Merge branch 'master' of http://47.98.56.110:7001/lizhao/bci_algo

Decoder.py

@@ -1,6 +1,7 @@
 import ast
 import glob
 import os
+import sys
 import threading
 from datetime import datetime
 import multiprocessing as mp
@@ -10,7 +11,7 @@ import torch
 from queue import Empty
 from scipy import signal
 from torch.autograd import Variable
-from Device.SunnyLinker import SunnyLinker64
+# from Device.SunnyLinker import SunnyLinker64
 from SSMVEP.algorithm.tdca import TDCA
 from SSMVEP.algorithm.base import generate_cca_references
 from concentration.algorithm.calculate_focus import Calculate
@@ -19,49 +20,70 @@ from Zmq.zmqServer import zmqServer
 from Zmq.zmqClient import zmqClient
 from MI.Algorithm.conformer_2class import onlineTrain
 from PubLibrary.InifileHelper import IniRead
+from logs.log import algo_log
 from SSVEP.dwfbcca import FbccaDw
-from Tools.plot_MI_EEG import plotMain
+# from Tools.plot_MI_EEG import plotMain
 from collections import deque
 
-class Decoder_main(threading.Thread, device_type):
-    def __init__(self, device_type=None):
+
+def get_root_path():
+    """
+    Nuitka 打包专用：获取程序根目录（.py 或 .exe 所在目录）
+    """
+    if getattr(sys, 'frozen', False):
+        # 打包后：返回 exe 所在目录
+        return os.path.dirname(sys.executable)
+    else:
+        # 开发时：返回 py 文件所在目录
+        return os.path.dirname(os.path.abspath(__file__))
+MODEL_FOLDER = "online_Models"
+
+
+class Decoder_main(threading.Thread):
+    def __init__(self, device_info=None):
         threading.Thread.__init__(self)
+        self.device_info = {
+            'sample_rate': device_info['sample_rate'],
+            'frame_points': device_info['frame_points'],
+            'channel_nums': device_info['channel_nums'],
+            'channel_names': device_info['channel_names'],
+            'channel_index': device_info['channel_index'],
+        }
         self.Runing=True
         self.decoder = None
-
-        self.fs = 250  # 采样率
-        self.energy = 0  # 电量
-        self.status_code = 0  # 与采集设备通信的状态码，0为异常，1为正常
         self.decoder_class = None #解码器类别
 
+        # 与采集设备通信的状态码，0为异常，1为正常
+        # self.status_code = 0  
+        # self.device_info['sample_rate'] = 250  # 采样率
+        # self.energy = 0  # 电量
+
+
         self.decodingSteps = 0  # 0=停止解码 1=预热 2=解码中 3=解码完成，发送解码结果
-        self.device_info = {
-            'device_type': None,
-            'sample_rate': None,
-            'channel_num': None,
-        }
 
-    def connect(self, device_type=None, device_host=None, device_port=None, upper_host=None, upper_port=None):
-        self.DeviceType = device_type if device_type is not None else int(IniRead('system', 'Device_type'))
-        _device_host = device_host if device_host is not None else str(IniRead('system', 'Device_Host'))
-        _device_port = device_port if device_port is not None else int(IniRead('system', 'Device_Port'))
-        _upper_host = upper_host if upper_host is not None else str(IniRead('system', 'Upper_Host'))
-        _upper_port = upper_port if upper_port is not None else int(IniRead('system', 'Upper_Port'))
-
-        if self.DeviceType == 1:
-            self.thread_data_server = SunnyLinker64(_device_host, _device_port, self.fs, 64, method='tcp')
-            self.thread_data_server.host = _device_host
-            self.thread_data_server.port = _device_port
-
-        self.thread_data_server.toUv = True
-        self.thread_data_server.start()
-
-        self.zmqServer = zmqServer()
+        self.zmqServer = zmqServer(device_info=self.device_info)
         self.zmqServer.start()
 
-        self.zmqClient = zmqClient(_upper_host, _upper_port)
-        self.zmqClient.set_zmq_server(self.zmqServer)
-        self.zmqClient.connect()
+        # self.zmqClient = zmqClient(_upper_host, _upper_port)
+        # self.zmqClient.set_zmq_server(self.zmqServer)
+        # self.zmqClient.connect()
+
+
+    # def connect(self, device_type=None, device_host=None, device_port=None, upper_host=None, upper_port=None):
+    #     self.DeviceType = device_type if device_type is not None else int(IniRead('system', 'Device_type'))
+    #     _device_host = device_host if device_host is not None else str(IniRead('system', 'Device_Host'))
+    #     _device_port = device_port if device_port is not None else int(IniRead('system', 'Device_Port'))
+    #     _upper_host = upper_host if upper_host is not None else str(IniRead('system', 'Upper_Host'))
+    #     _upper_port = upper_port if upper_port is not None else int(IniRead('system', 'Upper_Port'))
+
+    #     if self.DeviceType == 1:
+    #         self.thread_data_server = SunnyLinker64(_device_host, _device_port, self.device_info['sample_rate'], 64, method='tcp')
+    #         self.thread_data_server.host = _device_host
+    #         self.thread_data_server.port = _device_port
+
+    #     self.thread_data_server.toUv = True
+    #     self.thread_data_server.start()
+
 
     def is_valid_signal(self, data, threshold=1e5):  # 判断当前信号是否为有效信号
         # data: (chans, samples)
@@ -78,26 +100,25 @@ class Decoder_main(threading.Thread, device_type):
         self.decoder_class = decoder_class
         if decoder_class == 'ssvep' or decoder_class == 'pvs':
             self.n_chan = 8
-            self.thread_data_server.interval_inited = False
+            # self.thread_data_server.interval_inited = False
             DW_cost_method, self.DW_cost_tv = ast.literal_eval(IniRead('system', 'SSVEP_ThresholdValue'))
             self.ListFreq = self.zmqServer.targetFreqs
             self.num_target = len(self.ListFreq)
             if self.num_target == 0:
                 return
             # 初始化对象 二代算法
-            self.dw = FbccaDw(self.fs, self.num_target, self.n_chan, 5, 5,
+            self.dw = FbccaDw(self.device_info['sample_rate'], self.num_target, self.n_chan, 5, 5,
                               0.2, [2.0, 0.1], [8, 7], 50, DW_cost_method)
             #  frequence band
             self.dw.filterFrequenceBank()
             self.dw.setNotchFilterPara()
             self.calculateCount = 0
-            self.referenceData = self.dw.reference(self.ListFreq, int(50 * 0.2 * self.fs),
-                                                   5)
+            self.referenceData = self.dw.reference(self.ListFreq, int(50 * 0.2 * self.device_info['sample_rate']), 5)
             self.dw.filterInit()
             self.dw.onlineInit()  # 刺激闪烁的第1s重置 --在线数据采集时
 
         elif decoder_class == 'ssmvep':
-            self.thread_data_server.interval_init(decoder_class)
+            self.zmqServer.interval_init(decoder_class)
             self.n_chan = 8
             self.interval_epoch = ast.literal_eval(IniRead('system', 'SSMVEP_IntervalEpoch'))
             self.sample_length = round(self.interval_epoch[1] - self.interval_epoch[0], 6)  # 解码数据长度2s,# 精确到小数点后6位
@@ -106,12 +127,12 @@ class Decoder_main(threading.Thread, device_type):
             self.list_freqs = np.array([8, 9])  # 刺激频率
             self.list_phase = np.array([0, 0])  # 相位
             self.tdca = TDCA(padding_len=5, n_components=1)
-            self.Yf = generate_cca_references(self.list_freqs, srate=self.fs, T=self.sample_length,
+            self.Yf = generate_cca_references(self.list_freqs, srate=self.device_info['sample_rate'], T=self.sample_length,
                                               phases=self.list_phase, n_harmonics=5)
             self.parameter_init(5,45)
 
         elif decoder_class == 'mi' or decoder_class == 'ma':
-            self.thread_data_server.interval_init(decoder_class)
+            self.zmqServer.interval_init(decoder_class)
             self.n_chan = 21
             self.interval_epoch = ast.literal_eval(IniRead('system', 'MI_IntervalEpoch'))
             self.sample_length = round(self.interval_epoch[1] - self.interval_epoch[0], 6)  # 解码数据长度2s,# 精确到小数点后6位
@@ -126,7 +147,7 @@ class Decoder_main(threading.Thread, device_type):
         #     self.win_len = 10
         #     self.win_step = 1
         #     self.low_threshold, self.high_threshold = ast.literal_eval(IniRead('system', 'concentration_ThresholdValue'))
-        #     self.calculate = Calculate(self.low_threshold, self.high_threshold, self.fs, self.win_len)
+        #     self.calculate = Calculate(self.low_threshold, self.high_threshold, self.device_info['sample_rate'], self.win_len)
         #     self.interval_epoch = [0, 1]
         #     self.parameter_init(2, 40)
         #     # self.eegQueue moved to Calculate class
@@ -138,8 +159,8 @@ class Decoder_main(threading.Thread, device_type):
         #     self.total_samples = 0  # 总采样点数
         #     self.window_ms = 600  # 检测窗口大小 (ms)
         #     self.step_ms = 100  # 滑动步长 (ms)
-        #     self.window_samples = int(self.window_ms * self.fs / 1000)  # 150个样本点
-        #     self.step_samples = int(self.step_ms * self.fs / 1000)  # 25个样本点
+        #     self.window_samples = int(self.window_ms * self.device_info['sample_rate'] / 1000)  # 150个样本点
+        #     self.step_samples = int(self.step_ms * self.device_info['sample_rate'] / 1000)  # 25个样本点
         #     self.buffer_size = self.window_samples + self.step_samples * 5
         #     self.fp1_buffer = deque(maxlen=self.buffer_size)
         #     self.fp2_buffer = deque(maxlen=self.buffer_size)
@@ -153,11 +174,11 @@ class Decoder_main(threading.Thread, device_type):
         #     self.double_blink_events = []  # 连续眨眼事件记录
         #     self.last_double_blink_time = 0  # 上次检测到连续眨眼的时间戳
         #     self.blink_events = []
-        #     self.blink_b, self.blink_a = signal.butter(4, [self.l_freq / (self.fs / 2), self.h_freq / (self.fs / 2)], btype='band')
+        #     self.blink_b, self.blink_a = signal.butter(4, [self.l_freq / (self.device_info['sample_rate'] / 2), self.h_freq / (self.device_info['sample_rate'] / 2)], btype='band')
 
     def parameter_init(self,bandPass_low,bandPass_high):
-        self.interval_epoch = [int(i * self.fs) for i in self.interval_epoch]  # epoch截取信息
-        self.train_epoch = [int(self.interval_epoch[0]), int(self.interval_epoch[1] + 0.1 * self.fs)]  # 训练样本epoch
+        self.interval_epoch = [int(i * self.device_info['sample_rate']) for i in self.interval_epoch]  # epoch截取信息
+        self.train_epoch = [int(self.interval_epoch[0]), int(self.interval_epoch[1] + 0.1 * self.device_info['sample_rate'])]  # 训练样本epoch
         self.trainData = [] #训练数据
         self.trainLabel = [] #训练标签
         self.plotData = [] #报告分析数据
@@ -165,10 +186,10 @@ class Decoder_main(threading.Thread, device_type):
         self.currentLabel = -1 #刺激界面当前显示的训练标签
         self.train_started = False #是否开始训练模型
         self.load_model = False  # 调用模型是否完成的标志
-        self.b_notch, self.a_notch = signal.iirnotch(50 / (self.fs/2), 30)  # 50Hz工频陷波，250是采样率，30是质量因子
-        self.b_design = signal.firwin(65, [bandPass_low / (self.fs/2), bandPass_high / (self.fs/2)], pass_zero=False)  # 设计8-30Hz带通滤波器
+        self.b_notch, self.a_notch = signal.iirnotch(50 / (self.device_info['sample_rate']/2), 30)  # 50Hz工频陷波，250是采样率，30是质量因子
+        self.b_design = signal.firwin(65, [bandPass_low / (self.device_info['sample_rate']/2), bandPass_high / (self.device_info['sample_rate']/2)], pass_zero=False)  # 设计8-30Hz带通滤波器
         fileName = 'Model_' + datetime.now().strftime('%Y-%m-%d-%H-%M-%S')
-        filePath = './online_Models/'
+        filePath = os.path.join(get_root_path(), MODEL_FOLDER) + os.sep
         for old_pth in glob.glob(os.path.join(filePath, '*.pth')):
             os.remove(old_pth)
         self.modelPath = ''.join([filePath, fileName, '.pth'])
@@ -196,54 +217,55 @@ class Decoder_main(threading.Thread, device_type):
 
