While traditional MRI captures anatomical structures like a high-resolution 3D camera, functional Magnetic Resonance Imaging (fMRI) is more like a video camera that records brain activity during cognitive, language, memory, and motor tasks.
An fMRI system is more than just a display. It supports a complete interactive workflow by presenting visual stimuli while collecting subject responses, camera monitoring, and eye-tracking data. These inputs are synchronized with brain imaging to support more reliable research analysis.
In addition to the MRI scanner, a complete fMRI system integrates a medical workstation, a medical display, and multiple USB peripheral devices to support the complete interactive workflow.
The system consists of two functional areas: the control room and the scan room, connected through a single optical fiber to support visual stimulation, subject interaction, and data acquisition throughout the examination process.
The complete fMRI workflow consists of a medical workstation, a medical display system, fiber transmission, and USB peripherals.
Located in the control room, the workstation runs the stimulation program, performs image analysis, and transmits AV and control signals to the scan room.
Located in the scan room, the medical display system presents visual stimuli while integrating the embedded receiver module and USB peripheral devices, providing a centralized platform for image presentation and peripheral integration.
Serving as the transmission core of the system, the embedded fiber transmission module connects the medical workstation in the control room with the medical display system in the scan room over optical fiber, enabling synchronized transmission of video and control signals.
Multiple interactive devices are integrated within the scan room to support subject interaction, device control, and data acquisition, completing the interactive workflow required for fMRI applications.
MRI reconstructs images by receiving extremely weak Radio Frequency (RF) signals emitted from the human body. Even minor electromagnetic interference can compromise image quality. To minimize external RF noise, MRI scan rooms are typically enclosed within a Faraday cage, creating a highly controlled electromagnetic environment.
Within this environment, conventional HDMI or USB copper cables between the control room and scan room are susceptible to electromagnetic interference while increasing cabling complexity and installation effort. As a result, a transmission architecture must provide interference resistance, precise synchronization, and seamless integration with interactive devices.
To support image transmission requirements of MRI environments, SC&T integrates Fiber KVM technology into the medical display system. The solution adopts a transmitter (Tx) and receiver (Rx) architecture connected over optical fiber, integrating video transmission, system control, and USB peripheral connectivity.
The HKM01T-4K (Tx), located in the control room, integrates video and control signals from the medical workstation and transmits them to the scan room over optical fiber.
The HKM01R-4K (Rx) is embedded directly into the medical display system, enabling image presentation, system control, and USB peripheral integration while improving overall medical display system integration flexibility.
To meet the space and maintenance requirements of medical equipment, the HKM01R-4K (Rx) is embedded directly into the medical display system. This embedded design reduces external devices and field cabling while preserving modular maintenance, simplifying system integration and reducing maintenance downtime.
Visual stimuli used in fMRI studies require stable and consistent image quality. Image distortion, screen tearing, or color inconsistency may influence subject responses. Fiber transmission delivers stable high-resolution images while minimizing image degradation caused by electromagnetic interference.
An fMRI system requires visual stimuli, subject responses, and brain imaging data to remain closely synchronized. SwiftSync technology minimizes transmission latency, helping maintain synchronization between image presentation, device control, and subject interaction throughout the examination.
Optical fiber provides inherent resistance to electromagnetic interference and electrical isolation, preventing RF noise within MRI environments from affecting signal quality. It enables stable transmission of high-resolution video and control signals, making it an ideal transmission medium between the control room and the scan room.
Multiple interactive devices are integrated within the scan room, including:
When image presentation, subject interaction, and data acquisition must operate simultaneously, system integration becomes essential for successful fMRI deployment.
The fMRI environment demands more than reliable signal transmission. It requires comprehensive system integration. From transmission architecture and medical display integration to peripheral device deployment, every component must be designed to meet the environmental constraints, signal stability, and maintenance requirements of medical applications.
Beyond reliable signal transmission, fMRI systems require seamless system integration. SC&T delivers highly customizable Fiber KVM solutions, embedded receiver modules, and USB peripheral integration capabilities tailored to diverse product designs, helping medical equipment OEMs/ODMs enhance design flexibility, shorten product development cycles, and simplify system integration.
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