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  • Product Series

    • FPGA+ARM

      • GM-3568JHF

        • Introduction

          • GM-3568JHF Introduction
        • Quick Start

          • Preface
          • Environment Setup
          • Compilation Notes
          • Flashing Guide
          • Debugging Tools
          • Software Update
          • Viewing System Information
          • Test Commands
          • Application Compilation
          • Source Code Access
        • Peripherals & Interfaces

          • USB
          • Display and Touch
          • Ethernet
          • WIFI
          • Bluetooth
          • TF-Card
          • Audio
          • Serial Port
          • CAN
          • RTC
        • Application Development

          • UART Read/Write Demo
          • Key Detection Demo
          • LED Blink Demo
          • MIPI Screen Detection Demo
          • Read USB Device Information Demo
          • FAN Detection Demo
          • FPGA FSPI Communication Demo
          • FPGA DMA Read/Write Demo
          • GPS Debugging Demo
          • Ethernet Test Demo
          • RS485 Read/Write Demo
          • FPGA I2C Read/Write Demo
          • PN532 NFC Card-Reading Demo
          • TF Card Read/Write Demo
        • QT Development

          • ARM64 Cross-Compiler Environment Setup
          • Adding a QT Program to Boot Auto-Start
        • RKNN_NPU Development

          • RK3568 NPU Overview
          • Development Environment Setup
          • Run the Official YOLOv5 Example
        • FPGA Development

          • ARM and FPGA Communication
          • FPGA Development Manual
        • Others

          • Modifying the Root Filesystem
          • System Auto-Start Services
        • Downloads

          • Downloads
      • MB-E30P

        • Introduction

          • MB-E30P Introduction
        • Quick Start

          • Preface
          • Environment Setup
          • Compilation Instructions
          • Flashing Guide
          • Debugging Tools
          • Software Update
          • Viewing Information
          • Test Commands
          • Application Compilation
          • Source Code Acquisition
        • Peripherals & Interfaces

          • USB
          • Display and Touch
          • Ethernet
          • WIFI
          • Bluetooth
          • TF-Card
          • Audio
          • RTC
        • Application Development

          • Key Detection Demo
          • LED Blink Demo
          • MIPI Screen Detection Demo
          • Read USB Device Information Demo
          • FAN Detection Demo
          • FPGA FSPI Communication Demo
          • FPGA DMA Read/Write Demo
          • Ethernet Test Demo
          • FPGA IIC Read/Write Demo
          • PN532 NFC Card Reading Demo
          • TF Card Read/Write Demo
        • QT Development

          • ARM64 Cross-Compiler Environment Setup
          • Adding a QT Program to the Boot Auto-Start Service
        • RKNN_NPU Development

          • RK3568 NPU Overview
          • Development Environment Setup
          • Run the Official YOLOv5 Example
          • Model Conversion In Detail
          • Run Custom Models on the Board
        • FPGA Development

          • ARM and FPGA Communication
          • FPGA Development Manual
        • Others

          • Modifying the Root Filesystem
          • System Auto-Start Service
        • Downloads

          • Downloads
    • ShimetaPi

      • M4-R1

        • Introduction

          • M4-R1 Introduction
        • Quick Start

          • OpenHarmony Overview
          • Image Burning
          • Application Development Quick Start
          • Device Development Quick Start
        • Application Development

          • ArkUI

            • ArkTS Language Overview
            • UI Components - Row Container Introduction
            • UI Components - Column Container Introduction
            • UI Components - Text Component
            • UI Components - Toggle Component
            • UI Components - Slider Component
            • UI Components - Animation Component & Transition Component
          • Documentation

            • OpenHarmony Official Materials
          • Development Notes

            • Full-SDK Replacement Tutorial
            • Introducing and Using Third-Party Libraries
            • HDC Debugging
            • Restore Factory Mode via Command Line
            • Upgrade App to System Permission
          • First App

            • Build Your First ArkTS Application - HelloWorld
          • Demos

            • Serial-Debug-Assistant Application Demo
            • Writing-Board Application Demo
            • Digital Clock Application Demo
            • Wi-Fi Information Acquisition Application Demo
        • Device Development

          • Ubuntu Development

            • Environment Setup
            • Download Source Code
            • Compile Source Code
          • DevEco Device Tool