             # 同步信息
             if self.zmqServer.state_mode == 'sync':
-                self.zmqClient.send_to_all('sync', self.zmqClient.state)
+                # self.zmqClient.send_to_all('sync', self.zmqClient.state)
                 self.zmqServer.state_mode = 'rest'
-            # 状态异常，报告上位机
-            if self.status_code != self.thread_data_server.status_code:
-                self.status_code = self.thread_data_server.status_code
-                self.zmqClient.send_to_all('status_code', int(self.status_code))
-                print('status code')
 
-            # 返回电量
-            if self.energy != self.thread_data_server.energy:
-                self.energy = self.thread_data_server.energy
-                self.zmqClient.send_to_all('energy', int(self.energy))
-                print('energy')
+            # # 状态异常，报告上位机
+            # if self.status_code != self.thread_data_server.status_code:
+            #     self.status_code = self.thread_data_server.status_code
+            #     self.zmqClient.send_to_all('status_code', int(self.status_code))
+            #     print('status code')
 
-            if self.zmqServer.open_Impedance == True:  # 开启阻抗检测功能，仅运行一次
-                self.thread_data_server.Impedance(True)
-                print('Impedance')
-                self.zmqServer.open_Impedance = -1
-            elif self.zmqServer.open_Impedance == False:
-                self.thread_data_server.Impedance(False)
-                self.zmqServer.open_Impedance = -1
+            # # 返回电量
+            # if self.energy != self.thread_data_server.energy:
+            #     self.energy = self.thread_data_server.energy
+            #     self.zmqClient.send_to_all('energy', int(self.energy))
+            #     print('energy')
 
-            if self.zmqServer.get_Impedance:  # 返回阻抗值
-                # print(self.zmqServer.get_Impedance)
-                # print(self.thread_data_server.GetDataLenCount())
-                if self.thread_data_server.GetDataLenCount() > 250:
-                    Impe_data = self.thread_data_server.getData(250)
-                    # 计算阻抗
-                    imps = self.thread_data_server.getImpedance(Impe_data,self.zmqServer.decoder_class)
-                    self.zmqClient.send_to_all('impedance', imps.tolist())
-                else:
-                    pass
-            if self.zmqServer.getReport:  #返回训练报告内容
-                self.zmqServer.getReport = False
-                allData = np.array(self.plotData)
-                allLabel = np.array(self.plotLabel) + 1
-                nTrials = min(len(allLabel),len(allData))
-                if nTrials < 30:
-                    self.zmqClient.send_to_all('miReport',0)
-                else:
-                    allData = allData[:nTrials]
-                    allLabel = allLabel[:nTrials]
-                    ch_names = ['FC3', 'FC1', 'FCZ', 'FC2', 'FC4', 'C5', 'C3', 'C1', 'CZ', 'C2', 'C4', 'C6', 'CP3', 'CP1',
-                                'CP2', 'CP4', 'P3', 'P1', 'PZ', 'P2', 'P4']
-                    compare_names = ['C3', 'CZ', 'C4']
-                    miReport = plotMain(ch_names=ch_names,compare_names=compare_names,Data=allData,labels=allLabel,MI_label=1,Rest_label=2,
-                             fs=self.fs)
-                    self.zmqClient.send_to_all('miReport',miReport)
+            # if self.zmqServer.open_Impedance == True:  # 开启阻抗检测功能，仅运行一次
+            #     self.thread_data_server.Impedance(True)
+            #     print('Impedance')
+            #     self.zmqServer.open_Impedance = -1
+            # elif self.zmqServer.open_Impedance == False:
+            #     self.thread_data_server.Impedance(False)
+            #     self.zmqServer.open_Impedance = -1
+
+            # if self.zmqServer.get_Impedance:  # 返回阻抗值
+            #     # print(self.zmqServer.get_Impedance)
+            #     # print(self.thread_data_server.GetDataLenCount())
+            #     if self.thread_data_server.GetDataLenCount() > 250:
+            #         Impe_data = self.thread_data_server.getData(250)
+            #         # 计算阻抗
+            #         imps = self.thread_data_server.getImpedance(Impe_data,self.zmqServer.decoder_class)
+            #         self.zmqClient.send_to_all('impedance', imps.tolist())
+            #     else:
+            #         pass
+            # if self.zmqServer.getReport:  #返回训练报告内容
+            #     self.zmqServer.getReport = False
+            #     allData = np.array(self.plotData)
+            #     allLabel = np.array(self.plotLabel) + 1
+            #     nTrials = min(len(allLabel),len(allData))
+            #     if nTrials < 30:
+            #         self.zmqClient.send_to_all('miReport',0)
+            #     else:
+            #         allData = allData[:nTrials]
+            #         allLabel = allLabel[:nTrials]
+            #         ch_names = ['FC3', 'FC1', 'FCZ', 'FC2', 'FC4', 'C5', 'C3', 'C1', 'CZ', 'C2', 'C4', 'C6', 'CP3', 'CP1',
+            #                     'CP2', 'CP4', 'P3', 'P1', 'PZ', 'P2', 'P4']
+            #         compare_names = ['C3', 'CZ', 'C4']
+            #         miReport = plotMain(ch_names=ch_names,compare_names=compare_names,Data=allData,labels=allLabel,MI_label=1,Rest_label=2,
+            #                  fs=self.device_info['sample_rate'])
+            #         self.zmqClient.send_to_all('miReport',miReport)
 
 
             # --- 取数优先：先执行 decoder（消费环形缓冲），再处理 plot/report 等重负载 ---
@@ -254,34 +276,33 @@ class Decoder_main(threading.Thread, device_type):
                     self.decoder_SSMVEP()
                 elif self.decoder_class == 'mi':
                     self.decoder_MI()
-                elif self.decoder_class == 'concentration':
-                    self.decoder_concentration()
-                elif self.decoder_class == 'blink':
-                    self.decoder_blink()
-                else:
-                    if self.zmqServer.get_Impedance == False:  # 非阻抗检测状态
-                        if self.thread_data_server.GetDataLenCount() < 25:
-                            time.sleep(0.005)
-                            continue;
-                        self.thread_data_server.getData(25)
+                # elif self.decoder_class == 'concentration':
+                #     self.decoder_concentration()
+                # elif self.decoder_class == 'blink':
+                #     self.decoder_blink()
+                # else:
+                #     self.
+                #     # if self.zmqServer.get_Impedance == False:  # 非阻抗检测状态
+                #     #     if self.thread_data_server.GetDataLenCount() < 25:
+                #     #         time.sleep(0.005)
+                #     #         continue;
+                #     #     self.thread_data_server.getData(25)
             except Exception as e:
-                print(f"Decoder Loop Error: {e}")
-                import traceback
-                traceback.print_exc()
+                algo_log(f"Decoder Loop Error: {e}")
                 time.sleep(0.1)  # Prevent CPU spin if error is persistent
 
     def decoder_SSVEP(self):
         if self.zmqServer.StartDecode:
             self.zmqServer.StartDecode = False
             self.decodingSteps = 1
-            self.thread_data_server.ResetAll()
+            self.zmqServer.paradigmBuffer.ResetAllPara()
             print('启动预测')
-        if self.thread_data_server.GetDataLenCount() < 50:
+        if self.zmqServer.paradigmBuffer.GetDataLenCount() < 50:
             time.sleep(0.005)
             return
         if self.zmqServer.get_Impedance != False:  # 阻抗检测状态不解码
             return
-        data = self.thread_data_server.getDataViaSSVEP(50)
+        data = self.zmqServer.paradigmBuffer.getDataViaSSVEP(50)
         data = data[:self.n_chan, :]
         if self.decodingSteps == 1 and hasattr(self,'dw'):  # 开始预热
             self.dw.onlineInit()  # 刺激闪烁的第1s重置 --在线数据采集时
@@ -297,7 +318,7 @@ class Decoder_main(threading.Thread, device_type):
                 print('预测结果：' + str(choosenNum) + ',计算次数：' + str(self.calculateCount))
                 self.calculateCount = 0
         if self.decodingSteps == 3:  # 发送解码后的信息
-            self.zmqClient.send_to_all('result', int(choosenNum))
+            self.zmqServer.broadcast_message('result', int(choosenNum))
             self.decodingSteps = 0
             print('发送给界面完成。')
 
@@ -316,19 +337,19 @@ class Decoder_main(threading.Thread, device_type):
             formatted_time = now.strftime('%H:%M:%S.%f')[:-3]
             print('模型训练完成', formatted_time)
             self.load_model = True
-            self.zmqClient.send_to_all('paradigm', 1)
+            self.zmqServer.broadcast_message('paradigm', 1)
 
         '''训练阶段采集数据'''
         if self.zmqServer.state_mode == 'train':  # 训练状态
             if self.zmqServer.StartTrain:
                 self.currentLabel = self.zmqServer.currentLabel
                 self.zmqServer.StartTrain = False
-            if self.thread_data_server.epoch_finished == False or self.thread_data_server.GetDataLenCount() < \
+            if self.thread_data_server.epoch_finished == False or self.zmqServer.paradigmBuffer.GetDataLenCount() < \
                     self.train_epoch[1] \
                     + self.thread_data_server.event_inner_idx:
                 time.sleep(0.0001)
                 return
-            print('训练队列数据：', self.thread_data_server.GetDataLenCount())
+            print('训练队列数据：', self.zmqServer.paradigmBuffer.GetDataLenCount())
             trainTrial = self.thread_data_server.get_SSMVEPData()  # 取出所有数据
             print('取出的： ', trainTrial.shape, 'event: ', trainTrial[-2, self.thread_data_server.event_inner_idx])
             trainTrial = self.preprocess(trainTrial[:self.n_chan, :])  # 预处理
@@ -352,7 +373,7 @@ class Decoder_main(threading.Thread, device_type):
                     formatted_time = now.strftime('%H:%M:%S.%f')[:-3]
                     print('启动预测  ', formatted_time)
 
