China Shenzhen City Haozhou Technology Co., Ltd.
about us
Shenzhen City Haozhou Technology Co., Ltd.
Shenzhen Haozhou Technology Co., Ltd. was established in 2014. It is a high-tech company specializing in R&D, design, production, sales, CMOS camera module, USB camera module, analog camera module, endoscope camera module, sensor chip and other high-quality camera modules technology enterprise. Provide a full range of processes, SMT, modules, assembly, packaging and other one-stop services. Passed IS09001 CE ROHS quality system certification. Products are widely used in nearly a hundred fields such as face recognition, biometrics, artificial intelligence, machine vision, drones, self-service terminals, smart homes, security monitoring, and medical applications.Warmly welcome OEM and ODM. We can design according to the drawings provided by customers. All of our products have a 2-year warranty, we are willing to provide customers with products that carry corporate culture and convey brand ideas to end users, we believe that success is built on a solid foundation and commitment to delivery. haozhou provides high quality camera modules with professional OEM design and manufacturing services to customers worldwide. We are carrying OmniVision, Sony, Samsung, Hynix, GalaxyCore... The main application areas: AI VR mobile phone, digital still camera, laptop, DV, PDA/handheld, toy, PC camera, security camera, automotive camera, tablet pc, visual doorbell, medical system, smart home, industrial image, recognition system, fingerprint identification system ...
read more >>
0

No. of Employees
0

Annual Sales
0

Year Established
Created with Pixso.
0

Export p.c

News

Endoscope Camera Module FAQ Overview 2026-06-12 Q1: What is an endoscope camera module? A: An endoscope camera module is a component within an endoscope used to capture images or video of internal body structures. It typically consists of a lens, an image sensor, and auxiliary circuitry; all components are miniaturized to fit the endoscope's slender profile. Q2: How does an endoscope camera module work? A: The module's lens focuses light reflected from internal body structures onto the image sensor. The image sensor captures this light and converts it into electrical signals. These signals are processed by the auxiliary circuitry to generate a video signal, which is then displayed on a monitor for real-time viewing by medical professionals. Q3: What are the key requirements for an endoscope camera module? A: Endoscope camera modules must be compact and durable, capable of capturing high-resolution images in challenging environments. They must withstand conditions inside the human body—such as humidity and temperature fluctuations—and deliver high-quality images even in low-light situations. Q4: In which medical fields are endoscope camera modules used? A: Endoscope camera modules are used across various medical fields, including gastroenterology (diagnosing and treating gastrointestinal disorders), pulmonology (examining the lungs and airways), urology (examining and treating disorders of the urinary system and male reproductive organs), and surgery (performing minimally invasive procedures). Q5: What are the future prospects for endoscope camera module technology? A: Future developments include further miniaturization; improvements in sensor technology and image processing for higher image quality; the integration of AI and machine learning to identify abnormal tissue or guide surgical procedures; and the development of more flexible or adjustable endoscopes. Researchers are also working on "capsule endoscopes"—small, swallowable devices equipped with camera modules. Q6: What is a capsule endoscope? A: A capsule endoscope is a small, swallowable device with a built-in camera module. It is designed to capture images as it travels through the digestive tract, offering a non-invasive option for gastrointestinal examinations.
The Role of MIPI in High-Speed Imaging and Future Camera Technologies 2026-06-06 Introduction In the rapidly evolving field of imaging technology, the demand for high-resolution, high-speed, and energy-efficient camera systems is unprecedented. From smartphones capturing stunning 8K video to real-time object detection in autonomous vehicles, modern cameras rely on advanced interfaces to achieve superior performance. The Mobile Industry Processor Interface (MIPI), developed by the MIPI Alliance, has become a cornerstone technology in this field, driving not only high-speed imaging but also shaping the future of camera systems across various industries. MIPI enables a range of applications, from augmented reality (AR) to medical diagnostics, by facilitating seamless communication between camera sensors and processors. This article will explore MIPI's key role in high-speed imaging, its advantages over other interfaces such as USB, and its immense potential for future camera technology innovation. Understanding MIPI and its Core Technologies The MIPI interface, specifically Camera Serial Interface 2 (CSI-2), is a standardized protocol designed to connect camera sensors to host processors in a variety of devices, including smartphones, automotive systems, and industrial equipment. Introduced by the MIPI Alliance in 2005, CSI-2 has undergone significant development, with the latest version, CSI-2 v4.1, released in 2024, designed to meet the demands of modern high-performance imaging. Unlike its bandwidth-limited predecessor, CSI-1, CSI-2 offers a scalable, high-speed solution capable of supporting complex imaging needs. The protocol transmits image data via packets, incorporating error correction codes (ECC) to ensure reliability, while utilizing virtual channels to manage multiple data streams. This architecture enables MIPI to process high-resolution images and video with extremely low latency, making it ideal for real-time applications. At the heart of MIPI CSI-2 is its physical layer, which defines the data transmission method. The most widely used physical layer, D-PHY, supports data rates up to 9 Gbps per channel, while the newer C-PHY offers higher bandwidth and lower electromagnetic interference (EMI), making it more suitable for smaller devices. For automotive applications, the A-PHY standard, capable of achieving data transmission rates of 32 Gbps over longer distances, is gaining popularity. These physical layers employ differential signal transmission to minimize noise and power consumption, ensuring stable performance even in harsh environments. With its high bandwidth, low power consumption, and scalability, MIPI CSI-2 has become the preferred solution for embedded vision systems requiring efficient data transmission. MIPI's Role in High-Speed ​​Imaging High-speed imaging, characterized by high-resolution output and high frame rates, is central to modern camera applications, ranging from 4K video recording to industrial inspection. MIPI CSI-2 excels in this area, providing up to 10 Gbps of bandwidth through four data channels, significantly exceeding the effective throughput of USB 3.0 (typically around 3.6 Gbps). This high bandwidth enables MIPI to support 8K video transmission at 60 frames per second (fps) and above, meeting the needs of professional cameras and consumer devices. The protocol's multi-channel architecture supports parallel data transmission, ensuring fast and reliable transmission of massive amounts of image data. Low latency is another key advantage of MIPI in the field of high-speed imaging. MIPI utilizes differential signaling and an optimized packet structure to minimize data transmission latency, making it ideal for applications requiring real-time processing, such as AR/VR headsets and machine vision systems. For example, in augmented reality, visual data must be processed instantly to align virtual objects with the real world; MIPI's low latency ensures a smooth user experience. Furthermore, MIPI CSI-2 v2.1 introduces advanced compression techniques, such as Differential Pulse Code Modulation (DPCM) 12-10-12, which reduces bandwidth requirements while maintaining image quality. Combined with Galois field scrambling technology, these features improve the signal-to-noise ratio and reduce electromagnetic interference, further enhancing performance in high-speed imaging scenarios. Conclusion The Mobile Industry Processor Interface (MIPI) has solidified its position as a key enabler of high-speed imaging, providing powerful momentum for innovation-driven camera systems across industries. From the high bandwidth and low latency performance of smartphones and automotive systems to its immense potential in artificial intelligence, 5G, and augmented reality/virtual reality (AR/VR) applications, MIPI is shaping the future of camera technology. As the MIPI Alliance continues to address challenges such as bandwidth demands and energy efficiency, the protocol's scalability and adaptability ensure it remains at the forefront of imaging technology development. For manufacturers, developers, and end-users, MIPI offers a future-proof solution for building and experiencing next-generation camera systems. To explore the full potential of MIPI camera modules, visit the MIPI Alliance website and stay updated on the latest developments in this transformative technology.
More Products
CONTACT US AT ANY TIME
B310, Nanshan Internet Innovation and Creative Service Base (Phase II), No. 126, Xia Road, Shekou Bay, Nanshan District, Shenzhen,Guangdong,China
What would you like to request?
CUSTOMERS & PARTNERS