Innovation of Medical Anatomy Course: How Interactive Whiteboard Can Make Structure More Clear

From 2D atlas to 3D models, from organ stratification to case association, how Qtenboard help medical students understand human structure, spatial relationships, and clinical applications

September 2026Qtenboard medical educationRead for about 18 minutes.

In the traditional anatomy class, teachers show static human body maps through PPT. Students need to imagine the spatial relationships between organs, blood vessels, nerves and bones in the brain. Teachers use different colors and arrows to repeatedly mark, but students face two-dimensional images, still difficult to understand the depth, level and direction. The difficulty of learning is further increased when the content involves CT, MRI, or surgical approaches.

Anatomy teaching is not only to let students remember "what is this", but also to let students understand "where it is, what is adjacent to it, how to move, and what will be the impact of pathological changes". Interactive whiteboards turn abstract structures into instructional objects that can be observed and discussed together through actionable images, models, and cases.

Qtenboard (Shenzhen Qunmao)Founded in 2005, we have been dedicated to interactive display manufacturing for 20 years. We operate a 330,000㎡ smart manufacturing industrial park in Shenzhen and Guangzhou, featuring eight fully automated production lines with a daily output capacity of 200 units. Our solutions serve 120 countries and regions worldwide, and we have provided services to over 15,000 corporate clients to date. The Qtenboard interactive whiteboard covers 55-110 inch full-size segments, is equipped with Q AI system-level framework and MediaTek Genio 520 platform, and has successfully served overseas medical colleges such as Kharkov National Medical University, providing a complete solution from hardware to software for medical anatomy teaching, imaging teaching and clinical skills training.

Four Difficulties in 1. Traditional Anatomy Teaching

1. Two-dimensional images are difficult to express three-dimensional levels.

Before and after the relationship is not intuitive, the deep and shallow structure is easy to confuse, blood vessels, nerves and muscle levels are difficult to show at the same time. Students need to rely on spatial imagination to complete the transformation from two-dimensional to three-dimensional, and the relationship between different facets is not easy to establish. A 2025 study published in Frontiers in Medicine points out that traditional anatomy education relies heavily on two-dimensional images, which often struggle to effectively convey the complex spatial relationships of the human anatomy. The study of 169 medical students found that the continuous integration group of 3D models had significantly higher scores in both assessment stages (p < 0.05) and significantly higher satisfaction scores, especially in learning interest and teaching diversity.

2. The static map lacks the exploration process.

Students can only look at the perspective prepared by the teacher, and cannot rotate and zoom freely. It is difficult to switch from the whole to the part. The relationship between different structures needs to be explained repeatedly by the teacher. In the traditional PPT demonstration, teachers can not adjust the observation angle in real time according to the students' understanding, and the teaching rhythm is limited by the preset content.

3. Anatomical structure and clinical application easily out of line

Students remember bone and organ names but do not understand clinical localization. There is a lack of correspondence between CT, MRI and anatomical atlas, and the surgical approach and puncture path are difficult to express intuitively. Case discussion usually requires switching multiple data. A systematic review shows that 3D printed heart models have a moderate learning improvement compared to traditional methods in teaching congenital heart anatomy. This suggests that anatomy teaching needs to connect the basic structure with clinical imaging and application scenarios.

4. Limited observation opportunities in large classes

The teacher operates the computer, the students just watch, only the front row students can see the details clearly, the students cannot participate at the same time, the remote students cannot directly operate the model, and the content is not easy to save and review after the class ends. These problems are particularly prominent in the anatomy teaching of large classes. The traditional configuration of a computer and a projection has been unable to meet the needs of interactive teaching.

How 2. Interactive Whiteboard Can Make Anatomy "Live"

1. Rotation: Understanding the structure from multiple directions

Students can rotate bones and organs on the large screen, observe the front, back, side and oblique perspectives, understand the spatial direction of the structure, and compare anatomical landmarks at different angles. The Qtenboard supports 20-50 touch and 1.5mm touch accuracy, smooth rotation and zoom operation without delay, and is suitable for teaching complex areas such as joints, skull, spine and pelvic cavity. Qtenboard medical industry solutions support smooth scaling, rotation and annotation on 2D/3D diagnostic models, and teachers can use precise touch tracking to highlight anatomical paths and show synchronized 3D structural models.

2. Zoom: from the whole into the local

Switch from human systems to specific organs, zoom in on blood vessels, nerves and tissue details, and show small structures and anatomical landmarks. Qtenboard 4K UHD resolution ensures that CT/MRI slices and small-scale structural labels are clearly readable, and AG anti-glare glass adapts to different lighting environments in anatomical laboratories.