-                if self.thread_data_server.epoch_finished == False or self.thread_data_server.GetDataLenCount() < \
+                if self.thread_data_server.epoch_finished == False or self.zmqServer.paradigmBuffer.GetDataLenCount() < \
                         self.interval_epoch[1] \
                         + self.thread_data_server.event_inner_idx:
                     time.sleep(0.0001)
@@ -364,8 +385,8 @@ class Decoder_main(threading.Thread, device_type):
                        self.thread_data_server.event_inner_idx + self.interval_epoch[
                            0]:self.thread_data_server.event_inner_idx + self.interval_epoch[1]]
                 pad_eeg_test = np.zeros(
-                    (data.shape[0], int((self.sample_length + 0.1) * self.fs)))
-                pad_eeg_test[:, :int(self.sample_length * self.fs)] = data
+                    (data.shape[0], int((self.sample_length + 0.1) * self.device_info['sample_rate'])))
+                pad_eeg_test[:, :int(self.sample_length * self.device_info['sample_rate'])] = data
                 choosenNum, features_2 = self.decoder.predict(pad_eeg_test)
                 if isinstance(choosenNum, np.ndarray):
                     choosenNum = choosenNum[0]
@@ -375,7 +396,7 @@ class Decoder_main(threading.Thread, device_type):
                 print('发送给界面完成。')
         else:  # 休息状态
             if self.zmqServer.get_Impedance == False:  # 非阻抗检测状态
-                if self.thread_data_server.GetDataLenCount() < 25:
+                if self.zmqServer.paradigmBuffer.GetDataLenCount() < 25:
                     time.sleep(0.005)
                     return 
                 self.thread_data_server.getData(25)
@@ -423,12 +444,12 @@ class Decoder_main(threading.Thread, device_type):
             if self.zmqServer.StartTrain:
                 self.currentLabel = self.zmqServer.currentLabel
                 self.zmqServer.StartTrain = False
-            if self.thread_data_server.epoch_finished == False or self.thread_data_server.GetDataLenCount() < \
+            if self.thread_data_server.epoch_finished == False or self.zmqServer.paradigmBuffer.GetDataLenCount() < \
                     self.interval_epoch[1] \
                     + self.thread_data_server.event_inner_idx:
                 time.sleep(0.0001)
                 return
-            print('训练队列数据：', self.thread_data_server.GetDataLenCount())
+            print('训练队列数据：', self.zmqServer.paradigmBuffer.GetDataLenCount())
             originalTrial = self.thread_data_server.get_MIData()  # 取出MI导联数据
             print('取出的： ', originalTrial.shape, 'event: ', originalTrial[-2, self.thread_data_server.event_inner_idx])
             trainTrial = self.preprocess(originalTrial[:self.n_chan, :])  # 预处理
@@ -452,7 +473,7 @@ class Decoder_main(threading.Thread, device_type):
                 formatted_time = now.strftime('%H:%M:%S.%f')[:-3]
                 print('启动预测  ', formatted_time)
 
-            if self.thread_data_server.epoch_finished == False or self.thread_data_server.GetDataLenCount() < \
+            if self.thread_data_server.epoch_finished == False or self.zmqServer.paradigmBuffer.GetDataLenCount() < \
                     self.interval_epoch[1] \
                     + self.thread_data_server.event_inner_idx:
                 time.sleep(0.0001)
@@ -481,128 +502,128 @@ class Decoder_main(threading.Thread, device_type):
             print(f'发送给界面完成,耗时{end - start:.3f}s。')
         else:  # 休息状态
             if self.zmqServer.get_Impedance == False:  # 非阻抗检测状态
-                if self.thread_data_server.GetDataLenCount() < 25:
+                if self.zmqServer.paradigmBuffer.GetDataLenCount() < 25:
                     time.sleep(0.005)
                     return
                 self.thread_data_server.getData(25)
 
-    def decoder_concentration(self):
-        if self.zmqServer.state_mode == 'predict':
-            if self.zmqServer.StartDecode:
-                self.zmqServer.StartDecode = False
-                self.thread_data_server.ResetAll()
-                now = datetime.now()
-                formatted_time = now.strftime('%H:%M:%S.%f')[:-3]
-                print('启动专注力预测  ', formatted_time)
-            if self.thread_data_server.GetDataLenCount() < int(self.win_step * self.fs):  # 每win_step得出一次结果
-                time.sleep(0.005)
-                return
-            if self.zmqServer.get_Impedance != False:  # 阻抗检测状态不解码
-                return
-            data = self.thread_data_server.get_concentrateData(int(self.win_step * self.fs))  # 修改每次读取的数据
-            result = self.calculate.queueOpt(data)
-            if result is not None:
-                self.zmqClient.send_to_all('result', int(result))
-        else:  # 休息状态
-            if self.zmqServer.get_Impedance == False:  # 非阻抗检测状态
-                if self.thread_data_server.GetDataLenCount() < 25:
-                    time.sleep(0.005)
-                    return
-                self.thread_data_server.getData(25)
+    # def decoder_concentration(self):
+    #     if self.zmqServer.state_mode == 'predict':
+    #         if self.zmqServer.StartDecode:
+    #             self.zmqServer.StartDecode = False
+    #             self.thread_data_server.ResetAll()
+    #             now = datetime.now()
+    #             formatted_time = now.strftime('%H:%M:%S.%f')[:-3]
+    #             print('启动专注力预测  ', formatted_time)
+    #         if self.thread_data_server.GetDataLenCount() < int(self.win_step * self.device_info['sample_rate']):  # 每win_step得出一次结果
+    #             time.sleep(0.005)
+    #             return
+    #         if self.zmqServer.get_Impedance != False:  # 阻抗检测状态不解码
+    #             return
+    #         data = self.thread_data_server.get_concentrateData(int(self.win_step * self.device_info['sample_rate']))  # 修改每次读取的数据
+    #         result = self.calculate.queueOpt(data)
+    #         if result is not None:
+    #             self.zmqClient.send_to_all('result', int(result))
+    #     else:  # 休息状态
+    #         if self.zmqServer.get_Impedance == False:  # 非阻抗检测状态
+    #             if self.thread_data_server.GetDataLenCount() < 25:
+    #                 time.sleep(0.005)
+    #                 return
+    #             self.thread_data_server.getData(25)
 
 #### Blink detection #####
-    def check_double_blink(self, current_time):
-        """
-        检查是否检测到连续两次眨眼
-        @param current_time: 当前眨眼时间戳
-        @return: True表示检测到连续两次眨眼
-        """
-        if len(self.blink_timestamps) < 2:
-            return False
+    # def check_double_blink(self, current_time):
+    #     """
+    #     检查是否检测到连续两次眨眼
+    #     @param current_time: 当前眨眼时间戳
+    #     @return: True表示检测到连续两次眨眼
+    #     """
+    #     if len(self.blink_timestamps) < 2:
+    #         return False
 
-        # 检查是否在去抖期内
-        if self.last_double_blink_time > 0:
-            time_since_last_double_blink = current_time - self.last_double_blink_time
-            if time_since_last_double_blink < self.double_blink_jitter:
-                return False  # 在去抖期内，忽略连续眨眼检测
-        last_time = self.blink_timestamps[-1]  # 当前眨眼
-        prev_time = self.blink_timestamps[-2]  # 上次眨眼
+    #     # 检查是否在去抖期内
+    #     if self.last_double_blink_time > 0:
+    #         time_since_last_double_blink = current_time - self.last_double_blink_time
+    #         if time_since_last_double_blink < self.double_blink_jitter:
+    #             return False  # 在去抖期内，忽略连续眨眼检测
+    #     last_time = self.blink_timestamps[-1]  # 当前眨眼
+    #     prev_time = self.blink_timestamps[-2]  # 上次眨眼
 
-        interval = last_time - prev_time
-        if interval <= self.double_blink_interval:
-            return True
+    #     interval = last_time - prev_time
+    #     if interval <= self.double_blink_interval:
+    #         return True
 
-        return False
+    #     return False
 
-    def process_blink_detection(self):
-        """
-        在缓冲区数据上执行,单次眨眼检测
-        """
-        if len(self.fp1_buffer) < self.window_samples:
-            return
+    # def process_blink_detection(self):
+    #     """
+    #     在缓冲区数据上执行,单次眨眼检测
+    #     """
+    #     if len(self.fp1_buffer) < self.window_samples:
+    #         return
 
-        fp1_data = np.array(list(self.fp1_buffer)[-self.window_samples:])
-        fp2_data = np.array(list(self.fp2_buffer)[-self.window_samples:])
-        # 计算FP1和FP2的平均
-        fp12_mean = (fp1_data + fp2_data) / 2.0
-        # 带通滤波
-        try:
-            fp12_filtered = signal.filtfilt(self.blink_b, self.blink_a, fp12_mean)
-        except Exception as e:
-            print(f"Filter error: {e}")
-            return
-        F = np.diff(fp12_filtered)
-        if len(F) < 3:
-            return
-        b, d, e = blink_detection(F, self.fs, self.Dmin, self.Dmax, self.EMin, self.EMax)
+    #     fp1_data = np.array(list(self.fp1_buffer)[-self.window_samples:])
+    #     fp2_data = np.array(list(self.fp2_buffer)[-self.window_samples:])
+    #     # 计算FP1和FP2的平均
+    #     fp12_mean = (fp1_data + fp2_data) / 2.0
+    #     # 带通滤波
+    #     try:
+    #         fp12_filtered = signal.filtfilt(self.blink_b, self.blink_a, fp12_mean)
+    #     except Exception as e:
+    #         print(f"Filter error: {e}")
+    #         return
+    #     F = np.diff(fp12_filtered)
+    #     if len(F) < 3:
+    #         return
+    #     b, d, e = blink_detection(F, self.device_info['sample_rate'], self.Dmin, self.Dmax, self.EMin, self.EMax)
 
-        if b == 1:
-            samples_since_last = self.total_samples - self.last_blink_time
-            time_since_last_ms = (samples_since_last / self.fs) * 1000
-            if time_since_last_ms >= self.jitterwin:  # self.jitterwin  单次眨眼去抖  using time_since_last_ms
-                self.blink_count += 1
-                self.last_blink_time = self.total_samples
-                current_time = time.time()
-                self.blink_timestamps.append(current_time)
-                blink_event = {
-                    'count': self.blink_count,
-                    'time': current_time,
-                    'sample_index': self.total_samples,
-                    'duration_ms': d,
-                    'energy': e
-                }
-                self.blink_events.append(blink_event)
-                self.zmqClient.send_to_all('result', 1)  # 检测到眨眼信号，通知上位机
-                if self.check_double_blink(current_time):
-                    self.double_blink_count += 1
-                    interval = self.blink_timestamps[-1] - self.blink_timestamps[-2]
-                    double_blink_event = {
-                        'double_blink_count': self.double_blink_count,
-                        'blink1_time': self.blink_timestamps[-2],
-                        'blink2_time': self.blink_timestamps[-1],
-                        'interval': interval
-                    }
-                    self.double_blink_events.append(double_blink_event)
-                    self.last_double_blink_time = current_time
-                    self.zmqClient.send_to_all('result', 2) # 发送双次眨眼事件
+    #     if b == 1:
+    #         samples_since_last = self.total_samples - self.last_blink_time
+    #         time_since_last_ms = (samples_since_last / self.device_info['sample_rate']) * 1000
+    #         if time_since_last_ms >= self.jitterwin:  # self.jitterwin  单次眨眼去抖  using time_since_last_ms
+    #             self.blink_count += 1
+    #             self.last_blink_time = self.total_samples
+    #             current_time = time.time()
+    #             self.blink_timestamps.append(current_time)
+    #             blink_event = {
+    #                 'count': self.blink_count,
+    #                 'time': current_time,
+    #                 'sample_index': self.total_samples,
+    #                 'duration_ms': d,
+    #                 'energy': e
+    #             }
+    #             self.blink_events.append(blink_event)
+    #             self.zmqClient.send_to_all('result', 1)  # 检测到眨眼信号，通知上位机
+    #             if self.check_double_blink(current_time):
+    #                 self.double_blink_count += 1
+    #                 interval = self.blink_timestamps[-1] - self.blink_timestamps[-2]
+    #                 double_blink_event = {
+    #                     'double_blink_count': self.double_blink_count,
+    #                     'blink1_time': self.blink_timestamps[-2],
+    #                     'blink2_time': self.blink_timestamps[-1],
+    #                     'interval': interval
+    #                 }
+    #                 self.double_blink_events.append(double_blink_event)
+    #                 self.last_double_blink_time = current_time
+    #                 self.zmqClient.send_to_all('result', 2) # 发送双次眨眼事件
 
