High-fidelity Teaching Aid - 80cm Muscular human anatomy model

In medical education, the 80cm muscular human anatomy model, with its compact size and highly realistic muscle detail design, has become an important tool for enhancing teaching effectiveness. It not only solves the space and resource limitations of traditional teaching but also provides medical students and clinicians with a more efficient learning experience through intuitive demonstrations and interactive operations.

The high-fidelity 80cm small muscular human anatomy model is made of environmentally friendly soft silicone, safe and non-toxic, and impact-resistant. It fully presents the entire muscular system, including superficial and deep muscle groups, such as key structures like the external oblique, internal oblique, and transverse abdominis muscles of the anterior abdominal wall. This design avoids the bulkiness of large models while ensuring clear visibility of muscle fiber texture, attachment points, and functional relationships, helping students intuitively understand muscle morphology and movement mechanisms.

Compared to traditional plastinated specimens or large models, the 80cm size allows for flexible placement in classrooms, laboratories, or clinical departments, making it particularly suitable for group learning or bedside teaching. Its controllable cost and mass production capability solve the problem of insufficient cadaver specimen resources, enabling each student to have a dedicated practical opportunity and avoiding the inefficient scenario of "one person observing while others watch."

Meiwo high-fidelity small muscle human anatomy model consists of 27 parts, including all muscles, chest and abdominal wall muscles, upper and lower limb muscles, skull, brain, and thoracic and abdominal viscera and trachea. It also displays the muscles, blood vessels, and nerves of the head, neck, brain, and trunk. The detachable design allows students to operate the model themselves, simulating muscle dissection or surgical path planning. This interactivity stimulates active exploration, and combined with case analysis, helps students transform anatomical knowledge into clinical decision-making abilities.

In addition to basic anatomy teaching, the model also plays a role in sports medicine and rehabilitation therapy, helping coaches or physical therapists analyze muscle function and optimize training plans or rehabilitation programs. In patient education, its intuitiveness simplifies complex medical concepts, such as explaining the pathogenesis or surgical procedure of inguinal hernias to patients, improving treatment adherence. Furthermore, the model can be expanded into virtual anatomy resources by combining with digital technologies (such as QR code scanning), supporting multimedia teaching and enhancing classroom engagement. Meiwo's highly realistic 80cm miniature anatomical model, with its precise details, optimized space, and interactive design, serves as a bridge between theory and clinical practice. It not only strengthens basic anatomy teaching but also supports multidisciplinary applications, providing an efficient, safe, and economical solution for cultivating medical professionals with systematic clinical thinking.

Animal Plastinated Specimens – Facilitating Efficient Absorption of Animal Husbandry Knowledge

 Animal plastination is the preservation of animal carcasses using special plastination techniques. This process allows them to retain their original shape, color, and structural details over long-term preservation, creating permanent exhibition and research materials. Compared to traditional specimen preservation methods, plastinated specimens can present the animal's anatomical structure in greater detail, even showcasing the details of internal organs and tissues without cutting them. In animal husbandry education, animal plastinated specimens play an important role, specifically in the following aspects:

Providing realistic and intuitive teaching materials

Animal plastinated specimens can clearly demonstrate the internal structure of the animal body. For example, when explaining the digestive system of cattle, plastinated specimens allow students to visually see the shape, size, location, and connections between the rumen, reticulum, omasum, and abomasum. This intuitive display is more three-dimensional and realistic than simple book pictures or two-dimensional animations, helping students accurately understand the spatial relationships of organs.

For the skeletal structure of animals, plastinated specimens can completely present the morphology of the skeleton, including the structure of the joints. Students can touch and observe skeletal specimens, learning about the shapes and textures of different bones and their interactions during movement. This is crucial for understanding the principles of animal mechanics.

When studying the circulatory system, plastinated specimens, through special staining techniques, clearly display the vascular network. Students can observe the distribution and course of arteries and veins, as well as the connection between the heart and blood vessels. This visual presentation helps students understand the circulatory pathways and material exchange processes within the body.

For the reproductive system, plastinated specimens can demonstrate the detailed structure of male and female reproductive organs. For example, when explaining the reproductive system of sows, students can see the morphology and positional relationships of organs such as the ovaries, oviducts, and uterus, understanding the reproductive physiology of animals, including fertilization and embryonic development.

In animal husbandry courses, learning about animal diseases, pathology, and treatment methods is an important component. Plastinated specimens preserve actual samples of animal pathologies, helping students visually understand the effects of different diseases (such as intestinal diseases, respiratory diseases, and parasitic infections) on animal tissues and organs, enhancing their understanding of pathology.

Plastinated animal specimens facilitate practical teaching.

Compared to traditional fresh specimens, plastinated specimens offer superior durability. They do not easily rot or deteriorate, and require no complex preservation conditions such as refrigeration or chemical preservatives. In animal husbandry education, teachers can use these specimens for extended periods, readily available for both annual freshman orientations and repetitive explanations of different course content.

For example, in anatomy courses, students can observe plastinated specimens from multiple angles to learn about different structures of the same specimen without worrying about damage or loss of teaching value. This greatly helps students master anatomical skills.

Fresh animal specimens may carry various pathogens, posing certain biosafety risks during dissection. Plastinated specimens, having undergone processing, eliminate pathogens, providing a safe teaching environment for teachers and students. Students do not need to take cumbersome protective measures, such as special gloves and masks, allowing them to focus more on learning anatomical skills and observing specimen structures.