            • Tool Introduction
            • Development Environment Construction
            • Import the SDK
            • HUAWEI DevEco Tool Function Introduction
        • Kernel Peripherals & Interfaces

          • Guide
          • Device Tree Introduction
          • NAPI Introduction
          • ArkTS Introduction
          • NAPI Development Hands-on Demo
          • GPIO Introduction
          • I2C Communication
          • SPI Communication
          • PWM Control
          • UART Communication
          • TF Card (MicroSD)
          • Screen (Display)
          • Touch
          • Ethernet
          • M.2 SSD
          • Audio
          • WIFI & BT
          • Camera
        • Downloads

          • Downloads
      • M5-R1

        • Introduction

          • M5-R1 Development Docs
        • Quick Start

          • Image Burning
          • Environment Setup
          • Download Source Code
        • Peripherals & Interfaces

          • Raspberry Pi Interfaces
          • GPIO Interface
          • I2C Interface
          • SPI Communication
          • PWM Control
          • Serial Port Communication
          • TF Card
          • Display
          • Touch
          • Audio
          • RTC
          • Ethernet
          • M.2
          • MINI-PCIE
          • Camera
          • WIFI & BT
        • Downloads

          • Downloads
      • Pico-G1

        • Product Overview

          • Product Introduction
          • SDK Version Information
        • Quick Start

          • Development Environment Setup
          • Image Build
          • Image Flashing
          • System Login
          • Network Configuration
          • File Transfer
          • SDK Directory Structure
          • Deploying Your First Application
          • Deploying Your First Driver
          • Mounting an SD Card
        • Peripherals & Interfaces

          • GPIO Control
          • UART Serial Communication
          • I2C Communication
          • SPI Communication
        • MPP Media Development

          • MPP Media Processing Software
          • Image Processing Chain
          • Video Input
          • Image Encoding
        • NPU & AI

          • NPU Driver and Runtime Library Architecture
          • .xmm Model Loading
          • SVP Video Processing
          • AI Noise Reduction (AI_NR)
        • Application Samples

          • Encryption/Decryption Application
          • ADC Acquisition Application
          • Low-Power Application
          • Audio Processing Application
          • Video Encoding Application
          • Video Input Application
          • Video Graphics Subsystem (VGS) Application
          • 08 Region Overlay Application
          • 09 Intelligent Video Engine Application
          • 10 UVC Webcam Application
          • 11 All-in-One Quickstart Application
          • 12 FPN Correction Application
          • 13 Regional Motion Detection Application
          • 14 MTCNN Face Detection Application
        • Expansion Board Peripheral Examples

          • 00 - Pico Expansion Board Peripheral Examples Overview
          • 01 - OLED Display Application
          • 02 - TFT Display Application
          • 03 - MPU6050 Gyroscope Application
          • 04 - ADC Acquisition Application
          • 05 - Passive Buzzer Application
          • 06 - MQ Gas Sensor Application
          • 07 - GPS Positioning Application
          • 08 - SHT20 Temperature & Humidity Application
          • 09 - Ultrasonic Ranging Application
          • 10 - SpO2 Sensor Application
          • 11 - DC Motor Control Application
          • 12 - Servo Control Application
    • OpenHarmony

      • SC-3568HA

        • Introduction

          • SC-3568HA Overview
        • Quick Start Guide

          • OpenHarmony Overview
          • Image Flashing
          • Setting Up the Development Environment
          • Hello World Application and Deployment
        • Application Development

          • ArkUI

            • Introduction to ArkTS Language
            • Introduction to UI Components and Practical Applications (Part 1)
            • Introduction to UI Components and Practical Applications (Part 2)
            • Introduction to UI Components and Practical Applications (Part 3)
          • Expand

            • Getting Started Guide
            • Referencing and Using Third-Party Libraries
            • Application Compilation and Deployment
            • Command-Line Factory Reset
            • System Debugging -- HDC Debugging
            • APP Stability Testing
            • Chapter 7 Application Testing
        • Device Development

          • Environment Setup
          • Download Source Code
          • Compiling Source Code
        • Peripheral And Interface

          • Raspberry Pi interface
          • GPIO Interface
          • I2C Interface
          • SPI communication
          • PWM (Pulse Width Modulation) control
          • Serial port communication
          • TF Card
          • Display Screen
          • Touch
          • Audio
          • RTC
          • Ethernet
          • M.2
          • MINI-PCIE
          • Camera
          • WIFI&BT
          • Raspberry Pi expansion board
        • Downloads