-    def decoder_blink(self):
-        if self.thread_data_server.GetDataLenCount() < 50:
-            time.sleep(0.005)
-            return
-        if self.zmqServer.get_Impedance == False:  # 非阻抗检测状态
-            data = self.thread_data_server.get_blinkData(50)
-            fp1_data = data[0, :]  # ch1 (相当于FP1)
-            fp2_data = data[1, :]  # ch2 (相当于FP2)
-            for i in range(len(fp1_data)):
-                self.fp1_buffer.append(fp1_data[i])
-                self.fp2_buffer.append(fp2_data[i])
-                self.total_samples += 1
-                self.sample_counter += 1
+    # def decoder_blink(self):
+    #     if self.thread_data_server.GetDataLenCount() < 50:
+    #         time.sleep(0.005)
+    #         return
+    #     if self.zmqServer.get_Impedance == False:  # 非阻抗检测状态
+    #         data = self.thread_data_server.get_blinkData(50)
+    #         fp1_data = data[0, :]  # ch1 (相当于FP1)
+    #         fp2_data = data[1, :]  # ch2 (相当于FP2)
+    #         for i in range(len(fp1_data)):
+    #             self.fp1_buffer.append(fp1_data[i])
+    #             self.fp2_buffer.append(fp2_data[i])
+    #             self.total_samples += 1
+    #             self.sample_counter += 1
 
-                if self.sample_counter >= self.step_samples:
-                    self.process_blink_detection()
-                    self.sample_counter = 0
+    #             if self.sample_counter >= self.step_samples:
+    #                 self.process_blink_detection()
+    #                 self.sample_counter = 0
 
     def stop(self):
         '''

Zmq/dataBuffer.py

@@ -65,6 +65,51 @@ class ParadigmRingBuffer:
         '''
         return self.nUpdate    
     
+        # ========== 各范式数据访问接口 ==========
+    def get_MIData(self):
+        """获取MI导联数据 (21通道 + 事件)"""
+        data = self.getData(self.GetDataLenCount())
+        rows_to_extract = [8, 15, 12, 14, 18, 23, 16, 59, 50, 58, 17, 45, 29, 11, 10, 19, 20, 61, 51, 60, 21, 64, 65]
+        row_to_select = np.array(rows_to_extract)
+        if data.shape[1] > 0:
+            return data[row_to_select, :]
+        return np.zeros((len(rows_to_extract), 0))
+
+    def get_SSMVEPData(self):
+        """获取SSMVEP导联数据 (8通道 + 事件)"""
+        data = self.getData(self.GetDataLenCount())
+        rows_to_extract = [13, 3, 2, 46, 9, 54, 47, 55, 64, 65]
+        row_to_select = np.array(rows_to_extract)
+        if data.shape[1] > 0:
+            return data[row_to_select, :]
+        return np.zeros((len(rows_to_extract), 0))
+
+    def getDataViaSSVEP(self, count):
+        """获取SSVEP数据 (8通道 + 事件)"""
+        data = self.getData(count)
+        rows_to_extract = [13, 3, 2, 46, 9, 54, 47, 55, 64]
+        row_to_select = np.array(rows_to_extract)
+        if data.shape[1] > 0:
+            return data[row_to_select, :]
+        return np.zeros((len(rows_to_extract), 0))
+
+    def get_concentrateData(self, count):
+        """获取专注力数据 (2通道)"""
+        data = self.getData(count)
+        rows_to_extract = [0, 1]
+        row_to_select = np.array(rows_to_extract)
+        if data.shape[1] > 0:
+            return data[row_to_select, :]
+        return np.zeros((len(rows_to_extract), 0))
+
+    def get_blinkData(self, count):
+        """获取眨眼数据 (2通道)"""
+        data = self.getData(count)
+        rows_to_extract = [0, 1]
+        row_to_select = np.array(rows_to_extract)
+        if data.shape[1] > 0:
+            return data[row_to_select, :]
+        return np.zeros((len(rows_to_extract), 0))
 
     # reset buffer
     def resetAllPara(self):
@@ -73,5 +118,3 @@ class ParadigmRingBuffer:
         self.readPtr = 0  # add by lizhenhua 清空读指针
         self.buffer = np.zeros((self.n_chan, self.n_points))  # add by lizhenhua 清空环形缓冲区
 
-
-

Zmq/zmqServer.py

@@ -1,16 +1,22 @@
+import ast
 import numpy as np
-import zmq
 import threading
 import json
 import queue
+from typing import Dict
 # from Device.SunnyLinker import SunnyLinker64
-from dataBuffer import ParadigmRingBuffer
-from filterProcess import FilterRingBuffer
+from Zmq.dataBuffer import ParadigmRingBuffer
+from Zmq.filterProcess import FilterRingBuffer
+from PubLibrary.InifileHelper import IniRead
 from logs.log import algo_log
 
+import zmq
+
 class zmqServer(threading.Thread):
     def __init__(self, host='0.0.0.0', cmd_port=8099, data_port=8100, device_info=None):
         threading.Thread.__init__(self)
+        self.device_info = device_info
+        
         self.host = host
         self.cmd_port = cmd_port    # 命令交互端口
         self.data_port = data_port  # 数据接收端口
@@ -28,23 +34,22 @@ class zmqServer(threading.Thread):
         self.daemon = True
         
         # 范式数据缓存
-        self.paradigmBuffer = ParadigmRingBuffer(66, 2500)
-        self.filterBuffer = FilterRingBuffer(66, 2500)
+        self.paradigmBuffer = ParadigmRingBuffer(self.device_info['channel_nums'], self.device_info['sample_rate'] * 10)
+        self.filterBuffer = FilterRingBuffer(self.device_info['channel_nums'], self.device_info['sample_rate'] * 10)
         
         
         # 命令与数据通信
         self.context = zmq.Context()
         # 指令通道 (8099) - ROUTER：短JSON命令，低频率
         self.cmd_socket = self.context.socket(zmq.ROUTER)
-        self.cmd_socket.setsockopt(zmq.RCVHWM, 100)   # 指令不需要大缓存，100条足够
-        self.cmd_socket.setsockopt(zmq.SNDHWM, 100)
-        self.cmd_socket.setsockopt(zmq.TCP_NODELAY, 1) # 禁用Nagle算法，降低指令延迟
+        # 通用套接字选项：仍在 SocketOption 中
+        self.cmd_socket.setsockopt(zmq.SocketOption.RCVHWM, 100)
+        self.cmd_socket.setsockopt(zmq.SocketOption.SNDHWM, 100)
         self.cmd_socket.bind(f"tcp://{self.host}:{cmd_port}")
 
         # 数据通道 (8100) - ROUTER：高频脑电二进制流
         self.data_socket = self.context.socket(zmq.ROUTER)
-        self.data_socket.setsockopt(zmq.RCVHWM, 500)  # 500包=10秒缓存，足够应对短时卡顿
-        self.data_socket.setsockopt(zmq.TCP_NODELAY, 1) # 禁用Nagle算法，减少数据传输延迟
+        self.data_socket.setsockopt(zmq.SocketOption.RCVHWM, 500)
         self.data_socket.bind(f"tcp://{self.host}:{data_port}")
 
         # Poller 轮训器（保持不变）
@@ -65,6 +70,77 @@ class zmqServer(threading.Thread):
         self.data_clients = set()   # 数据端口客户端ID
         self.send_queue = queue.Queue()  # 发送队列（仅用于命令端口广播）
    
+        
+        # 范式buffer参数, 事件检测相关
+        self._event_lock = threading.Lock()
+        self._epoch_finished = False
+        self._event_inner_idx = -1
+        self.pack_contain_event = False
+        self.predict_event = 99
+        self.events = [1, 2, self.predict_event]
+        self.count_events = {}
+        self.latency = 50
+        self.train_latency = 50
+        self._interval_inited = False
+
+        @property
+        def interval_inited(self):
+            return self._interval_inited
+
+        @interval_inited.setter
+        def interval_inited(self, value):
+            self._interval_inited = value
+            
+        @property
+        def epoch_finished(self):
+            with self._event_lock:
+                return self._epoch_finished
+
+        @epoch_finished.setter
+        def epoch_finished(self, value):
+            with self._event_lock:
+                self._epoch_finished = value
+
+    @property
+    def event_inner_idx(self):
+        with self._event_lock:
+            return self._event_inner_idx
+
+    @event_inner_idx.setter
+    def event_inner_idx(self, value):
+        with self._event_lock:
+            self._event_inner_idx = value
+
+    def interval_init(self, decoder_class):
+        if decoder_class == 'ssmvep':
+            interval_epoch = ast.literal_eval(IniRead('system', 'SSMVEP_IntervalEpoch'))
+            self.interval_epoch = [int(i * self.device_info['sample_rate']) for i in interval_epoch]  # epoch截取信息
+            self.train_epoch = [int(self.interval_epoch[0]),
+                                int(self.interval_epoch[1] + 0.1 * self.device_info['sample_rate'])]  # 训练样本epoch
+            self.latency = (self.interval_epoch[
+                                1] + 0.1 * self.device_info['sample_rate']) // 5  # 提取epoch的延迟标记，5代表每次解包得到的5位采样点;0.1表示比实际需要的长度多取0.1，会被截掉
+            self.train_latency = (self.train_epoch[1] + 0.1 * self.device_info['sample_rate']) // 5
+
+        elif decoder_class == 'mi':
+            interval_epoch = ast.literal_eval(IniRead('system', 'MI_IntervalEpoch'))
+            self.interval_epoch = [int(i * self.device_info['sample_rate']) for i in interval_epoch]  # epoch截取信息
+            self.train_epoch = self.interval_epoch.copy()
+            self.latency = (self.interval_epoch[1]) // 5  # 提取epoch的延迟标记，5代表每次解包得到的5位采样点;
+            self.train_latency = self.latency
+
+        print('时间窗：', (interval_epoch))
+        self.count_events: Dict[str, int] = {}  # 表示包延迟的计数信息
+        self.event_inner_idx = -1  # event在5位数据包内部的idx
+        self.epoch_finished = False  # 接收epoch是否完整
+        self.pack_contain_event = False  # 当前包是否含有event
+        self.predict_event = 99
+        self.events = [1, 2, self.predict_event]
+        self.interval_inited = True
+        # if getattr(self, 'serial', None) and self.serial.is_open:
+        #     self.serial.close()
+        # self.serial = serial.Serial(self.serial_port, 460800, timeout=1)  # 连接同步器串口
+
+
     def broadcast_message(self, method, params):
         """Put message into queue to be sent to all command clients"""
         self.send_queue.put((method, params))
@@ -78,15 +154,15 @@ class zmqServer(threading.Thread):
         # 注册新的命令客户端
         if ident not in self.cmd_clients:
             self.cmd_clients.add(ident)
-            print(f"New CMD Client Connected: {ident} (port: {self.cmd_port})")
+            algo_log(f"New CMD Client Connected: {ident} (port: {self.cmd_port})")
         
