C30C Mini Color Ultrasound Diagnosis System

Product Introduction

The C30C Mini Color Ultrasound Diagnosis System is a portable handheld ultrasound imaging device designed for rapid clinical examinations, point-of-care diagnostics, and preliminary screening. Featuring an integrated convex array probe and USB connectivity, it connects to compatible Windows or Android terminal devices for convenient real-time ultrasound imaging.

The C30C supports multiple imaging modes, including B-mode, B/B-mode, B/M-mode, color Doppler flow imaging (CDFI), pulsed-wave Doppler (PW), and power Doppler imaging (PDI). Its digital beamforming, dynamic focusing, adjustable frequency, and advanced image-processing technologies help clinicians visualize abdominal and pelvic organs, including the liver, gallbladder, kidneys, spleen, pancreas, uterus, and bladder.

With a compact probe weighing no more than 150 g, preset examination protocols, image storage, and playback capabilities, the C30C is suitable for hospitals, primary healthcare facilities, emergency services, bedside examinations, and ultrasound-guided procedures. Compatible smart terminals can also support image sharing and remote medical workflows, depending on the software and connectivity configuration.

Performance Features

• Compact Handheld Design: Integrated convex array probe measuring no more than 155 × 75 × 28 mm and weighing no more than 150 g for convenient transport and operation.

•  Multiple Imaging Modes: Supports at least six imaging modes: B, B/B, B/M, CDFI, PW, and PDI.

•   Advanced Digital Imaging: Incorporates digital beamforming (DBF), real-time dynamic aperture imaging (RDA), dynamic sound velocity adjustment (DRA), and dynamic transmit and receive focusing technologies.

•   Wide Frequency Selection: Offers six selectable frequencies from 2.5 MHz to 5.0 MHz to accommodate different examination requirements.

• Adjustable Imaging Depth: Provides a detection depth of 90–240 mm, adjustable through the connected terminal.

•  Preset Examination Protocols: Includes abdomen, gynecology, obstetrics, and urology examination presets, with options to customize examination sites.

• Flexible Image Adjustment: Provides adjustable brightness, contrast, grayscale curves, dynamic range, frame correlation, noise suppression, and false-color settings.

•  Image Magnification: Supports eight levels of real-time image magnification, up to 4×, plus partial magnification for real-time and frozen images.

•  Comprehensive Measurement Tools: Supports distance, circumference, area, volume, angle, time, slope, heart rate, and Doppler velocity measurements, depending on the selected imaging mode.

•  Portable USB Connectivity: Connects to compatible terminals through USB Type-C or USB Type-A interfaces.

•   USB-Powered Operation: The probe does not require a separate battery. The system can operate continuously for at least 3 hours under specified conditions.

•  Image Storage and Playback: Supports static image formats including BMP, JPG, PNG, TIF, and DICOM (DCM), plus storage and playback of up to 2,048 frames.

•  Clinical Documentation: Offers patient information entry, annotations, body-position markers, probe-position indication, and Chinese, English, and French interface options.

•  Data Transfer Support: Supports image transfer to a USB flash drive and DICOM sending on Windows, subject to compatible software and system configuration.

Working Principle

The C30C Mini Color Ultrasound Diagnosis System uses electronic convex array ultrasound technology combined with digital beamforming and advanced signal processing to generate diagnostic images.

1. Ultrasound Transmission: The integrated probe transmits high-frequency ultrasound waves into the body.

2. Echo Reception: Reflected ultrasound signals from tissues and organs are received by the probe's transducer elements.

3. Digital Beamforming: Digital beamforming and dynamic focusing process the received signals to construct ultrasound images.

4. Image Processing: Dynamic aperture control, frequency adjustment, digital filtering, frame correlation, grayscale processing, and image enhancement improve image presentation.

5. Doppler Imaging: CDFI, PW, and PDI modes provide blood-flow-related information through Doppler-based signal processing.

6. Display and Documentation: Images are displayed on a compatible Windows or Android terminal, where users can perform measurements, freeze or magnify images, save examination data, and review recorded frames.

The combination of portable hardware and digital imaging software supports flexible ultrasound examinations in clinical and emergency environments.

Technical Parameters

Parameter	Specification
Product Model	C30C
Product Type	Mini Color Ultrasound Diagnosis System
Probe Type	Portable handheld convex array probe
Scanning Technology	80-element electronic convex array
Probe Dimensions	≤155 × 75 × 28 mm
Probe Weight	≤150 g
Supported Operating Systems	Windows, Android
Display Modes	B, B/B, B/M, CDFI, PW, PDI
Operating Frequency	2.5, 3.0, 3.5, 4.0, 4.5, 5.0 MHz
Detection Depth	90–240 mm, adjustable
Dynamic Range	0–100 dB, adjustable
Grayscale Levels	256
Brightness Adjustment	16 levels
Contrast Adjustment	16 levels
Grayscale Curve Adjustment	13 levels
Frame Correlation	8 levels
Noise Suppression	7 levels
False-Color Options	16
Display Speed	3 adjustable levels
Image Magnification	8 levels, up to 4×
TGC Adjustment	8 segments
Image Storage	BMP, JPG, PNG, TIF, DCM and other supported formats
Cine Memory	Up to 2,048 frames
Data Transfer	USB; DICOM sending supported on Windows
Probe Interface	USB Type-C and USB Type-A
Power Supply	USB-powered probe; no separate probe battery
Continuous Operating Time	≥3 hours under specified conditions
Preset Examination Modes	Abdomen, gynecology, obstetrics, urology
Interface Languages	Chinese, English, French

Application Scenarios

•   Abdominal Ultrasound: Examination of the liver, gallbladder, kidneys, spleen, pancreas, and other abdominal organs.

• Gynecology and Obstetrics: Supports pelvic examinations and obstetric ultrasound workflows, including preliminary fetal assessments where clinically appropriate.

•   Urology: Assists with ultrasound examinations involving the bladder and other relevant urinary system structures.

• Emergency and Critical Care: Suitable for point-of-care imaging in emergency departments, intensive care units, ambulances, and field rescue settings.

• Primary Healthcare: Supports routine examinations, preliminary screening, ward rounds, and community-based medical services.

•  Hospital Physical Examinations: Provides portable ultrasound imaging for clinical examination and screening workflows.

• Ultrasound-Guided Procedures: Supports visualization during selected puncture procedures, vascular access, PICC catheter placement, and other interventions when appropriate for the probe, imaging mode, and clinical application.

•  Remote Medical Services: Enables image and data sharing for telemedicine workflows when compatible software, connectivity, and receiving systems are available.

C30C Mini Color Ultrasound vs. Conventional Ultrasound Systems

Feature	C30C Mini Color Ultrasound	Conventional Cart-Based Ultrasound
System Design	Compact handheld probe	Larger console with dedicated display
Portability	High; easy to carry between locations	Generally less portable
Display Platform	Compatible Windows or Android terminal	Usually an integrated medical display
Imaging Modes	B, B/B, B/M, CDFI, PW, PDI	Depends on system configuration
Frequency Range	2.5–5.0 MHz	Depends on probe configuration
Power Supply	USB-powered probe	Typically mains-powered console
Image Storage	Up to 2,048 cine frames, plus static images	Depends on system storage and software
Typical Applications	Point-of-care imaging, bedside examinations, emergency screening	General imaging departments and comprehensive diagnostic workflows
Main Advantage	Lightweight design and flexible deployment	Potentially broader system integration and probe selection

Note: This is a general comparison. Imaging performance, diagnostic capabilities, and available functions depend on the specific equipment configuration, software, probe, and clinical application.

Frequently Asked Questions (FAQ)

1. What is the C30C Mini Color Ultrasound Diagnosis System used for?

The C30C is designed for portable ultrasound examinations, including abdominal, gynecological, obstetric, and urological applications, as well as emergency imaging and point-of-care assessment.

2. Which organs can the C30C examine?

Its intended applications include the liver, gallbladder, kidneys, spleen, pancreas, uterus, bladder, and other organs accessible to the configured convex array probe.

3. Which ultrasound imaging modes are supported?

The system supports B-mode, B/B-mode, B/M-mode, color Doppler flow imaging (CDFI), pulsed-wave Doppler (PW), and power Doppler imaging (PDI).

4. What is the operating frequency range?

The C30C provides six selectable frequencies: 2.5 MHz, 3.0 MHz, 3.5 MHz, 4.0 MHz, 4.5 MHz, and 5.0 MHz.

5. Is the C30C compatible with smartphones or tablets?

The system supports Windows and Android devices through USB connectivity. Compatibility depends on the terminal's hardware, operating system, interface, and the required software.

6. Does the ultrasound probe require a separate battery?

No. The probe is powered through the USB interface of a compatible terminal. The specified continuous operating time for the complete system is at least 3 hours under specified conditions.

7. Can the C30C store ultrasound images and video sequences?

Yes. It supports multiple static image formats and can store and play back up to 2,048 image frames. USB transfer and Windows-based DICOM sending are also supported as specified.

8. Does the system support ultrasound-guided procedures?

It can support selected ultrasound-guided procedures, including vascular access and PICC catheter placement, when the probe, imaging modes, and clinical workflow are appropriate.

9. Can the C30C be used for telemedicine?

Yes. Images and medical data can be shared through compatible software and connected terminal devices to support remote consultation workflows. Actual telemedicine functionality depends on the available software and network infrastructure.