          • Downloads
      • M-K1HSE

        • Introduction

          • M-K1HSE Introduction
        • Quick Start

          • Development environment construction
          • Source code acquisition
          • Compilation Notes
          • Burning Guide
        • Application Development

          • Application Development Environment Setup
          • First Application - Hello World
        • Peripherals and interfaces

          • 01 Audio
          • 02 RS485
          • 03 Display
        • System customization development

          • System transplant
          • System customization
          • Driver Development
          • System Debugging
          • OTA Update
        • Downloads

          • Downloads
    • HVS Camera

      • Quick Start

        • SDK Overview
        • Downloads
        • Your First C++ Program
        • Python Data Analysis
        • MultiVision Studio
      • Development

        • Programming Guides

          • Open Camera
          • Read Events
          • Recording & Replay
          • Event Processing (Denoising)
          • Display & Visualization
          • Tuning
          • Capture APS Image
        • Toolkit SDK

          • Hybrid Vision Toolkit
          • Quick Start
          • C++ API
          • Python API
        • Algorithm

          • Hybrid Vision Algo
          • Hybrid Vision Algo API
          • Windows Algo SDK
        • Samples Overview
        • Applications
      • Fundamentals

        • Event Camera Fundamentals
        • HVS Hybrid Vision
        • Event Visualization
        • Data Formats Reference
        • Glossary
        • Bias & Tuning
        • Video Tutorials
      • USB Cameras

        • HVS Camera Quick Start
        • Networking Capabilities

          • HVS Camera System Architecture
          • EVS Network Server
          • EVS Time Sync
          • Web Window
        • HVS Camera Compatibility Matrix
        • FAQ & Troubleshooting Guide
        • Products

          • CF-NRS1 (Lingguang No.1 Hybrid Vision Camera)
      • MIPI Modules

        • MIPI Module Quick Start
        • Carrier Boards

          • RDK X5 Carrier Board Adaptation
          • Raspberry Pi Carrier Board Adaptation
          • Digua Pi Carrier Board Adaptation
          • ShimeTai Board Carrier Board Adaptation
        • MIPI Module Compatibility Matrix
        • Products

          • EVS_003 Sensor Module
    • AI-model

      • 1684XB-32T

        • Introduction

          • AIBOX-1684XB-32 Introduction
        • Quick Start

          • First Use
          • Network Configuration
          • Disk Usage
          • Memory Allocation
          • Fan Control Strategy
          • Firmware Upgrade
          • Cross Compilation
          • Model Quantization
        • Application Development

          • Development Overview

            • Sophgo SDK Development
            • Sophgo Demo Introduction
          • Large Language Models

            • Deploying Llama3 Example
            • Sophon LLM_api_server Development
            • Deploying MiniCPM-V-2_6
            • Qwen-2-5-VL Image and Video Recognition Demo
            • Qwen3-chat Demo
            • Qwen3-Qwen Agent-MCP Development
            • Qwen3-langchain-AI Agent
          • Deep Learning

            • ResNet (Image Classification)
            • LPRNet (License Plate Recognition)
            • SAM (General Image Segmentation Foundation Model)
            • YOLOv5 (Object Detection)
            • OpenPose (Human Keypoint Detection)
            • PP-OCR (Optical Character Recognition)
        • Downloads

          • Downloads
      • 1684X-416T

        • Introduction

          • AIBOX-1684X-416 Introduction
        • Demo Quick Guide

          • ShimeTai Intelligent Monitoring Demo Quick Usage Guide
      • RDK-X5

        • Introduction

          • RDK-X5 Hardware Introduction
        • Quick Start

          • RDK-X5 Quick Start
        • Application Development

          • AI Online Model Development

            • Experiment 01 - Access Volcengine Doubao AI
            • Experiment 02 - Image Analysis
            • Experiment 03 - Multimodal Visual Analysis & Localization
            • Experiment 04 - Multimodal Image-Text Comparison
            • Experiment 05 - Multimodal Document/Table Analysis
            • Experiment 06 - Camera-based AI Visual Analysis
          • Large Language Models