         # 解析消息
         try:
             message = json.loads(message_bytes.decode('utf-8'))
         except json.JSONDecodeError:
-            print(f"Invalid JSON from CMD client {ident}")
-            continue
-        print(f"Received CMD request: {message}")
+            algo_log(f"Invalid JSON from CMD client {ident}")
+            return
+        algo_log(f"Received CMD request: {message}")
 
         method = message.get("method")
         params = message.get("params")
@@ -94,37 +170,40 @@ class zmqServer(threading.Thread):
         # 原有命令处理逻辑
         if method == "sync":
             self.state_mode = 'sync'
-        if method == "targetFreqs":
+        elif method == "targetFreqs":
             if not isinstance(params, list):
-                print('targetFreqs must be a list')
-                continue
+                algo_log(f"targetFreqs must be a list")
+                return
             if params != self.targetFreqs:
                 self.targetFreqs = params
                 self.changeTarget = True
-        if method == "decoderClass":
+        elif method == "decoderClass":
             if not isinstance(params, str):
-                print('decoderClass must be a str')
-                continue
+                algo_log(f"decoderClass must be a str")
+                return
             if params != self.decoder_class:
                 self.decoder_class = params
                 self.decoder_switch = True
-        if method == "getReport":
-            self.getReport = True
-        if method == "train":#训练状态
+        elif method == "train":#训练状态
             self.state_mode = 'train'
             self.StartTrain = True
             self.currentLabel = params  # 当前刺激端的训练标签
-            self.sunnyLinker.push_trigger(self.labels[self.currentLabel])
+            # self.sunnyLinker.push_trigger(self.labels[self.currentLabel])
         elif method == "predict":#预测状态
             self.state_mode = 'predict'
             if params == 1: #开始解码
                 self.StartDecode = True
-                self.sunnyLinker.push_trigger(0x63)
+                # self.sunnyLinker.push_trigger(0x63)
             elif params == 2: #停止解码
                 self.IsExitApp = True
                 self.running = False
         elif method == "rest": #休息状态
             self.state_mode = 'rest'
+        else:
+            algo_log(f"未知命令：{method}", level="WARNING")
+        
+        # elif method == "getReport":
+        #     self.getReport = True
         # elif method == "impedance":
         #     if params == 1:
         #         self.open_Impedance = True  # 开启阻抗
@@ -138,48 +217,49 @@ class zmqServer(threading.Thread):
         处理8100端口原始脑电二进制数据
         固定格式：上位机发送 (5,66) float32 二维数组字节流（已转换为微伏物理量）→ 转置为 (66,5) 写入双缓冲区
         """
-        # 1. 校验ZMQ消息帧完整性
-        if len(frames) < 3:
-            print(f"[ERROR] 无效数据帧：长度不足3帧，实际长度={len(frames)}")
+        # 1. 校验ZMQ消息帧完整性（ROUTER接收DEALER消息的帧格式：[客户端ID, 发送方ID, 空帧, 数据帧]）
+        if len(frames) < 4:  # 至少需要4帧
+            algo_log(f"Invalid data frame: 帧数量不足，期望≥4，实际{len(frames)}", level="ERROR")
             return
         
-        ident, _, data_bytes = frames[:3]
+        # 2. 正确解析帧（适配DEALER→ROUTER的帧格式）
+        client_ident, sender_ident, empty_sep, data_bytes = frames[:4]
+        if empty_sep != b'':  # 校验空分隔帧
+            algo_log(f"Invalid frame separator: 期望空字节，实际{empty_sep}", level="ERROR")
+            return
 
-        # 2. 客户端管理（单客户端场景，自动更新最新身份）
-        if ident not in self.data_clients:
-            self.data_clients.add(ident)
-            self.current_data_client = ident  # 保存唯一客户端身份，用于后续回复滤波结果
-            print(f"[INFO] 新数据客户端连接成功：{ident}")
+        # 3. 客户端管理（单客户端场景，自动更新最新身份）
+        if client_ident not in self.data_clients:
+            self.data_clients.add(client_ident)
+            self.current_data_client = client_ident  # 保存唯一客户端身份，用于后续回复滤波结果
+            print(f"[INFO] 新数据客户端连接成功：{client_ident}")
 
         try:
-            # 3. 精确长度校验（核心：固定(5,66) float32 = 5*66*4=1320字节，与int32字节数相同）
-            EXPECTED_BYTES = 5 * 66 * 4  # 每个float32占4字节
+            # 4. 精确长度校验（核心：固定(5,66) float32 = 5*66*4=1320字节）
+            EXPECTED_BYTES = self.device_info['frame_points'] * self.device_info['channel_nums'] * 4  # 每个float32占4字节
             if len(data_bytes) != EXPECTED_BYTES:
-                print(f"[ERROR] 数据长度错误：期望{EXPECTED_BYTES}字节，实际{len(data_bytes)}字节")
+                algo_log(f"[ERROR] 数据长度错误：期望{EXPECTED_BYTES}字节，实际{len(data_bytes)}字节", level="ERROR")
                 return
 
-            # 4. 零拷贝二进制解析 + 维度转换
-            # 步骤：字节流 → (330,) float32数组 → (5,66) 原始格式 → 转置为 (66,5) 缓冲区标准格式
+            # 5. 零拷贝二进制解析 + 维度转换
+            
             data_np = np.frombuffer(data_bytes, dtype=np.float32)
-            # 重塑为上位机原始维度
-            data_np = data_np.reshape(5, 66)
-            # 转置为(通道数, 采样点数)标准格式，转换为float64保证滤波运算精度
+            data_np = data_np.reshape(self.device_info['frame_points'], self.device_info['channel_nums'])
             data_np = data_np.T.astype(np.float64)
 
-            # 5. 同时写入双环形缓冲区（方法名与现有类保持一致：appendBuffer）
-            # 注意：上位机已发送微伏物理量，无需再乘以增益系数
+            # 6. 写入缓冲区
             self.paradigmBuffer.appendBuffer(data_np)
             self.filterBuffer.appendBuffer(data_np)
 
-            # 生产环境必须注释！每秒50次打印会导致CPU占用飙升30%以上
-            algo_log(f"数据写入成功：shape={data_np.shape}, 范围=[{data_np.min():.2f}, {data_np.max():.2f}] μV", level="DEBUG", record_once=True)
+            algo_log(f"数据写入成功：shape={data_np.shape}, 范围=[{data_np.min():.2f}, {data_np.max():.2f}] μV", level="DEBUG")
 
         except Exception as e:
             algo_log(f"数据处理失败：{str(e)}", level="ERROR")
-            # 调试阶段临时打开，生产环境务必注释
+            if IniRead('system', 'algo_log_level', 'INFO') == 'DEBUG':
                 import traceback
                 traceback.print_exc()
 
+
     def _process_send_queue(self):
         """处理发送队列，向所有命令客户端广播消息"""
         while not self.send_queue.empty():
@@ -207,15 +287,15 @@ class zmqServer(threading.Thread):
 
     def run(self):
         self.running = True
-        print(f"ZMQ Server started - CMD Port: {self.cmd_port}, DATA Port: {self.data_port}")
+        algo_log(f"algo ZMQ Server started - CMD Port: {self.cmd_port}, DATA Port: {self.data_port}", level="INFO")
         
         try:
             while self.running:
                 # 1. 处理发送队列（命令端口广播）
                 self._process_send_queue()
 
-                # 2. 轮训监听两个Socket的输入事件（10ms超时，避免阻塞）
-                socks = dict(self.poller.poll(10))
+                # 2. 轮训监听两个Socket的输入事件
+                socks = dict(self.poller.poll(50))
 
