble_hl_error.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\inc\rwprf_config.h
.\objects\rf433.o: ..\app\api\rwapp_config.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\dbg\api\dbg_swdiag.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\dbg\api\dbg_trc.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\src\gap\gapm\gapm_int.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\api\gapm.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\api\gapm_msg.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\rwip\api\rwip_task.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\api\gap.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\common\api\co_bt.h
.\objects\rf433.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\stddef.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\common\api\co_lmp.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\common\api\co_bt.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\common\api\co_hci.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\common\api\co_error.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\common\api\co_list.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\ke\api\ke_task.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\ke\api\ke_msg.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\arch.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\ll\gnuarm\ll.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\arch.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\build\ble-full\reg\fw\reg_intc.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\build\ble-full\reg\fw\_reg_intc.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\driver\reg\reg_access.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\common\api\co_utils.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\rwip\api\rwip.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\em\api\em_map.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\common\api\co_math.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\build\ble-full\reg\fw\_reg_em_et.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\ll\api\em_map_ble.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\common\api\co_llcp.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\build\ble-full\reg\fw\_reg_em_ble_cs.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\build\ble-full\reg\fw\_reg_em_ble_tx_desc.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\build\ble-full\reg\fw\_reg_em_ble_rx_desc.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\build\ble-full\reg\fw\_reg_em_ble_rx_cte_desc.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\build\ble-full\reg\fw\_reg_em_ble_wpal.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\build\ble-full\reg\fw\_reg_em_ble_ral.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\src\gatt\gatt_msg_int.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\api\gatt.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\api\gatt_msg.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\api\l2cap.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\api\l2cap_msg.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\compiler\gnuarm\compiler.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\common\api\co_buf.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\modules\ke\api\ke_mem.h
.\objects\rf433.o: ..\app\src\ota_server.h
.\objects\rf433.o: ..\app\api\app_task.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\api\xc_gatt_server_api.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\src\gatt\gatt_db.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\api\xc_gap_api.h
.\objects\rf433.o: ..\..\..\..\..\component\ble\ip\ble\hl\api\gapc_msg.h
@@ -0,0 +1,5 @@
.\objects\rf433_decoder.o: ..\app\src\rf433_decoder.c
.\objects\rf433_decoder.o: ..\app\src\rf433_decoder.h
.\objects\rf433_decoder.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\stdbool.h
.\objects\rf433_decoder.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\stdint.h
.\objects\rf433_decoder.o: ..\app\src\rf433_decoder_port.h
@@ -60,6 +60,7 @@
.\objects\timeslice.o: ..\app\src\timer.h .\objects\timeslice.o: ..\app\src\timer.h
.\objects\timeslice.o: ..\app\src\mode.h .\objects\timeslice.o: ..\app\src\mode.h
.\objects\timeslice.o: ..\app\src\RF433.h .\objects\timeslice.o: ..\app\src\RF433.h
.\objects\timeslice.o: ..\app\src\rf433_decoder.h
.\objects\timeslice.o: ..\app\src\ota_flash_interface.h .\objects\timeslice.o: ..\app\src\ota_flash_interface.h
.\objects\timeslice.o: ..\app\src\ota_protocol.h .\objects\timeslice.o: ..\app\src\ota_protocol.h
.\objects\timeslice.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\arch.h .\objects\timeslice.o: ..\..\..\..\..\component\ble\plf\refip\src\arch\arch.h
@@ -137,3 +138,4 @@
.\objects\timeslice.o: ..\..\..\..\..\component\ble\ip\ble\hl\src\gatt\gatt_db.h .\objects\timeslice.o: ..\..\..\..\..\component\ble\ip\ble\hl\src\gatt\gatt_db.h
.\objects\timeslice.o: ..\..\..\..\..\component\ble\ip\ble\api\xc_gap_api.h .\objects\timeslice.o: ..\..\..\..\..\component\ble\ip\ble\api\xc_gap_api.h
.\objects\timeslice.o: ..\..\..\..\..\component\ble\ip\ble\hl\api\gapc_msg.h .\objects\timeslice.o: ..\..\..\..\..\component\ble\ip\ble\hl\api\gapc_msg.h
.\objects\timeslice.o: ..\app\src\external_key.h
@@ -63,3 +63,4 @@
.\objects\uart_1.o: ..\app\src\rgblight.h .\objects\uart_1.o: ..\app\src\rgblight.h
.\objects\uart_1.o: ..\app\src\mode.h .\objects\uart_1.o: ..\app\src\mode.h
.\objects\uart_1.o: ..\app\src\timeslice.h .\objects\uart_1.o: ..\app\src\timeslice.h
.\objects\uart_1.o: ..\app\src\fmc_spi.h
@@ -128,3 +128,4 @@
.\objects\usr_server.o: ..\app\src\Mode.h .\objects\usr_server.o: ..\app\src\Mode.h
.\objects\usr_server.o: ..\app\src\PWM.h .\objects\usr_server.o: ..\app\src\PWM.h
.\objects\usr_server.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\math.h .\objects\usr_server.o: D:\Program Files\Keil_v5\ARM\ARMCC\Bin\..\include\math.h
.\objects\usr_server.o: ..\app\src\fmc_spi.h

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