            • Experiment 01 - Speech Recognition
            • Experiment 02 - Voice Conversation
            • Experiment 03 - Multimodal Image Analysis - Voice
            • Experiment 04 - Multimodal Image Comparison - Voice
            • Experiment 05 - Multimodal Document Analysis - Voice
            • Experiment 06 - Multimodal Vision Application - Voice
          • ROS2 Basics

            • Experiment 01 - Environment Setup
            • Experiment 02 - Create & Build a Workspace Package
            • Experiment 03 - Run ROS2 Topic Communication Node
            • Experiment 04 - ROS2 Camera Application
          • 40-pin IO Development

            • Experiment 01 - GPIO Output (LED Blink)
            • Experiment 02 - GPIO Input
            • Experiment 03 - Button-controlled LED
            • Experiment 04 - PWM Output
            • Experiment 05 - Serial Output
            • Experiment 06 - I2C Experiment
            • Experiment 07 - SPI Experiment
          • USB Module Usage

            • Experiment 01 - USB Voice Module Usage
            • Experiment 02 - Sound Source Localization Module
          • Machine Vision Practice

            • Experiment 01 - Open USB Camera
            • Experiment 02 - Color Recognition
            • Experiment 03 - Gesture Recognition
            • Experiment 04 - YOLOv5 Object Detection
      • RDK-S100

        • Introduction

          • RDK-S100 Hardware Introduction
        • Quick Start

          • RDK-S100 Quick Start
        • Application Development

          • AI Online Model Development

            • Experiment 01 - Access Volcengine Doubao AI
            • Experiment 02 - Image Analysis
            • Experiment 03 - Multimodal Visual Analysis & Localization
            • Experiment 04 - Multimodal Image-Text Comparison
            • Experiment 05 - Multimodal Document/Table Analysis
            • Experiment 06 - Camera-based AI Visual Analysis
          • Large Language Models

            • Experiment 01 - Speech Recognition
            • Experiment 02 - Voice Conversation
            • Experiment 03 - Multimodal Image Analysis - Voice
            • Experiment 04 - Multimodal Image Comparison - Voice
            • Experiment 05 - Multimodal Document Analysis - Voice
            • Experiment 06 - Multimodal Vision Application - Voice
          • ROS2 Basics

            • Experiment 01 - Environment Setup
            • Experiment 02 - Create & Build a Workspace Package
            • Experiment 03 - Run ROS2 Topic Communication Node
            • Experiment 04 - ROS2 Camera Application
          • 40-pin IO Development

            • Experiment 01 - GPIO Output (LED Blink)
            • Experiment 02 - GPIO Input
            • Experiment 03 - Button-controlled LED
            • Experiment 04 - PWM Output
            • Experiment 05 - Serial Output
            • Experiment 06 - I2C Experiment
            • Experiment 07 - SPI Experiment
          • USB Module Usage

            • Experiment 01 - USB Voice Module Usage
            • Experiment 02 - Sound Source Localization Module
          • Machine Vision Practice

            • Experiment 01 - Open USB Camera
            • Experiment 02 - Image Processing Basics
            • Experiment 03 - Object Detection
            • Experiment 04 - Image Segmentation
      • RK1828

        • Introduction

          • M5-182X-A1 AI Edge Box - Product Introduction
          • M5-182X-A1 Hardware Specifications
          • M5-182X-A1 Usage & Safety
        • Quick Start

          • M5-182X-A1 Image Flashing
          • RK182X Hardware Installation & Verification
          • RK182X Development Environment Quick Setup
          • RK182X SDK Overview
          • RK182X Environment Setup in Detail
          • RK182X Quick Start
          • Vendor SDK Data Extraction Record
        • Development Guide

          • ClawChips Architecture and Principles
          • SKILL User Manual
          • RK182X Series LLM Inference (RK1828 Model)
          • RK182X Series CNN Inference (RK1828 Model)
          • Model Conversion
          • RK182X AI Agent Application Development Guide
          • RK182X Industrial Anomaly Detection Application
        • SDK Reference

          • RKNN3-SDK Overview

            • RKNN3 SDK Overview
          • RKNN3-Toolkit

            • RKNN3 Toolkit Installation and Usage
          • RKLLM

            • RKLLM On-Device LLM Inference
          • RK182X Series NPU Overview and Architecture (RK1828 Model)
          • RK182X INT8 Quantized Inference Deployment
          • RK182X MPP Multimedia Framework
          • MPP Details