                 # 处理命令端口消息
                 if self.cmd_socket in socks and socks[self.cmd_socket] == zmq.POLLIN:

Zmq/zmqServer1.py

@@ -1,445 +0,0 @@
-import numpy as np
-import zmq
-import threading
-import json
-import queue
-import time
-from Device.SunnyLinker import SunnyLinker64, RingBuffer
-from collections import deque
-
-
-class zmqServer(threading.Thread):
-    def __init__(self, host='0.0.0.0', cmd_port=8099, data_port=8100):
-        threading.Thread.__init__(self)
-        self.host = host
-        self.cmd_port = cmd_port
-        self.data_port = data_port
-        self.running = False
-        self.get_Impedance = False
-        self.open_Impedance = None
-        self.StartDecode = False
-        self.StartTrain = False
-        self.state_mode = None
-        self.currentLabel = -1
-        self.IsExitApp = False
-        self.getReport = False
-        self.daemon = True
-
-        # ZMQ Context
-        self.context = zmq.Context()
-
-        # 指令通道 (8099) - ROUTER
-        self.cmd_socket = self.context.socket(zmq.ROUTER)
-        self.cmd_socket.setsockopt(zmq.RCVHWM, 1000)
-        self.cmd_socket.setsockopt(zmq.SNDHWM, 1000)
-        self.cmd_socket.bind(f"tcp://{self.host}:{cmd_port}")
-
-        # 数据通道 (8100)) - ROUTER
-        self.data_socket = self.context.socket(zmq.ROUTER)
-        self.data_socket.setsockopt(zmq.RCVHWM, 1000)
-        self.data_socket.setsockopt(zmq.RCVTIMEO, 50)
-        self.data_socket.bind(f"tcp://{self.host}:{data_port}")
-
-        self.targetFreqs = []
-        self.changeTarget = False
-        self.sunnyLinker = SunnyLinker64(None, None, None, None, None)
-        self.labels = [0x01, 0x02, 0x03]
-
-        self.decoder_switch = False
-        self.decoder_class = None
-        self.cmd_clients = set()
-        self.data_clients = set()
-        self.send_queue = queue.Queue()
-
-        # ========== 数据缓冲区 (RingBuffer) ==========
-        # 与 SunnyLinker 保持一致，使用 RingBuffer
-        # 66 = 64 EEG通道 + 1 事件通道(第65) + 1 标签序号通道(第66)
-        # 缓存约 10 秒数据 (250Hz * 10s = 2500 点)
-        self.n_chan = 66
-        self.t_buffer = 10.0  # 缓冲区时长(秒)
-        self.__ringBuffer = RingBuffer(self.n_chan, int(self.t_buffer * 250))
-
-        # 事件检测相关
-        self._event_lock = threading.Lock()
-        self._epoch_finished = False
-        self._event_inner_idx = -1
-        self.pack_contain_event = False
-        self.predict_event = 99
-        self.events = [1, 2, self.predict_event]
-        self.count_events = {}
-        self.latency = 50
-        self.train_latency = 50
-
-        # 当前事件标签序号 (从第66通道获取)
-        self.current_label_index = 0
-
-        # 初始化标志
-        self._interval_inited = False
-        self._currentLabel = -1
-
-        # 注册的客户端（兼容旧接口）
-        self.clients = set()
-
-    # ========== 事件属性：线程安全访问 ==========
-    @property
-    def epoch_finished(self):
-        with self._event_lock:
-            return self._epoch_finished
-
-    @epoch_finished.setter
-    def epoch_finished(self, value):
-        with self._event_lock:
-            self._epoch_finished = value
-
-    @property
-    def event_inner_idx(self):
-        with self._event_lock:
-            return self._event_inner_idx
-
-    @event_inner_idx.setter
-    def event_inner_idx(self, value):
-        with self._event_lock:
-            self._event_inner_idx = value
-
-    @property
-    def interval_inited(self):
-        return self._interval_inited
-
-    @interval_inited.setter
-    def interval_inited(self, value):
-        self._interval_inited = value
-
-    @property
-    def currentLabel(self):
-        return self._currentLabel
-
-    @currentLabel.setter
-    def currentLabel(self, value):
-        self._currentLabel = value
-
-    def broadcast_message(self, method, params):
-        """Put message into queue to be sent to all connected clients"""
-        self.send_queue.put((method, params))
-
-    # ========== 数据缓冲区操作接口 ==========
-    def GetDataLenCount(self):
-        """返回缓冲区当前数据点数"""
-        return self.__ringBuffer.nUpdate
-
-    def getData(self, count):
-        """获取最新count个数据点，不消费（只读）"""
-        with self.__ringBuffer.RingBufferLock:
-            count = min(count, self.__ringBuffer.nUpdate)
-            if count == 0:
-                return np.zeros((self.n_chan, 0))
-
-            # 计算读取范围（从尾部取最新数据）
-            read_end = (self.__ringBuffer.currentPtr - 1) % self.__ringBuffer.n_points
-            read_start = (read_end - count + 1) % self.__ringBuffer.n_points
-
-            if self.__ringBuffer.currentPtr == 0:
-                read_start = self.__ringBuffer.n_points - count
-                read_end = self.__ringBuffer.n_points - 1
-
-            if read_start <= read_end:
-                data = self.__ringBuffer.buffer[:, read_start:read_end + 1]
-            else:
-                part1 = self.__ringBuffer.buffer[:, read_start:]
-                part2 = self.__ringBuffer.buffer[:, :read_end + 1]
-                data = np.concatenate((part1, part2), axis=1)
-
-            return data
-
-    def consumeData(self, count):
-        """消费(丢弃)指定数量的数据点，从头部移除"""
-        with self.__ringBuffer.RingBufferLock:
-            count = min(count, self.__ringBuffer.nUpdate)
-            self.__ringBuffer.readPtr = (self.__ringBuffer.readPtr + count) % self.__ringBuffer.n_points
-            self.__ringBuffer.nUpdate -= count
-
-    def ResetAll(self):
-        """重置缓冲区"""
-        with self.__ringBuffer.RingBufferLock:
-            self.__ringBuffer.resetAllPara()
-        with self._event_lock:
-            self._epoch_finished = False
-            self._event_inner_idx = -1
-        self.pack_contain_event = False
-        self.count_events.clear()
-        self.current_label_index = 0
-
-    def reset_data_buffer(self):
-        self.ResetAll()
-
-    def reset_state(self):
-        self.ResetAll()
-
-    def interval_init(self, decoder_class):
-        """初始化事件检测参数"""
-        import ast
-        from PubLibrary.InifileHelper import IniRead
-
-        if decoder_class == 'ssmvep':
-            interval_epoch = ast.literal_eval(IniRead('system', 'SSMVEP_IntervalEpoch'))
-            self.interval_epoch = [int(i * 250) for i in interval_epoch]
-            self.train_epoch = [int(self.interval_epoch[0]),
-                                int(self.interval_epoch[1] + 0.1 * 250)]
-            self.latency = (self.interval_epoch[1] + 0.1 * 250) // 5
-            self.train_latency = (self.train_epoch[1] + 0.1 * 250) // 5
-
-        elif decoder_class == 'mi':
-            interval_epoch = ast.literal_eval(IniRead('system', 'MI_IntervalEpoch'))
-            self.interval_epoch = [int(i * 250) for i in interval_epoch]
-            self.train_epoch = self.interval_epoch.copy()
-            self.latency = self.interval_epoch[1] // 5
-            self.train_latency = self.latency
-
-        self.count_events = {}
-        self._event_inner_idx = -1
-        self._epoch_finished = False
-        self.pack_contain_event = False
-        self.predict_event = 99
-        self.events = [1, 2, self.predict_event]
-        self._interval_inited = True
-
-    # ========== 事件检测 ==========
-    def detect_event(self, data_matrix):
-        """
-        检测事件通道中的触发信号
-
-        @param data_matrix: shape (66, N) - N个采样点的数据
-                           第65行(索引64) = 事件通道
-                           第66行(索引65) = 标签通道
-        @return: 是否检测到事件
-        """
-        if data_matrix.shape[1] == 0:
-            return False
-
-        self.pack_contain_event = False
-        event_channel = data_matrix[64, :]   # 第65通道 = 标签值(event值)
-        label_channel = data_matrix[65, :]  # 第66通道 = 标签序号(label index)
-
-        events = event_channel.tolist()
-
-        with self._event_lock:
-            self._event_inner_idx = -1
-            self.current_event_label = 0
-
-            for idx, event in enumerate(events):
-                if int(event) in self.events:
-                    self._event_inner_idx = idx
-                    self.current_label_index = int(label_channel[idx])
-                    self.pack_contain_event = True
-
-                    new_key = f"{event}_{time.time()}"
-                    latency = self.latency if event == self.predict_event else self.train_latency
-                    self.count_events[new_key] = latency + 1
-
-            # 延迟计数递减
-            drop_items = []
-            for key, value in self.count_events.items():
-                value = value - 1
-                if value == 0:
-                    drop_items.append(key)
-                self.count_events[key] = value
-            for key in drop_items:
-                del self.count_events[key]
-
-            if drop_items:
-                self._epoch_finished = True
-                # 检测到事件时，清除RingBuffer中之前的数据，只保留当前包
-                if self.pack_contain_event:
-                    self.__ringBuffer.resetAllPara()
-                return True
-
-            self._epoch_finished = False
-            return False
-
-    def run(self):
-        self.running = True
-        print(f"Server running - CMD: {self.cmd_port}, DATA: {self.data_port}")
-
-        cmd_poller = zmq.Poller()
-        cmd_poller.register(self.cmd_socket, zmq.POLLIN)
-
-        data_poller = zmq.Poller()
-        data_poller.register(self.data_socket, zmq.POLLIN)
-
-        try:
-            while self.running:
-                # --- 处理发送队列 (指令通道) ---
-                while not self.send_queue.empty():
-                    method, params = self.send_queue.get()
-                    if self.cmd_clients:
-                        try:
-                            msg = {'method': method, 'params': params}
-                            msg_bytes = json.dumps(msg).encode('utf-8')
-                            for client_id in list(self.cmd_clients):
-                                try:
-                                    self.cmd_socket.send_multipart([client_id, b'', msg_bytes])
-                                except Exception:
-                                    pass
-                        except Exception:
-                            pass
-
-                # --- 处理指令通道 ---
-                socks = dict(cmd_poller.poll(10))
-                if self.cmd_socket in socks:
-                    self._handle_cmd_socket()
-
-                # --- 处理数据通道 ---
-                socks = dict(data_poller.poll(10))
-                if self.data_socket in socks:
-                    self._handle_data_socket()
-
-        except Exception as e:
-            print(f"Server error: {e}")
-        finally:
-            self.running = False
-            self.cmd_socket.close()
-            self.data_socket.close()
-            self.context.term()
-
-    def _handle_cmd_socket(self):
-        """处理指令通道消息"""
-        try:
-            frames = self.cmd_socket.recv_multipart()
-            if len(frames) < 3:
-                return
-            ident, _, message_bytes = frames[:3]
-            self.cmd_clients.add(ident)
-            self.clients.add(ident)
-
-            message = json.loads(message_bytes.decode('utf-8'))
-            method = message.get("method")
-            params = message.get("params")
-
-            print(f"[CMD] {method}: {params}")
-
-            if method == "sync":
-                self.state_mode = 'sync'
-            elif method == "targetFreqs":
-                if isinstance(params, list) and params != self.targetFreqs:
-                    self.targetFreqs = params
-                    self.changeTarget = True
-            elif method == "decoderClass":
-                if isinstance(params, str) and params != self.decoder_class:
-                    self.decoder_class = params
-                    self.decoder_switch = True
-            elif method == "getReport":
-                self.getReport = True
-            elif method == "train":
-                self.state_mode = 'train'
-                self.StartTrain = True
-                self.currentLabel = params
-            elif method == "predict":
-                self.state_mode = 'predict'
-                if params == 1:
-                    self.StartDecode = True
-                elif params == 2:
-                    self.IsExitApp = True
-                    self.running = False
-            elif method == "rest":
-                self.state_mode = 'rest'
-            elif method == "impedance":
-                if params == 1:
-                    self.open_Impedance = True
-                    self.get_Impedance = True
-                elif params == 2:
-                    self.open_Impedance = False
-                    self.get_Impedance = False
-
-        except Exception as e:
-            print(f"CMD socket error: {e}")
-
-    def _handle_data_socket(self):
-        """处理数据通道消息 (EEG数据)
-
-        上位机数据格式:
-        - 数据帧: [identity, '', meta_json, data_buffer]
-                   data_buffer = [N, 66] float32 -> 转置为 [66, N]
-        """
-        try:
-            frames = self.data_socket.recv_multipart()
-            if len(frames) < 4:
-                return
-            ident, _, message_bytes = frames[:3]
-            self.data_clients.add(ident)
-
-            meta = json.loads(message_bytes.decode('utf-8'))
-
-            # data: [N, 66] -> 转置 -> [66, N]
-            raw_data = np.frombuffer(frames[3], dtype=np.float32)
-            n_samples, n_channels = meta.get('shape', [5, 66])
-            data_matrix = raw_data.reshape(n_samples, n_channels).T.astype(np.float32)
-
-            # 写入 RingBuffer
-            with self.__ringBuffer.RingBufferLock:
-                self.__ringBuffer.appendBuffer(data_matrix)
-
-            # 事件检测
-            self.detect_event(data_matrix)
-
-        except Exception as e:
-            print(f"DATA socket error: {e}")
-
-    # ========== 各范式数据访问接口 ==========
-    def get_MIData(self):
-        """获取MI导联数据 (21通道 + 事件)"""
-        data = self.getData(self.GetDataLenCount())
-        rows_to_extract = [8, 15, 12, 14, 18, 23, 16, 59, 50, 58, 17, 45, 29, 11, 10, 19, 20, 61, 51, 60, 21, 64, 65]
-        row_to_select = np.array(rows_to_extract)
-        if data.shape[1] > 0:
-            return data[row_to_select, :]
-        return np.zeros((len(rows_to_extract), 0))
-
-    def get_SSMVEPData(self):
-        """获取SSMVEP导联数据 (8通道 + 事件)"""
-        data = self.getData(self.GetDataLenCount())
-        rows_to_extract = [13, 3, 2, 46, 9, 54, 47, 55, 64, 65]
-        row_to_select = np.array(rows_to_extract)
-        if data.shape[1] > 0:
-            return data[row_to_select, :]
-        return np.zeros((len(rows_to_extract), 0))
-
-    def getDataViaSSVEP(self, count):
-        """获取SSVEP数据 (8通道 + 事件)"""
-        data = self.getData(count)
-        rows_to_extract = [13, 3, 2, 46, 9, 54, 47, 55, 64]
-        row_to_select = np.array(rows_to_extract)
-        if data.shape[1] > 0:
-            return data[row_to_select, :]
-        return np.zeros((len(rows_to_extract), 0))
-
-    def get_concentrateData(self, count):
-        """获取专注力数据 (2通道)"""
-        data = self.getData(count)
-        rows_to_extract = [0, 1]
-        row_to_select = np.array(rows_to_extract)
-        if data.shape[1] > 0:
-            return data[row_to_select, :]
-        return np.zeros((len(rows_to_extract), 0))
-
-    def get_blinkData(self, count):
-        """获取眨眼数据 (2通道)"""
-        data = self.getData(count)
-        rows_to_extract = [0, 1]
-        row_to_select = np.array(rows_to_extract)
-        if data.shape[1] > 0:
-            return data[row_to_select, :]
-        return np.zeros((len(rows_to_extract), 0))
-
-    def getImpedance(self, data, decoder_class):
-        """计算阻抗（ZMQ模式下不可用）"""
-        return np.zeros(8)
-
-    def stop(self):
-        self.running = False
-        self.cmd_socket.close()
-        self.data_socket.close()
-        self.context.term()
-
-
-if __name__ == '__main__':
-    server = zmqServer()
-    server.start()

concentration/algorithm/calculate_focus.py

@@ -8,6 +8,7 @@ import os
 # import logging
 import base64
 import io
+import math
 