3. Layering: Understanding the overlay relationship between structures

Teachers can display the skin, superficial fascia, deep fascia, muscle, bone, blood vessels, nerves, internal organs and lesion areas by level. Through the hide, show, and transparent modes, students can see "what is under the surface structure". In the application case of Kharkov National Medical University, teachers use touch operation to accurately point out the names and functions of various parts on the image of the human body model, so that students can understand the knowledge points more intuitively.

4. Labeling: Bind the teacher's explanation with the structure

Mark the structure name, add arrows and colors, circle clinically relevant areas, write down functions and risks, record student questions, and associate the structure in the model with the courseware text. The Qtenboard blackboard writing content can be saved with one click, which is convenient for teachers to organize electronic lesson plans and share review with students after class.

5. Multi-window: Compare different data at the same time

The 3D model is shown on the left, the CT/MRI slice is shown on the right, the case information is shown below, and the procedure or surgical video is shown next to it. Qtenboard supports simultaneous multi-window display and split-screen operation, enabling the comparison of multiple content sources on a single screen.

How to apply different anatomy courses in 3.

1. System anatomy

Teaching content:Skeletal system, muscular system, nervous system, circulatory system, respiratory system, digestive system, urinary system, reproductive system.

Qtenboard applications:Display the three-dimensional human body model, stratify according to the system, rotate the observation structure, distinguish different organs by color, let students locate the structure, save the classroom annotation and knowledge points. The Qtenboard's Smart Writing feature supports smart editing of handwritten strokes, converting hand-drawn annotations into digital content.

2. Local anatomy

Teaching content:Head and neck, chest, abdomen, pelvic cavity, limbs, spine, joints.

Qtenboard applications:Zoom in on local areas, contrast superficial and deep structures, show muscle, blood vessel and nerve directions, mark surgical or puncture areas, and perform structural positioning exercises. The Qtenboard has been successfully applied to the anatomy course of Kharkiv National Medical University. The large 75-inch 4K screen ensures that students sitting in the back of the classroom can clearly see the teaching content.

3. Neuroanatomy

Brain area structure, cranial nerve, spinal cord, nerve conduction path, lesion location, functional area. Interactive whiteboards can help students understand complex neurospatial relationships through color, animation, facets, and path markers.

4. Imaging anatomy

CT, MRI, X-ray, ultrasound, three-dimensional reconstruction, normal and abnormal contrast. The structure is marked on the image, the three-dimensional model is compared, the different levels are switched, the anatomical structure is connected with the image performance, and the relationship between the lesion location and the surrounding structure is analyzed. The Qtenboard supports the import of real CT, MRI and DICOM data, and compares with 3D anatomical models on the same screen, helping students to establish intuitive cognition from slice to stereo.

5. Clinical anatomy

Surgical approach, puncture location, catheter path, anesthesia-related structures, trauma area, tumor and lesion location, anatomical variation. Qtenboard Windows OPS module can run professional anatomy teaching software and image analysis tools to support teachers to create interactive courses.

How to Support Anatomy Teaching by 4. Qtenboard Technical Ability

1. Q AI system level framework

Q AI is not a cloud plug-in, but a native intelligent architecture deeply integrated at the hardware, software, and algorithm layers. Core transcription runs locally on the device and can be used without an internet connection. In anatomy teaching, Q AI supports handwriting recognition and figure recognition, and the anatomical sketch drawn by students can be quickly converted into standard graphics or digital annotation. Q AI also supports real-time translation in 166 languages. For medical schools that accept international students, the anatomical terms explained by teachers in Chinese can be translated into English in real time to help international students understand complex anatomical structures.

2. Genio 520 Hardware Platform

The Qtenboard Genio 520 interactive tablet platform is based on the MediaTek Genio 520 (MT8371) chip, and the 8th generation MediaTek NPU is directly provided on the interactive tabletDedicated AI acceleration for 10 TOPS. In an anatomy teaching scenario, this means real-time handwriting recognition, shape correction, and gesture control all run on the device, with zero internet dependency, zero cloud latency, and zero data privacy risks.

Based on TSMC's 6nm FinFET process, the Genio 520 achieves high performance with low thermal output, which enables QtenboardFanless interactive tablet designMake it possible-essential for demanding acoustic environments such as anatomy laboratories and medical simulation centers. Fanless means zero noise, no moving parts and no maintenance cycles. MediaTek’s official commitment to the Genio 520 is10 year standard supply life cycle(EOL 2035), eliminating the risk of obsolescence of consumer-grade SoCs that are usually 2-3 years old, and hardware investment is fully protected for the head of procurement of medical schools who manage multi-year technology contracts.