            • RK182X Video Decoding
            • RK182X Video Encoding
          • NPU Details

            • RKNN Model Conversion
            • RK182X NPU INT8 Quantized Inference
            • RK182X Multi-Model Parallel Inference
          • RGA Details

            • RK182X RGA 2D Graphics Acceleration
          • VPU Details

            • RK182X VPU Codec
        • Hardware Reference

          • RK182X Series Hardware Architecture Overview (RK1828 Model)
          • RK182X Pin Definitions and Multiplexing Configuration
          • RK182X Pin Definitions
          • RK182X Power Management
          • RK182X Clock and PLL Configuration
          • RK182X Clock and Frequency Configuration
        • Tutorials

          • Hello World
          • Hello RK1828 - The First Program
          • RTSP Streaming
          • RTSP Streaming + AI Analysis
          • ShiMetaPi AI Lobster One-Click Deployment
          • PaddleOCR-VL Text Recognition
          • Qwen3-1.7B LLM Text Chat
          • AI Multi-View Inspection (Qwen3-VL Wrapper)
          • YOLOv5 Object Detection
        • Downloads

          • Downloads
        • FAQ

          • FAQ
    • Core-Board

      • C-3568BQ

        • Introduction

          • C-3568BQ Overview
      • C-3588LQ

        • Introduction

          • C-3588LQ Overview
      • GC-3568JBAF

        • Introduction

          • GC-3568JBAF Overview
      • C-K1BA

        • Introduction

          • C-K1BA Overview
    • Software Platform

      • ShiMetaPi Workbench

        • Introduction

          • Product Overview
          • Core Architecture
          • Feature Entries
          • Supported Hardware
          • Release Notes
        • Quick Start

          • Install & Login
          • Connect the Device
          • Set Up the Environment
          • Connect to AIHub
          • First Inference
        • User Guide

          • Workspace Overview
          • Device Manager
          • Model Market
          • One-Click Deploy
          • Vision — SVP
          • Vision - Custom Models
          • shimeta-py IDE
          • Terminal
          • Agent Debug Assistant
          • Settings and Resources
        • FAQ

          • Installation & Login
          • Device Connection
          • Models & Deployment
          • Vision & Runtime
          • Settings & Other
      • ShimetaPi Repository

        • Introduction

          • ShimetaPi Software Repository
        • Pico G1 (GK7206)

          • Quick Start

            • Installation & First Inference
            • shimeta_infer — Image Inference
            • shimeta_camera — Real-time Camera Inference
            • SVP Scene Detection
            • File Transfer & Built-in Model Reference
            • FAQ
          • HTTP API & Python SDK

            • HTTP API Reference
      • Model Fine-tuning Platform

        • Introduction

          • Model Training Platform
        • Quick Start

          • Register & Login
          • Create Your First Model (30-Minute Quick Experience)
        • Training Guide

          • Data Preparation & Annotation
          • Training Parameter Configuration
          • Start & Monitor Training
          • Model Evaluation & Testing
        • Model Deployment

          • Export Model
          • Deploy to Edge Device

HTTP API Reference

shimeta_camera and shimeta_svp automatically provide HTTP APIs on port 8080 once started.


1. shimeta_camera

GET /api/status

Returns real-time inference status and detection results.

{
  "total_frames": 150,
  "fps": 18.5,
  "infer_ms": 12.3,
  "detections": [
    {
      "class_id": 0,
      "label": "person",
      "conf": 0.92,
      "x1": 100,
      "y1": 200,
      "x2": 300,
      "y2": 400
    }
  ]
}
FieldTypeDescription
total_framesintCumulative frame count
fpsfloatReal-time frame rate
infer_msfloatInference time (milliseconds)
detectionsarrayDetection results
detections[].class_idintClass ID (0=person, 1=bicycle, ...)
detections[].labelstringClass name
detections[].conffloatConfidence (0-1)
detections[].x1,y1,x2,y2intBounding box coordinates

GET /api/snapshot

Returns current frame JPEG snapshot.

Content-Type: image/jpeg

GET /stream

MJPEG live video stream.