 # logger = logging.getLogger(__name__)
 #
@@ -22,7 +23,7 @@ import io
 
 
 class Calculate():
-    def __init__(self, Threshold_value_low, Threshold_value_high, fs=250, win_len=10):
+    def __init__(self, Threshold_value_low, Threshold_value_high, fs=250, win_len=10, config=None):
         self.Threshold_value_low = Threshold_value_low
         self.Threshold_value_high = Threshold_value_high
         self.fs = fs
@@ -31,47 +32,73 @@ class Calculate():
         self.EVI_result = []
         self.eegQueue = deque(maxlen=win_len)
 
-        # # 存储历史数据用于绘图
-        # self.beta_history = []
-        # self.alpha_history = []
-        # self.theta_history = []
-        # self.focus_history = []
-        # self.timestamp_history = []
-        #
-        # # 记录开始时间
-        # self.start_time = None
-        # self.recording = False
-        #
-        # # 图表保存路径
-        # self.chart_dir = "reports"
-        # if not os.path.exists(self.chart_dir):
-        #     os.makedirs(self.chart_dir)
-        #     print(f"[调试] 创建目录: {self.chart_dir}")
-        
         # 初始化滤波器
         self.b_notch, self.a_notch = signal.iirnotch(50 / (self.fs/2), 30)
         self.b_design = signal.firwin(65, [2 / (self.fs/2), 40 / (self.fs/2)], pass_zero=False)
 
+        self.last_focus = None
+        # 异步滤波系数配置（核心手感控制纽）
+        self.alpha_up = 1  # 上升系数：较小，保证分数平滑爬升，过滤偶发的瞬时高能量
+        # alpha_down / shrink_factor 从 config.ini 读取，方便上位机调参
+        if config:
+            self.alpha_down = float(config.get('alpha_down', 0.8))
+            self.shrink_factor = float(config.get('shrink_factor', 0.5))
+        else:
+            self.alpha_down = 0.8
+            self.shrink_factor = 0.5
         print("[调试] Calculate 类初始化完成")
 
     def calculate_focus(self, beta, alpha, theta):
         """
-        专注度计算 - 固定映射版本
+        专注度计算 - 三区间门限异步滤波版本
         """
+        # 0. 频带特征预处理
+        theta_mod = theta ** 0.7
+
         # 原始比值
-        raw = beta / (alpha + theta + 1e-10)
+        raw = beta / (alpha + theta_mod + 1e-10)
 
-        # Sigmoid 映射：让 raw 在 0.3-1.5 区间敏感
-        # 参数可调：
-        #   k = 12  (斜率，越大越陡)
-        #   x0 = 0.6 (中心点，raw=0.6时focus≈50)
-        k = 12.0
-        x0 = 0.6
-        focus = 100.0 / (1.0 + np.exp(-k * (raw - x0)))
+        exponent = 2.0
 
-        # 可选：添加滑动平均平滑
+        # 1. 防止脑电比值出现负数异常值
+        raw_input = max(raw, 0.0)
+
+        # 2. 2次幂纵轴压缩映射 (shrink_factor 从 config.ini 读取)
+        focus_raw = 100 * self.shrink_factor * (raw_input ** exponent)
+
+        # 3. 计算当前帧的瞬时分数 (基准量级 0-120)
+        instant_focus = 120 * (1.0 - np.exp(-focus_raw / 100.0))
+
+        # 4. 核心修改：三区间门限时域滤波
+        if self.last_focus is None:
+            # 冷启动：首帧直接赋值
+            focus = instant_focus
+        else:
+            # 判断当前瞬时分数是否处于【极端区】(80以上 或 60以下)
+            if instant_focus > 85.0 or instant_focus < 60.0:
+                # 执行异步低通时域滤波
+                if instant_focus >= self.last_focus:
+                    # 趋势上升：慢爬升
+                    focus = self.alpha_up * instant_focus + (1 - self.alpha_up) * self.last_focus
+                else:
+                    # 趋势下降：快跌落
+                    focus = self.alpha_down * instant_focus + (1 - self.alpha_down) * self.last_focus
+            else:
+                # 【高灵敏自由区】(60 <= instant_focus <= 80)
+                # 不执行异步滤波，分数直接跟随瞬时值，保证中间状态绝对跟手
+                focus = instant_focus
+
+        # 5. 更新历史状态缓存
+        self.last_focus = focus
+
+        # 打印在线调试日志，方便观察区间切换
+        zone_tag = "极端区(滤波)" if (instant_focus > 80 or instant_focus < 60) else "自由区(直通)"
+        print(f"原始特征比值 raw: {raw:.4f} | 瞬时分数: {instant_focus:.1f} | 滤波后分数: {focus:.1f}")
+
+        # 最终返回整型
         return int(focus)
 
+
     def calculate_all(self, data, fs, nperseg=1000):
         mean_x = np.mean(data, axis=-1, keepdims=True)
         data = data - mean_x
@@ -319,14 +346,16 @@ class Calculate():
             if eegData.size == 0:
                 return None
             eegData -= np.mean(eegData, axis=-1, keepdims=True)
-            eegData = signal.lfilter(self.b_notch, self.a_notch, eegData)
-            eegData = signal.lfilter(self.b_design, 1, eegData)
-            focus_score, CLI_score, beta, alpha, theta = self.calculate_all(eegData, fs=self.fs, nperseg=1000)
+            # eegData = signal.lfilter(self.b_notch, self.a_notch, eegData)    # 陷波
+            # eegData = signal.lfilter(self.b_design, 1, eegData)              # 滤波
+            focus_score, CLI_score, beta_psd, alpha_psd, theta_psd = self.calculate_all(eegData, fs=self.fs, nperseg=1000)
 
-            # self.add_data_point(focus_score, beta, alpha, theta)
+            # self.add_data_point(focus_score, beta_psd, alpha_psd, theta_psd)  # 已注释（方法已移除）
+
+            # return (focus_score)
+            return (focus_score, beta_psd)
+        # return None
 
-            return focus_score
-        return None
 
 
 class Calculate2():

config.ini

@@ -19,10 +19,10 @@ Serial_port = COM44
 algo_log_level = DEBUG
 console_output = 1
 
-
-; 64 导设备配置 1; 32 2; 24 3; 16 4; 8 5; 4 6;
-[device_type] = 1
-device_sample_rate = 250
-device_channel_nums = 66
-device_channel_names = ['FP1', 'FP2', 'PO6', 'POZ', 'F3', 'F4', 'FPZ', 'AF4', 'FC3', 'PO8', 'CP2', 'CP1', 'FCZ', 'PO5', 'FC2', 'FC1', 'C3', 'C4', 'FC4', 'CP4', 'P3', 'P4', 'F5', 'C5', 'F6', 'PO4', 'CP6', 'CP5', 'PO3', 'CP3', 'FC6', 'FC5', 'CB1', 'CB2', 'P5', 'AF7', 'A1', 'T7', 'FT7', 'TP7', 'FT8', 'AF8', 'F8', 'F7', 'P6', 'C6', 'O2', 'O1', 'T8', 'P7', 'CZ', 'PZ', 'P8', 'FZ', 'OZ', 'PO7', 'TP8', 'AF3', 'C2', 'C1', 'P2', 'P1', 'F2', 'F1', 'label', 'label_tag']
-device_channel_index = [0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, 34, 35, 36, 37, 38, 39, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49, 50, 51, 52, 53, 54, 55, 56, 57, 58, 59, 60, 61, 62, 63, 64, 65]
+; 64 导设备配置
+[device_type_1]
+sample_rate = 250
+frame_points = 5
+channel_nums = 66
+channel_names = ['FP1', 'FP2', 'PO6', 'POZ', 'F3', 'F4', 'FPZ', 'AF4', 'FC3', 'PO8', 'CP2', 'CP1', 'FCZ', 'PO5', 'FC2', 'FC1', 'C3', 'C4', 'FC4', 'CP4', 'P3', 'P4', 'F5', 'C5', 'F6', 'PO4', 'CP6', 'CP5', 'PO3', 'CP3', 'FC6', 'FC5', 'CB1', 'CB2', 'P5', 'AF7', 'A1', 'T7', 'FT7', 'TP7', 'FT8', 'AF8', 'F8', 'F7', 'P6', 'C6', 'O2', 'O1', 'T8', 'P7', 'CZ', 'PZ', 'P8', 'FZ', 'OZ', 'PO7', 'TP8', 'AF3', 'C2', 'C1', 'P2', 'P1', 'F2', 'F1', 'label', 'label_tag']
+channel_index = [0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, 34, 35, 36, 37, 38, 39, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49, 50, 51, 52, 53, 54, 55, 56, 57, 58, 59, 60, 61, 62, 63, 64, 65]

