24c1.3x Camera Driver Upd May 2026
Because these cameras are often generic "no-name" brand devices, there isn't a single official website to download the driver. Below are the steps to put together the driver installation based on your operating system.
Build and load the module
make -C /lib/modules/$(uname -r)/build M=$(pwd) sudo modprobe gspca_mr97310a
If success, check with v4l2-ctl --list-devices. You may need to add options gspca_mr97310a force_sensor=1 to /etc/modprobe.d/24c1.conf.
Method 2: Checking the Hardware ID (Precise Method)
If Windows Update fails, you need to identify the exact hardware to find the driver manually.
- In Device Manager, right-click the device and select Properties.
- Go to the Details tab.
- Under the "Property" dropdown, select Hardware Ids.
- Look for a value like
USB\VID_0c45&PID_24C1.- If the VID is
0c45, you likely need a Sonix camera driver. - If the VID is different (e.g.,
0408for Positivo/Baanto), you need the driver corresponding to that Vendor ID.
- If the VID is
1. Code 10 (Device Cannot Start)
- Cause: IRQ conflict or corrupted firmware token.
- Fix: Uninstall device from Device Manager, tick "Delete driver software", then reboot and reinstall the legacy package (v2.0.1, not v2.1.4).
Option 1: Automatic Installation (Windows)
If you are on Windows 10 or Windows 11, the driver usually installs automatically.
- Plug the camera into a USB port.
- Open Device Manager (Search "Device Manager" in the Start menu).
- Look under Cameras or Imaging devices.
- If you see the device listed without a warning icon, it is ready to use.
- If you see a yellow triangle, right-click the device and select Update driver -> Search automatically for drivers.
Short example (Linux device-tree snippet)
camera0: camera@24
compatible = "vendor,24c1-3x";
reg = <0x24>; /* I2C address */
port
camera_ep: endpoint
remote-endpoint = <&csi_ep>;
bus-width = <2>;
;
;
clocks = <&camera_clk>;
reset-gpios = <&gpio 23 GPIO_ACTIVE_LOW>;
power-domains = <&vdd_camera>;
;
Where to Download Legitimate 24c1.3x Camera Drivers
Warning: Avoid fishy "driver download" websites. Many inject malware. Always prefer:
- Windows Update Catalog – Search for "24c1" or the hardware ID.
- Chipset OEM sites – If your camera is from Microdia (VID_0C45), visit their legacy support page.
- GitHub / LibUSB projects – Open-source reverse-engineered drivers for Linux and macOS.
- Backup CD / Archive.org – Some 2010s webcams only have drivers preserved on the Internet Archive.
Essay: "24c1.3x Camera Driver"
The 24c1.3x camera driver represents a specialized piece of software that facilitates communication between an image sensor module and a host processing unit within embedded systems. Although the label "24c1.3x" is not a widely recognized industry standard name, the components and concerns implied by such a driver are common across camera driver development: hardware interfacing, sensor configuration, image data handling, power management, and system integration. This essay outlines the likely architecture, responsibilities, implementation challenges, and best practices for a camera driver bearing this designation.
Hardware Interface and Protocols A camera driver sits between the operating system (or firmware) and the camera sensor, translating high-level capture requests into low-level register operations. Typical physical interfaces include MIPI CSI-2 for high-speed image data, I2C or SPI for sensor control, and GPIO lines for reset and power-enable signals. The 24c1.3x driver must reliably initialize the sensor over I2C, configure timing and format registers, and manage the CSI data lanes to ensure correct frame delivery. Proper handling of hardware interrupts (e.g., frame start/line end) ensures synchronization between the sensor and the host.
Sensor Configuration and Mode Management A core responsibility is configuring the sensor into the requested operating modes: resolution, frame rate, pixel format (RAW, YUV, RGB), binning/skipping, and exposure/analog/digital gain ranges. The driver should expose a set of modes to the OS so higher-level components (camera stack, capture applications) can select appropriate settings. Mode switching must consider clock reprogramming, PLL stabilization delays, and reconfiguration sequences that avoid image artifacts or data loss.
Image Data Path and Buffering The driver must manage the image data path, coordinating DMA transfers from the CSI interface into host memory and exposing buffers to userspace (e.g., via V4L2 on Linux). Efficient buffer management with minimal copies is critical to achieving low latency and high throughput. The driver should implement scatter-gather DMA and support memory-mapped I/O to allow direct access by downstream processing pipelines. It must also handle partial frames, frame drops, and underflow/overflow conditions gracefully.
Exposure, Gain, and Automatic Controls Modern camera drivers often integrate control loops for exposure, white balance, and autofocus, or provide hooks for userspace algorithms to run these controls. The 24c1.3x driver should present standardized control interfaces for settings like exposure time, analog/digital gain, ISO equivalents, white balance gains, and focus position. It should enforce sensor limits and apply any necessary conversions between application units and sensor register values.
Power Management and Thermal Considerations Embedded devices demand careful power management. The driver should support runtime power management, powering the sensor only when needed and sequencing power rails and clocks correctly on suspend/resume. It should also provide mechanisms to reduce frame rate or resolution to lower power consumption when thermal constraints or battery limits arise.
Calibration and Image Quality Tuning To produce acceptable image quality, the driver must work in concert with calibration data: lens shading correction, color correction matrices, and sensor-specific defect lists (bad pixel maps). The driver can expose mechanisms to load or reference these calibration tables at init time so that ISP (image signal processor) stages can apply corrections downstream.
Error Handling and Robustness Robust drivers detect and recover from errors such as I2C failures, CSI lane sync loss, or DMA timeouts. Recovery strategies include sensor reinitialization sequences, resetting FIFOs, and re-negotiating link parameters. The driver should log useful diagnostics while minimizing performance impact and avoid leaving the sensor in an undefined state.
Integration with Operating Systems and Stacks On Linux, a camera driver typically implements the V4L2 subdevice and media controller APIs, registering sensor controls, pads, and link entities for the media graph. For other RTOSes or bare-metal firmware, the driver provides well-defined HAL (hardware abstraction layer) interfaces consumed by camera frameworks or bespoke image pipelines. The driver must document its API, supported modes, and timing requirements so integrators can design compatible ISPs and application software.
Testing, Conformance, and Performance Metrics Comprehensive test coverage includes unit tests for configuration math, integration tests verifying end-to-end capture at all supported resolutions and frame rates, and stress tests for long-duration captures. Performance metrics to validate include frame latency, throughput (MB/s), CPU overhead, memory usage, and power consumption. Conformance tests should also verify that register sequences match sensor vendor recommendations.
Security and Safety Considerations Though drivers are low-level, they must follow safe coding practices: validating all inputs, avoiding integer overflows in buffer calculations, and respecting memory boundaries to prevent crashes or vulnerabilities. Access controls should restrict privileged operations where appropriate.
Conclusion A "24c1.3x camera driver"—while not a standardized name—implies the full scope of responsibilities inherent to modern embedded camera drivers: precise hardware control, efficient data handling, robust error recovery, power-aware operation, and clean OS integration. Success depends on careful attention to sensor datasheets, rigorous testing across modes, and clear APIs that enable higher-level image processing and applications to deliver consistent image quality and reliable operation in target devices.
If you’ve come across the name 24C1.3x, you’re likely dealing with a specialized piece of imaging hardware from Videology Imaging Solutions. These are industrial-grade 1.3-megapixel CMOS cameras often found in OEM systems, kiosks, or medical devices.
Because these cameras are often integrated into "unbranded" or generic OEM computers, finding the right driver can feel like a scavenger hunt. 3x camera up and running. 1. Identifying Your Specific Model
The "24C1.3x" designation is a series, not a single device. You’ll need to identify your specific version to get the right driver: 24C1.3XUSB: A color board camera designed for USB 2.0. 24B1.3XUSB: The monochrome (B&W) equivalent.
24C1.3XW: A variant typically used for WDR (Wide Dynamic Range) video.
24C7.38USB-F: A version often used for photo ID with a synchronized flash.
Tip: Check the back of the camera board or the bottom of the housing for a part number before searching. 2. Where to Download the Drivers
For industrial cameras like these, Windows Update won't always have the driver. Use these reliable paths: 24c1.3x camera driver
Manufacturer Website: The official source is the Videology Software & Drivers page. They provide digitally certified WDM drivers and SDKs for developers.
OEM Support: If your camera came inside a specific machine (like a pharmacy kiosk or ID station), the machine manufacturer's support page often hosts a tested version of the driver.
Third-Party Identifiers: Tools like DriverIdentifier can help if you are struggling with a generic OEM system, though manufacturer-direct is always safer. 3. Installation & Setup
These cameras use an AVStream driver (vidousb.sys), which makes them appear as standard DirectShow capture filters in Windows.
Uninstall Old Versions: If a previous driver is failing, go to Programs and Features to remove any existing "Videology (vidousb)" entries.
Unplug & Reinstall: Disconnect the camera, run the installer, and then plug the USB cable back in once the software is ready.
Check Device Manager: Once installed, the camera should appear under Imaging Devices. 4. Troubleshooting Common Issues 24C1.3x Camera Driver for OEM - DriverIdentifier
. This driver allows the Windows operating system to communicate with the camera hardware, enabling features for video conferencing and imaging. Understanding the 24c1.3x Driver
The "24c1.3x" designation typically appears in system reports or driver databases to identify a specific class of camera hardware used by Original Equipment Manufacturers (OEMs). It is most commonly associated with USB-connected internal webcams that use generic vendor IDs (e.g., VID_1BBD).
Role of the Driver: Like all drivers, it acts as a translator. Without it, the operating system cannot "see" the 2.4MP image sensor or process the video stream.
Hardware Link: In many cases, these drivers are paired with 1/3" PS CMOS image sensors, which are standard for mid-range enterprise laptops and surveillance equipment. How to Manage and Install the Driver
If your camera is not functioning, it is usually due to a missing or corrupted driver. You can manage this through the Windows Device Manager. Action in Device Manager Check Status Expand the "Cameras" or "Imaging devices" section. Enable Device
Right-click the camera and select "Enable device" if it was disabled. Update
Select "Update driver" → "Search automatically for drivers". Manual Reinstall
Select "Uninstall device," then restart your PC; Windows should reinstall it automatically. Troubleshooting Common Issues
If the driver is installed but the camera still fails to work, consider these software-level barriers:
Privacy Settings: Go to Settings → Privacy & Security → Camera and ensure "Camera access" is toggled on.
App Permissions: Confirm that specific apps (like Teams or Zoom) have permission to use the camera.
Physical Shutter: Modern laptops often have a sliding physical shutter over the lens that can make it appear as though the driver is broken.
Hardware Identifier: If searching for a manual download, look for the Hardware ID (e.g., USB\VID_1BBD&PID_0064) in the device properties to ensure you get the exact version for your build. Typical Hardware Specifications
Drivers for this category often support the following hardware profiles found in business laptops: Resolution: 2.4 MP (typically 1920x1080 Full HD). Frame Rate: Supports up to 30 fps for smooth video.
Compatibility: Primarily designed for Windows 10/11 and older systems like Windows 7 Professional.
Find the exact download link if you provide your laptop's Service Tag or Model Number.
Provide a step-by-step guide for a specific operating system like Windows 11 or Linux. Because these cameras are often generic "no-name" brand
Help you find the Hardware ID if the camera is showing up as an "Unknown Device." What is the make and model of your computer? 24C1.3x Camera Driver for OEM - DriverIdentifier
The 24C1.3x camera driver is the essential software required for the Videology 24C1.3x series of industrial-grade 1.3-megapixel board cameras to communicate with your computer's operating system. These cameras, including models like the 24C1.3XUSB and 24C1.3XW, are widely used in specialized OEM applications such as ATMs, retail kiosks, and traffic monitoring systems due to their Wide Dynamic Range (WDR) and high-resolution capabilities. Key Features of the 24C1.3x Camera Series
Sensor: High-quality 1/3" Sony CMOS sensor delivering 1.3-megapixel resolution (up to
Wide Dynamic Range (WDR): Offers up to 93dB dynamic range, ensuring clear images in both extremely bright and dark environments.
Connectivity: The USB variants (e.g., 24C1.3XUSB) utilize a USB 2.0 bus for both power and data transmission, simplifying integration for system developers.
Imaging Performance: Features include digital noise reduction (2D/3D), fog/haze removal (Defog), and adaptive contrast enhancement (D-WDR). Driver Compatibility and Downloads
The 24C1.3x series is designed for broad compatibility across modern industrial and consumer operating systems:
Windows Support: Drivers are available for both 32-bit and 64-bit versions of Windows, including legacy support for Windows 7 up to Windows 11.
Linux Support: Dedicated Linux drivers are available for integration into non-Windows environments.
Standard Compliance: The drivers are WDM (Windows Driver Model), DirectX/DirectShow, and TWAIN compliant, allowing the camera to work with standard imaging software. Where to Download
For the most stable performance, you should download drivers directly from official sources:
Videology Software Hub: Access the latest viewers and drivers by entering your specific part number on the Videology Software page.
Third-Party Repositories: For generic or OEM versions, sites like DriverIdentifier or DriverScape host various versions, though official manufacturer sites are preferred for security. Installation Guide Videology Viewers and Camera Drivers
The 24C1.3x camera driver is a specialized software component primarily associated with industrial-grade imaging hardware from Videology Imaging Solutions. Unlike standard consumer webcam drivers, this driver is designed for high-performance CMOS board cameras used in specialized fields like photo ID systems, medical imaging, and industrial automation. Hardware Origins and Specifications
The driver corresponds to the 24C1.3XUSB series, a family of 1.3-megapixel CMOS cameras. Key technical features supported by this driver include: Resolution: 1.3 Megapixel (1280 x 1024).
Interface: USB 2.0, which handles power, video frames, and camera control through a single cable.
Frame Rates: Support for uncompressed video up to 25fps at VGA resolution or 12.5fps at 720p.