Content-Type: multipart/x-mixed-replace; boundary=frame

2. shimeta_svp

GET /

Returns detection results for the current SVP task. Response format varies by task type.

person / head / car / bike / fireworks

{
  "task": "head",
  "fps": 22.5,
  "total": 300,
  "dets": [
    {
      "class": 4,
      "conf": 88,
      "x1": 100,
      "y1": 200,
      "x2": 150,
      "y2": 280
    }
  ]
}
FieldTypeDescription
taskstringTask name
fpsfloatReal-time frame rate
totalintCumulative frames
dets[].classintClass ID (4=head, 0=person, ...)
dets[].confintConfidence percentage (0-100)
dets[].x1,y1,x2,y2intBounding box coordinates (640×360 space)

person_kp

Adds kp field (17-point human keypoints) to dets:

{
  "task": "person_kp",
  "fps": 22.5,
  "total": 300,
  "dets": [
    {
      "class": 8,
      "conf": 73,
      "x1": 100,
      "y1": 200,
      "x2": 250,
      "y2": 350,
      "kp": [
        [320, 50, 0.9],
        [310, 45, 0.8]
      ]
    }
  ]
}
FieldDescription
kp[][0]Keypoint X coordinate
kp[][1]Keypoint Y coordinate
kp[][2]Keypoint confidence (0-1)

17-point order: nose, left_eye, right_eye, left_ear, right_ear, left_shoulder, right_shoulder, left_elbow, right_elbow, left_wrist, right_wrist, left_hip, right_hip, left_knee, right_knee, left_ankle, right_ankle

face_emo

{
  "task": "face_emo",
  "fps": 22.5,
  "total": 300,
  "faces": [
    {
      "emotion": "SMILE",
      "conf": 88,
      "x1": 200,
      "y1": 100,
      "x2": 280,
      "y2": 200
    }
  ]
}
emotion ValueDescription
SMILESmiling
NORMALNeutral
UNKNOWNUnknown

dms

{
  "task": "dms",
  "fps": 22.5,
  "total": 300,
  "dms": [
    {
      "fatigue": 1,
      "phone": 0,
      "cigar": 1,
      "x1": 150,
      "y1": 80,
      "x2": 350,
      "y2": 320
    }
  ],
  "phone_boxes": [{ "x1": 260, "y1": 180, "x2": 290, "y2": 210 }],
  "cigar_boxes": [{ "x1": 270, "y1": 160, "x2": 285, "y2": 175 }]
}
FieldDescription
dms[].fatigueFatigue flag (0/1, eyes closed or yawning)
dms[].phonePhone detection count
dms[].cigarCigarette detection count
phone_boxesPhone location boxes
cigar_boxesCigarette location boxes

3. Python SDK

shimeta_camera Client

"""
ShiMeta Camera Client — single file, copy & use
Usage:
    from camera_client import Camera
    cam = Camera("192.168.49.10:8080")
    for d in cam.detect(): print(d.label, d.conf)
"""
import requests, time
from collections import namedtuple

Detection = namedtuple("Detection",
    ["class_id","label","conf","x1","y1","x2","y2","center"])

class Camera:
    def __init__(self, host, timeout=2.0):
        if ":" not in host: host = host + ":8080"
        self._base = f"http://{host}"
        self._timeout = timeout

    def status(self):
        """Full status: frames, fps, infer_ms, det_count"""
        return self._get("/api/status")

    def detect(self, class_name=None, min_conf=0.0):
        """Detection results, filterable by class name and min confidence"""
        j = self._get("/api/status")
        result = []
        for d in j.get("detections", []):
            label = d.get("label") or f"cls_{d.get('class_id',0)}"
            conf = float(d.get("conf", 0))
            if class_name and label != class_name: continue
            if conf < min_conf: continue
            x1,y1,x2,y2 = int(d["x1"]),int(d["y1"]),int(d["x2"]),int(d["y2"])
            result.append(Detection(d["class_id"],label,conf,x1,y1,x2,y2,
                         ((x1+x2)/2,(y1+y2)/2)))
        return result

    def snapshot(self, save_path):
        """Save current frame JPEG snapshot"""
        r = requests.get(f"{self._base}/api/snapshot", timeout=self._timeout)
        with open(save_path, "wb") as f: f.write(r.content)
        return save_path

    def stream_url(self):  return f"{self._base}/stream"
    def snapshot_url(self): return f"{self._base}/api/snapshot"

    def wait_online(self, timeout=30):
        deadline = time.time() + timeout
        while time.time() < deadline:
            try: self.status(); return True
            except: time.sleep(0.5)
        return False

    def _get(self, path):
        r = requests.get(f"{self._base}{path}", timeout=self._timeout)
        r.raise_for_status()
        return r.json()

shimeta_svp Client

class SVP:
    def __init__(self, host, timeout=2.0):
        if ":" not in host: host = host + ":8080"
        self._base = f"http://{host}"
        self._timeout = timeout

    def status(self):
        """Get SVP task status and detection results"""
        return self._get("/")

    def detect(self):
        """Return normalized detection list"""
        j = self._get("/")
        result = []