datamock.py

@@ -0,0 +1,138 @@
+import zmq
+import numpy as np
+import time
+from datetime import datetime
+
+# ========== 参数配置 ==========
+FS = 250              # 采样率 Hz
+N_SAMPLES_PER_PKT = 5  # 每包采样点数
+N_CHAN = 66           # 通道数: 64 EEG + 1 标签值 + 1 标签序号
+EEG_FREQ = 10         # EEG 正弦波频率 Hz
+EEG_AMP = 100.0      # EEG 幅值 100μV
+LABEL_INTERVAL = 5    # 标签间隔秒数
+SERVER_ADDR = 'tcp://127.0.0.1:8100'
+
+# 发送间隔: 每包 5 采样点 / 250Hz = 20ms
+PKT_INTERVAL = N_SAMPLES_PER_PKT / FS
+
+
+def build_packet(global_sample_idx):
+    """
+    生成一包 [5, 66] 的 float32 数据
+    :param global_sample_idx: 当前包第一个采样点在全局序列中的索引 (从 0 开始)
+    :return: np.ndarray shape [5, 66]
+    """
+    # 当前包内 5 个采样点对应的时间（秒）
+    t = (global_sample_idx + np.arange(N_SAMPLES_PER_PKT)) / FS
+
+    # Ch0-63: EEG 10Hz 正弦波，幅值 100μV
+    # t shape [5,]，sin 乘以标量后仍是 [5,]，需要 reshape 为 [5,1] 再广播到 64 通道
+    eeg = (EEG_AMP * np.sin(2 * np.pi * EEG_FREQ * t)).reshape(N_SAMPLES_PER_PKT, 1)  # [5, 1]
+    eeg = np.tile(eeg, (1, 64))  # [5, 64]
+
+    # Ch64: 标签值通道，初始化为 0
+    event = np.zeros((N_SAMPLES_PER_PKT, 1), dtype=np.float32)
+
+    # Ch65: 标签序号通道，初始化为 0
+    label_idx = np.zeros((N_SAMPLES_PER_PKT, 1), dtype=np.float32)
+
+    # 拼成 [5, 66]
+    packet = np.concatenate([eeg, event, label_idx], axis=1).astype(np.float32)
+    return packet
+
+
+def should_send_label(global_sample_idx):
+    """
+    判断当前包是否包含标签触发点（每 5s 的最后一个采样点）
+    采样点索引从 0 开始，每 5s = 1250 个采样点
+    最后一个采样点索引: 1249, 2499, 3749, ...
+    由于每包 5 个采样点，标签点落在包内的最后一个采样点位置
+    即当前包起始索引 global_sample_idx 必须使得:
+        global_sample_idx <= 标签点索引 < global_sample_idx + N_SAMPLES_PER_PKT
+    也就是 global_sample_idx <= 1249 < global_sample_idx + 5
+    即 global_sample_idx = 1245, 2495, 3745, ...
+    即 global_sample_idx = n * LABEL_INTERVAL * FS - N_SAMPLES_PER_PKT
+    """
+    samples_per_interval = LABEL_INTERVAL * FS
+    # 检查当前包是否包含 interval 的最后一个采样点
+    # 标签点索引 = n * 1250 - 1，当 global_sample_idx = n*1250-5 时，标签在包内索引 4
+    return (global_sample_idx + N_SAMPLES_PER_PKT - 1) % samples_per_interval == samples_per_interval - 1
+
+
+def main():
+    ctx = zmq.Context()
+    sock = ctx.socket(zmq.DEALER)
+    sock.connect(SERVER_ADDR)
+    print(f"[{datetime.now().strftime('%H:%M:%S')}] ZMQ Dealer 连接到 {SERVER_ADDR}")
+
+    global_sample_idx = 0       # 全局采样点计数器
+    label_type = 1              # 当前标签类型: 1 或 2
+    label1_count = 0            # label=1 的序号计数器
+    label2_count = 0            # label=2 的序号计数器
+    packet_count = 0            # 已发送包数
+
+    print(f"[{datetime.now().strftime('%H:%M:%S')}] 开始发送模拟数据 ...")
+    print(f"  采样率: {FS}Hz | 每包 {N_SAMPLES_PER_PKT} 采样点 | 发送间隔 {PKT_INTERVAL*1000:.0f}ms")
+    print(f"  EEG: {EEG_FREQ}Hz 正弦波 | 幅值 {EEG_AMP}μV")
+    print(f"  标签: 每 {LABEL_INTERVAL}s 末尾采样点触发 | label 1/2 交替")
+    print("-" * 50)
+
+    try:
+        while True:
+            t_start = time.perf_counter()
+
+            # 构建当前包
+            packet = build_packet(global_sample_idx)
+
+            # 检查是否需要放置标签
+            if should_send_label(global_sample_idx):
+                if label_type == 1:
+                    label1_count += 1
+                    label_value = 1
+                    label_number = label1_count
+                else:
+                    label2_count += 1
+                    label_value = 2
+                    label_number = label2_count
+
+                # 标签放在当前包最后一个采样点（索引 4）
+                packet[4, 64] = label_value
+                packet[4, 65] = label_number
+
+                ts = datetime.now().strftime('%H:%M:%S')
+                print(f"[{ts}] 标签触发: label={label_value}, 序号={label_number} "
+                      f"(global_sample_idx={global_sample_idx})")
+
+                # 交替标签类型
+                label_type = 2 if label_type == 1 else 1
+
+            # 发送: multipart 3帧 [identity, '', data]
+            sock.send_multipart([
+                b'datamock',
+                b'',
+                packet.tobytes()
+            ])
+
+            # 每 50 包打印一次进度
+            if packet_count % 50 == 0:
+                ts = datetime.now().strftime('%H:%M:%S')
+                print(f"[{ts}] 已发送 {packet_count} 包 (global_sample_idx={global_sample_idx})")
+
+            global_sample_idx += N_SAMPLES_PER_PKT
+            packet_count += 1
+
+            # 精确控制发送节奏: 等待到 PKT_INTERVAL 秒
+            elapsed = time.perf_counter() - t_start
+            sleep_time = PKT_INTERVAL - elapsed
+            if sleep_time > 0:
+                time.sleep(sleep_time)
+
+    except KeyboardInterrupt:
+        print(f"\n[{datetime.now().strftime('%H:%M:%S')}] 停止发送，共发送 {packet_count} 包")
+    finally:
+        sock.close()
+        ctx.term()
+
+
+if __name__ == '__main__':
+    main()

logs/log.py

@@ -1,51 +1,44 @@
-# log.py
 import os
 from datetime import datetime
 import logging
 from logging.handlers import RotatingFileHandler
+import inspect  # 新增导入
 from PubLibrary.InifileHelper import IniRead
 
 
 console_output = IniRead('system', 'console_output', '1')
 log_level = IniRead('system', 'algo_log_level', 'INFO')
-
-# 新增：日志去重缓存，key为日志内容，value为是否已打印
 log_once_cache = set()
 
+# 缓存已经创建过的logger，避免重复创建handler
+logger_cache = {}
 
-def init_module_logger():
-    """
-    初始化指定模块的日志器
-    :return: 对应模块的logger实例
-    """
-    # 缓存命中则直接返回
-    log_dir = './logs/'    # 确保日志目录存在
+def init_module_logger(logger_name):
+    log_dir = './logs/'
     os.makedirs(log_dir, exist_ok=True)
-
     log_file = os.path.join(log_dir, f'algo_log_{datetime.now().strftime("%Y-%m-%d")}.log')
 
-    # 初始化logger
-    logger = logging.getLogger('decoderLogger')
-    logger.setLevel(log_level)
+    # 已创建直接返回
+    if logger_name in logger_cache:
+        return logger_cache[logger_name]
 
+    logger = logging.getLogger(logger_name)
+    logger.setLevel(log_level)
     if logger.handlers:
+        logger_cache[logger_name] = logger
         return logger
 
-    # 设置日志轮转，最大10个文件，每个10MB
     file_handler = RotatingFileHandler(
         log_file,
         maxBytes=10*1024*1024,
         backupCount=10,
         encoding='utf-8'
     )
-    
-    # 日志格式
     formatter = logging.Formatter(
         '%(asctime)s - %(name)s - %(levelname)s - %(message)s',
         datefmt='%Y-%m-%d %H:%M:%S'
     )
     file_handler.setFormatter(formatter)
-    logger.setLevel(log_level)
     logger.addHandler(file_handler)
 
     if console_output:
@@ -53,27 +46,26 @@ def init_module_logger():
         console_handler.setFormatter(formatter)
         logger.addHandler(console_handler)
 
+    logger_cache[logger_name] = logger
     return logger
 
-def algo_log(content, level="INFO", record_once=False):
-    """
-    通用日志函数，支持按模块输出到不同日志文件
-    :param content: 日志内容
-    :param level: 日志级别（DEBUG/INFO/WARNING/ERROR/FATAL）
-    :param record_once: 是否只打印一次该日志内容，默认False
-    """
-    # 初始化模块日志器
-    logger = init_module_logger()
 
-    # 新增：处理只打印一次的逻辑
+def algo_log(content, level="INFO", record_once=False):
+    # 向上回溯1层栈，拿到调用algo_log的代码文件信息
+    frame = inspect.currentframe().f_back
+    file_path = frame.f_code.co_filename
+    # 提取py文件名（不带后缀/带后缀自选）
+    file_name = os.path.basename(file_path)  # 例：zmqServer.py
+    # file_name = os.path.splitext(os.path.basename(file_path))[0] # 例：zmqServer
+
+    logger = init_module_logger(file_name)
+
     if record_once:
-        # 生成唯一标识（可根据需要调整，比如拼接level增强唯一性）
         log_key = f"{level.upper()}_{content}"
         if log_key in log_once_cache:
-            return  # 已打印过，直接返回
-        log_once_cache.add(log_key)  # 未打印过，加入缓存
+            return
+        log_once_cache.add(log_key)
 
-    # 根据级别输出日志
     level_upper = level.upper()
     if level_upper == "DEBUG":
         logger.debug(content)
@@ -83,5 +75,5 @@ def algo_log(content, level="INFO", record_once=False):
         logger.error(content)
     elif level_upper == "FATAL":
         logger.fatal(content)
-    else:  # 默认INFO级别
+    else:
         logger.info(content)

runDecoder.py

@@ -6,32 +6,33 @@ import time
 from Decoder import Decoder_main
 from PubLibrary.RunOnce import is_program_running
 from PubLibrary.InifileHelper import IniRead
+from logs.log import algo_log
 
 def get_device_info(device_type):
     
-    
     section = f'device_type_{device_type}'
     device_info = {
-        'device_sample_rate': int(IniRead(section, 'sample_rate')) if IniRead(section, 'sample_rate') is not None else 250,
-        
-        ''
+        'sample_rate': int(IniRead(section, 'sample_rate')) if IniRead(section, 'sample_rate') is not None else 250,
+        'frame_points': int(IniRead(section, 'frame_points')) if IniRead(section, 'frame_points') is not None else 5,
+        'channel_nums': int(IniRead(section, 'channel_nums')) if IniRead(section, 'channel_nums') is not None else 66,
+        'channel_names': IniRead(section, 'channel_names') if IniRead(section, 'channel_names') is not None else None,
+        'channel_index': IniRead(section, 'channel_index') if IniRead(section, 'channel_index') is not None else None, 
     }
     
+    return device_info
+
+
 if __name__ == "__main__":
     if not is_program_running():
         # 解析命令行参数
-        parser = argparse.ArgumentParser(description="EEG Decoder Application")
-        parser.add_argument('-dt', '-t','--device-type', type=int, default=None, help="Device Type")
+        # parser = argparse.ArgumentParser(description="EEG Decoder Application")
+        # parser.add_argument('-dt', '-t','--device-type', type=int, default=None, help="Device Type")
         # parser.add_argument('-dh', '--device-host', type=str, default=None, help="Device Host IP")
         # parser.add_argument('-dp', '--device-port', type=int, default=None, help="Device Port")
         # parser.add_argument('-uh', '--upper-host', type=str, default=None, help="Upper Computer Host IP")
         # parser.add_argument('-up', '--upper-port', type=int, default=None, help="Upper Computer Port")
+        # args = parser.parse_args()
 
-        args = parser.parse_args()
-        device_info= get_device_info(args.device_type)
-        
-
-        decoder = Decoder_main(device_info=device_info)
         # decoder.connect(
         #     device_type=args.device_type,
         #     device_host=args.device_host,
@@ -40,6 +41,10 @@ if __name__ == "__main__":
         #     upper_port=args.upper_port
         # )
 
+        device_info= get_device_info(1)
+        algo_log(f"device_info: {device_info}", level="INFO")
+        decoder = Decoder_main(device_info=device_info)
+
         try:
             decoder.start()
             while not decoder.zmqServer.IsExitApp: