MRCL700 Electrified 2D/3D Microscope and Modular Imaging System
Supports full‑dimensional imaging in 2D, 3D, and cross‑sectional modes.
7. Motor with feedback; electric control is precise and stable.
Modular and reconfigurable, enabling rapid customization of experimental protocols.
A wide range from 1 μm to 10 cm, accommodating both micro- and macro-scale observations.
Three LED light sources, compatible with samples of multiple materials.
4K HD camera, micrometer-level high-resolution imaging
Compact body + USB‑C, suitable for a variety of use cases.
Product Introduction
Introduction to the MRCL700 3D Imager Pro
General Introduction
The MRCL700 3D Imager Pro is Microqubic’s flagship modular 2D/3D imaging microscopy system, designed for specialized applications such as scientific research, precision manufacturing, microfabrication, and electronic inspection. It delivers comprehensive optical observation and analysis capabilities across all dimensions. Unlike conventional microscopes that are limited by a single imaging angle and fixed functionality, this system integrates motorized precision control, multi‑mode illumination, and high‑definition imaging, enabling seamless imaging of features ranging from micrometer‑scale details to centimeter‑scale specimens. With an operational range spanning 1 µm to 10 cm, it meets the dual demands of high‑precision inspection and macroscopic observation.
The product features an opto‑mechatronic modular design, with core optical, mechanical, and electronic modules that can be flexibly combined and reconfigured. Users can quickly set up tailored experimental workflows without requiring specialized modification expertise, significantly enhancing equipment reuse and configuration flexibility. Its all‑electric control system incorporates seven position‑feedback motors, enabling automated, high‑precision control of zoom, focus, stage movement, and dual‑axis tilt. Paired with Bluetooth wireless connectivity, it supports remote operation via PC or smartphone, making it suitable for both laboratory and field‑testing applications. The device is equipped with an 8‑megapixel 4K HD camera and three LED matrix illumination sources, compatible with samples made from silicon, glass, PDMS, and other materials, effectively eliminating reflections and shadow artifacts to ensure exceptional image clarity. The compact body measures 8 cm × 25 cm at the base, is powered by a 5 V USB‑C port, and adapts to a wide range of operating environments. With an order lead time of 2–4 weeks, it meets standard procurement requirements.
Working principle
The MRCL700 3D Imager Pro centers on optical imaging, integrating precision motorized control, multidimensional data acquisition, and digital image-processing technologies. By coordinating four key stages—“light-source adaptation, optical imaging, motorized control, and three-dimensional reconstruction”—it delivers full‑dimensional imaging in 2D, 3D, and cross‑sectional modes.
In the illumination subsystem, the device features three built-in LED matrix light sources, enabling switching between reflected‑light and transmitted‑light modes. It allows adjustment of the illumination angle and intensity to suit samples of varying materials, minimizing imaging artifacts and ensuring clear visualization of sample details. In the optical imaging stage, an 8‑megapixel 4K camera (with a 1/2‑inch sensor) is paired with a quick‑change objective lens to convert the sample’s optical signals into digital images. These images are transmitted at high speed via USB 3.0, delivering two‑dimensional resolution down to the sub‑micron level and capturing even the tiniest features.
Electric precision control is at the heart of 3D imaging: seven position‑feedback motors independently drive the zoom, focus, motorized X‑Y‑R sample stage, and a 180°/360° dual‑axis tilting mechanism. The sample stage enables translation and rotation, while the tilting mechanism allows the sample to be oriented at multiple angles. A position‑feedback module continuously calibrates motion accuracy, ensuring comprehensive, dead‑zone‑free acquisition of multiple two‑dimensional images. Finally, a programmable control system integrates multi‑angle image data and, using 3D reconstruction algorithms, generates volumetric models and cross‑sectional images, enabling detailed analysis of the sample’s three‑dimensional structure. A Bluetooth module facilitates remote control and data exchange, enabling fully automated operation and minimizing human‑induced errors.
Advantages and Key Features
The MRCL700 3D Imager Pro’s core strengths lie in its modular design, omnidirectional imaging, precise control, and scene‑specific adaptability. Compared with conventional devices, it offers more comprehensive functionality, greater ease of use, and enhanced versatility.
In terms of hardware, an 8-megapixel 4K camera ensures high‑resolution imaging; seven position‑feedback motors deliver sub‑millimeter motion accuracy; a dual‑axis tilt mechanism enables full‑angle observation; and three LED light sources accommodate samples of diverse materials, overcoming the limitations of single‑source imaging. A modular, reconfigurable design allows flexible disassembly and reassembly of core components, enabling instrument customization in just a few minutes while reducing modification and maintenance costs. Moreover, individual module failures can be replaced separately, eliminating the need for full‑system repairs.
In terms of operational control, full electrification replaces manual adjustments, enhancing both efficiency and precision. Multi‑mode control—featuring Bluetooth wireless connectivity, a local touch switch, and a four‑axis joystick—meets the needs of both remote and on‑site operations. Programmable functions allow users to predefine imaging workflows, enabling automated batch analysis of samples and significantly boosting work productivity.
In terms of scene adaptability, its 1 μm–10 cm imaging range seamlessly bridges microscopic and macroscopic observations, supporting 2D/3D and cross-sectional imaging, contact angle measurements, macro photography, and other advanced features. It serves a wide array of fields, including microfluidics, MEMS, microfabrication, electronic inspection, and precision manufacturing. With a compact body and USB‑C power supply, it overcomes constraints of space and power, making it suitable for diverse settings such as laboratories, workshops, and field environments.
Application Areas and Case Studies
The MRCL700 3D Imager Pro, with its omnidirectional imaging and high‑precision inspection capabilities, is widely used in microfluidics/MEMS, microfabrication, biology, electronics, precision manufacturing, quality control, education, and other fields, addressing key challenges in observation and inspection across diverse applications.
In the microfluidics/MEMS field, 3D imaging can be performed on silicon‑based and glass/PDMS substrates, clearly revealing chip channels and MEMS device structures, enabling assessment of design feasibility and identification of fabrication defects, thereby providing data support for sensor development. In the microfabrication domain, it is used for 2D scanning of planar surfaces and three-dimensional inspection—such as micro‑etched features on semiconductor wafers and surface quality of precision components—ensuring that machining accuracy meets specified tolerances.
In the field of biology, it supports bright-field imaging of biological samples, enabling morphological observation of insects, plant tissues, and microorganisms, thereby supporting scientific research (not for medical or clinical use). In the electronics sector, it inspects solder joints on circuit boards, chip packages, and the appearance of miniature components, identifying issues such as cold solder joints and physical damage to ensure component quality. In precision manufacturing, it performs 3D dimensional measurements on miniature bearings, gears, and other parts to guarantee assembly accuracy.
In the field of quality control, it is used for anti-counterfeiting marking on jewelry and handicrafts, as well as for batch inspection of industrial product appearances; in education, it serves as laboratory teaching equipment, helping students grasp the principles of optical imaging; and in macro photography, it enables the capture of microscopic details on large‑sized objects, making it ideal for visualizing and presenting research outcomes.
Equipment Parameters
| Base dimensions | 16x25cm |
| Camera |
4K camera, 1/2-inch image sensor, Full HD at 60 frames per second or 4K at 30 frames per second. |
| Lighting source | Three types of LED matrix light sources, with reflection/transmission illumination modes. |
| Imaging | 3D imaging, biaxial tilt, and position feedback |
| X-Y axis positioning | 16 µm step resolution and position feedback |
| Rotation | 1-degree resolution, with position feedback and a customizable chuck. |
| Zoom and Focus |
Electric zoom and focus can be controlled via a joystick, touch switch, computer, or smartphone. |
| Objective lens | The objective lens can be quickly swapped, with an imaging range spanning from 10 cm to 1 µm. |
| Drive system | Seven position-feedback motors drive the zoom, focus, sample stage, and dual-axis tilt. |
| Sample table | Electric X‑Y‑R, supporting translation and rotation. |
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Electrified 2D/3D Microscopes and Modular Imaging Systems
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2D/3D Microscopic Imaging and Measurement Demonstration
Electrified 2D/3D Microscopes and Modular Imaging Systems
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