3. DMS Equipment Management System

Qtenboard DMS support for medical schools with multiple anatomy labs, imaging classrooms, and simulation centersCentralized device management. Administrators can monitor the health status, permissions, and updates of all devices in one background, without having to operate one by one. DMS supports management equipment grouping by building, grade or department, remote push system configuration, and unified implementation of usage policies. System updates can be pushed from the background with one click and reach all classrooms within minutes.

DMS also supports AI-driven predictive diagnostics, checking hardware parameters such as panel temperature, internal voltage and color values. If any indicator deviates from the normal range, the system will give early warning to avoid accidental downtime of the equipment during the teaching process.

4. Full-size product line and configurations

Dimensions should be confirmed in conjunction with classroom depth, number of students, model details and viewing distance. Qtenboard service support 120 countries and regions, after-sales response ≤ 4 hours.

5. Manufacturing strength and quality assurance

• Established in 2005, 20 years of manufacturing experience
• 330,000 ㎡ industrial park, 16 factories and 8 full-automatic production lines
• SMT patch speed 120,000 components/hour, main board, sub-board independent production
• Class 10,000 clean room completes touch panel manufacturing and optical bonding
• Zero-Bonding zero-fit technology, 1mm tempered glass
• 48 hours high temperature aging test (72 hours for some items), comprehensive retest after aging
• The one-time pass rate of the whole machine is ≥ 97%, and the abnormal rate of aging is <1.5
• International Certification: CE, FCC, RoHS, ISO9001, CCC

5. customer case

How the 6. Purchaser Accepted the Interactive Whiteboard of Medical Anatomy

1. Display test

Use real course content for acceptance, don't just play promotional videos. Focus on the details of bone, muscle, blood vessels and nerves, the gray scale performance of CT/MRI slices, the readability of small font structure labels, multi-window display effect, long-distance readability, and the image reflection and color consistency. Qtenboard 4K UHD resolution and AG anti-glare glass stand out in these dimensions.

2. Interactive testing

Test the smoothness of model rotation, scaling and dragging, multi-point operation response, structure selection and hierarchical hiding, annotation and undo, multi-student operation at the same time, and touch consistency under Windows and Android. The Qtenboard touch accuracy is 1.5mm, single-point response time is 7ms, and multi-point response time is 10-15ms, ensuring the accuracy and real-time operation.

3. Software Testing

Confirm 3D model running fluency, educational software compatibility, medical image import and display, file saving and export, network and offline use, remote conference connection, and account and rights management. Qtenboard Android Windows OPS dual system can run mainstream 3D anatomy software and medical teaching platform.

4. Classroom Testing

Whether teachers can quickly switch content, whether students can see clearly the structure, whether many people can participate, whether remote students can view synchronously, whether teachers can save courseware and annotations, and whether teaching content can be reused after the end of the course. The Qtenboard wireless screen projection supports up to 9 devices to connect at the same time, and remote students can directly participate in the model operation through the cloud whiteboard.

7. common procurement errors

Myth 1: Only buy large screens, not professional 3D content

The display itself does not automatically produce three-dimensional anatomy teaching. Software, models, licenses, and course content should be identified. The Qtenboard supports pre-installation or configuration of professional medical software entrance, and the software license is provided by the school or software manufacturer.

Myth 2: Think that 3D models can replace physical specimens

The virtual model is suitable for spatial observation and structural explanation, and the physical specimen still provides tactile, texture and real organizational experience. The best program is a combination of digital, specimen and teacher guidance. The study also points out that 3D models have limited impact on long-term memory and final exam scores and need to be strategically integrated rather than simply replaced.

Myth 3: Ignoring system performance

3D models, images, and multiple windows require sufficient computational performance. Android not necessarily support all professional software, Windows OPS or external workstation should be tested in advance. The Qtenboard OPS module is based on the Genio 520 platform and is available in i5/i7 configurations.

Myth 4: Ignoring Data Security

Real cases and medical images may contain patient information. Teaching data needs to be de-identified and access control. Q AI core transcription runs locally, reducing data privacy risks. DMS supports setting access permissions by classroom.

Myth 5: Just look at the screen parameters

Classroom performance also depends on touch, software, camera, audio, installation, and teacher training. Complete scene acceptance shall be done. Qtenboard provide OEM/ODM customization and prototype testing, it is recommended to use real anatomy course content acceptance.

8. FAQ