        # Standard detection format
        for d in j.get("dets", []):
            result.append({
                "class": d["class"],
                "conf": d["conf"] / 100.0,   # Convert to 0-1
                "bbox": (d["x1"], d["y1"], d["x2"], d["y2"])
            })

        # Face recognition
        for f in j.get("faces", []):
            result.append({
                "name": f.get("name", ""),
                "sim": f.get("sim", 0),
                "emotion": f.get("emotion", ""),
                "bbox": (f["x1"], f["y1"], f["x2"], f["y2"])
            })

        # Driver monitoring
        for d in j.get("dms", []):
            result.append({
                "fatigue": d.get("fatigue", 0),
                "phone": d.get("phone", 0),
                "cigar": d.get("cigar", 0)
            })

        return result

    def _get(self, path):
        r = requests.get(f"{self._base}{path}", timeout=self._timeout)
        r.raise_for_status()
        return r.json()

Usage Examples

# ---- shimeta_camera ----
cam = Camera("192.168.49.10")
cam.wait_online()

# Filter by class
people = cam.detect(class_name="person", min_conf=0.5)
for p in people:
    print(f"Person @ ({p.center[0]:.0f}, {p.center[1]:.0f}) conf={p.conf:.0%}")

# All detections (label determined by model's labels.txt, not hardcoded COCO)
all = cam.detect(min_conf=0.3)
for d in all:
    print(f"{d.label} conf={d.conf:.2f} box=({d.x1},{d.y1})-({d.x2},{d.y2})")

# Status monitoring
st = cam.status()
print(f"FPS:{st.get('fps',0):.1f} inference:{st.get('infer_ms',0):.1f}ms")

# Save snapshot
cam.snapshot("frame.jpg")

# Stream URL
print(cam.stream_url())    # http://IP:8080/stream


# ---- shimeta_svp ----
svp = SVP("192.168.49.10")
j = svp.status()
task = j.get("task", "")

if "dets" in j:       # person/head/car/pet etc.
    for d in j["dets"]:
        print(f"class={d['class']} conf={d['conf']}% box=({d['x1']},{d['y1']})-({d['x2']},{d['y2']})")
elif "faces" in j:    # face_recog / face_emo
    for f in j["faces"]:
        print(f"{f.get('name','?')}{f.get('emotion','')} sim={f.get('sim',0)}% box=({f['x1']},{f['y1']})-({f['x2']},{f['y2']})")
elif "dms" in j:      # dms
    for d in j["dms"]:
        print(f"fatigue={d['fatigue']} phone={d['phone']} cigar={d['cigar']}")

Snapshot Capture

import requests
from PIL import Image
from io import BytesIO

r = requests.get("http://192.168.49.10:8080/api/snapshot")
img = Image.open(BytesIO(r.content))
img.save("frame.jpg")

OpenCV Streaming

import cv2

# MJPEG stream (shimeta_camera)
cap = cv2.VideoCapture("http://192.168.49.10:8080/stream")

# RTSP stream (shimeta_svp)
cap = cv2.VideoCapture("rtsp://192.168.49.10:554/livestream/0")

while True:
    ret, frame = cap.read()
    if ret: cv2.imshow("Camera", frame)
    if cv2.waitKey(1) & 0xFF == ord('q'): break

4. General Notes

  • Label resolution: The label field is provided by labels.txt inside the model zip; when the server doesn't send a label, the SDK falls back to cls_{id} format. COCO class names are not hardcoded.
  • Coordinate space: SVP coordinates are 640×360 (output resolution) — scale as needed for display
  • Update frequency: Every frame (~22-25fps)
  • CORS: Response headers include Access-Control-Allow-Origin: *
  • Port: Default 8080, shared by shimeta_camera and shimeta_svp — they cannot run simultaneously
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