Optics Support: Flexible lens mounting options (M-12, pinhole, or CS-mount) which the driver must interface with for digital settings like gain and white balance. Driver Architecture and Compatibility
The software is an AVStream driver (specifically vidousb.sys), which functions as a DirectShow capture filter. This allows developers to integrate the camera into custom software using standard Microsoft DirectShow APIs.
OS Support: It is digitally certified for 32-bit and 64-bit Windows operating systems, ranging from legacy Windows XP and 7 to modern versions like Windows 10 and 11.
Standards: The driver is compliant with WDM (Windows Driver Model), DirectX, and TWAIN, making it versatile for both video streaming and static image scanning.
Linux Support: While primarily known for Windows, specific Linux drivers are also available for these modules. Industrial and OEM Applications
Because these cameras are often sold as "single board" units, they frequently appear in OEM (Original Equipment Manufacturer) contexts. You may encounter this driver in:
Photo ID Systems: Used globally for government IDs, passports, and driver's licenses due to its ability to synchronize with a flash. If success, check with v4l2-ctl --list-devices
Custom Business Laptops: Some specialized business machines, such as certain Dell Latitude models, may use these board-level components for integrated security or specialized imaging tasks.
Industrial Integration: Sold to manufacturers who build the camera boards into larger diagnostic or monitoring equipment. Troubleshooting and Installation
If you are prompted for this driver, it typically means the system has detected a device with the Hardware ID USB\VID_1BBD&PID_0064. To resolve issues:
Manual Update: You can often find the necessary files through the Videology Software portal or professional driver repositories like DriverGuide.
SDK Usage: For developers, the SFT-07019-SDK provides the full library needed to control camera features like motion detection, defogging, and shutter speeds via the driver. Videology Viewers and Camera Drivers
series refers to a range of industrial-grade 1.3 Megapixel CMOS USB 2.0 cameras manufactured by Videology Industrial-Grade Cameras
. These cameras are commonly used for professional photo-ID applications, law enforcement, and medical imaging. 🛠️ Driver and Software Downloads
To ensure your camera operates correctly with Windows or Linux, you must install the specific WDM or TWAIN drivers. Official Downloads : Access the Videology Software Portal to find the correct package. You will need your specific Videology part number
(found on the bottom of the box or back of the board camera) to ensure you get the right software. Driver Types WDM Device Drivers : Standard Windows drivers for streaming video. TWAIN Data Source
: Necessary for software that captures still images directly into applications. Linux Drivers
: Available for integrated systems using Linux-based architectures. Demo Viewer : Videology provides a Demo Viewer
(SFT-07019) to test camera functionality and adjust settings like exposure, gain, and white balance. 💻 System Requirements & Compatibility Operating Systems
: Supported on Windows XP, Vista, 7, 8, and 10 (both 32-bit and 64-bit). Hardware IDs : If you are troubleshooting in Device Manager, look for USB\VID_1BBD&PID_0064
: Power, control, and data are all handled via a single 6-pin USB 2.0 connection. 🔍 Troubleshooting Tips Videology Viewers and Camera Drivers
The 24C1.3x camera driver is the software bridge for the Videology 24C1.3XUSB, a CMOS USB 2.0 1.3-megapixel board camera frequently used in industrial, medical, and high-definition imaging applications. Driver Specifications and Compatibility
Operating Systems: It supports Windows (32-bit and 64-bit) and select Linux distributions.
Standards Compliance: The driver is compatible with WDM, DirectX/DirectShow, and TWAIN (the latter requires specific driver installation).
Hardware Interface: It utilizes a standard USB 2.0 bus for both power and camera control.
Hardware Identifiers: Common Hardware IDs associated with this driver include USB\VID_1BBD&PID_0064. Key Functional Components The 24C1.3x driver environment typically includes:
Viewer Software: Usually bundled with the driver (e.g., SFT-07019) to allow immediate image capture and control.
Linux V4L2 Support: For Linux environments, it may rely on the Video4Linux (V4L2) API, which is the official kernel framework for video capture devices. Common Installation and Troubleshooting
If you are experiencing issues with the 24C1.3x camera, follow these standard steps:
Title: The 24c1.3x Camera Driver: A Comprehensive Guide to Identification and Troubleshooting
Introduction
In the world of Windows device management, few things are as confusing as generic hardware IDs. If you have stumbled upon a device listed as "24c1.3x Camera" or a similar variant in your Device Manager, you are likely dealing with a generic web camera driver issue. This string of characters is not a brand name but a hardware identifier, often pointing to specific camera sensors manufactured by companies like Sonix, Realtek, or Lite-On.
This article explains what the 24c1.3x driver is, why it appears on your system, and how to resolve common issues associated with it.