Promoting Interactive Learning and Self-Directed Learning

Animal plastinated specimens, with their lifelike appearance and realistic texture, can attract students' attention. When students see exquisite plastinated specimens, they are more likely to develop curiosity and a desire to explore. For example, when a plastinated horse specimen is displayed, students may become interested in the horse's muscle lines and body proportions, thus actively asking questions, which helps create a positive learning atmosphere.

In classroom teaching, teachers can divide students into groups to discuss and learn about plastinated specimens. Students can share their observations of structural features, raise their questions, and explore answers together. This group cooperative learning method can cultivate students' teamwork spirit and self-directed learning ability. For example, when studying the animal respiratory system, student groups can observe the structure of the trachea, bronchi, and lungs in the plastinated specimen and discuss the process and mechanism of gas exchange.

Animal plastinated specimens play multiple roles in animal husbandry education. They serve as an auxiliary tool for basic knowledge such as anatomy and physiology, help students better understand advanced topics such as animal diseases, reproduction, and genetics, and also promote the development of practical skills. With the development of animal husbandry education, plastinated animal specimens will undoubtedly play an increasingly important role in cultivating more professional and comprehensive animal husbandry talents and promoting the sustainable development of animal husbandry.

Shen Gongbao Aids in Exploration: Unlocking the Wonderful World of Animal Anatomical Specimens

 In traditional Chinese culture, Shen Gongbao is a legendary figure. A key character in the classic novel *Investiture of the Gods*, he profoundly influenced many people's understanding of the "wise man" through his extraordinary wisdom and cunning. Today, we'll take you into a fascinating world—the fusion of Shen Gongbao and animal anatomical specimens. In this integration, the collision of science and wisdom will bring us new insights.

Shen Gongbao: A Symbol of Wisdom and Trickery

Shen Gongbao, a character deeply skilled in strategy and tactics, has always been known for his intelligence and cunning. He can use his innate wisdom and strategy to break through his opponents' defenses and is proficient in various magical arts. In *Investiture of the Gods*, Shen Gongbao doesn't hesitate to use various means and conspiracies for his own interests and goals. In many cultural interpretations, Shen Gongbao also symbolizes challenging rules and traditions, representing "breakthrough" and "creation."

If Shen Gongbao lived in today's world, he might combine modern scientific tools with advanced technology and wisdom to solve mysteries that were previously inaccessible. Animal anatomical specimens, as one of the core tools of biological research, provide detailed information on the internal structure, function, and evolution of animals. If Shen Gongbao could use these specimens to learn the secrets of life, he would surely discover countless wisdoms and use them to devise more ingenious strategies.

Animal Anatomical Specimens: The Mysteries of Life and the Inspiration of Wisdom

Animal anatomical specimens are an important part of life sciences. Through the analysis of the internal structures of animals, they help us understand the physiological mechanisms and ecological adaptations of various species. Each specimen carries a story of life, containing countless scientific principles. Through the study of these specimens, we can not only better understand the complexity of life but also make further explorations in animal behavior, evolution, and physiology.

If Shen Gongbao could study animal anatomical specimens, he might draw inspiration from them, master the physiological secrets of animals, and even imitate the survival wisdom of certain species, helping him gain an advantage in battle and strategy. For example, he might be able to utilize the innate defense mechanisms of certain animals to enhance his magic, or improve his offensive capabilities by studying the hunting techniques of predators.

The Fusion of Wisdom and Innovation: Shen Gongbao's Perfect Integration with Science

As a wise man, Shen Gongbao's wisdom stems from his profound insight into details and keen judgment of situations. Animal anatomical specimens provide modern science with precise research tools; through the dissection and analysis of various levels of life, they help us understand the world more clearly. Combining Shen Gongbao's wisdom with animal anatomy is, in effect, an innovative fusion of tradition and modernity.

Imagine Shen Gongbao studying these specimens; he could extract unique wisdom from the animals' habits, structures, and reactions, applying it to his magic or strategies. For example, the extreme reactions exhibited by certain animals when facing danger might inspire Shen Gongbao to make more sophisticated decisions at crucial moments. These discoveries are precisely the "weapons" provided by modern science.

Science and Wisdom: A Synergy Across Time and Space

The story of Shen Gongbao tells us that the greatest characteristic of a wise person is not reliance on force, but the ability to see breakthroughs in complex situations that others cannot. Animal anatomical specimens provide us with scientific tools, helping us understand the structure and essence of life. By combining these two, we can not only explore more unknown territories but also draw boundless wisdom from them.

This is not only a re-enactment of Shen Gongbao's wisdom but also a profound interpretation of the power of modern science. Let us, like Shen Gongbao, use wisdom and innovation to solve problems, break through our limitations, and create a new future in our exploration of the mysteries of life.

Head, Neck, and Facial Anatomical Models: A Three-Dimensional Revolution in Modern Medical Education and a Reshaping of Clinical Thinking

 In neurosurgery, a 1-millimeter error can lead to facial paralysis; in dental implant surgery, a 0.5-meter misjudgment of bone structure can ruin a reconstructive surgery—the complex anatomy of the head, neck, and face is like a precise life code, and traditional two-dimensional atlas teaching methods can no longer meet the needs of modern medical education. With the development of the times, a new generation of head, neck, and facial anatomical models is driving a revolutionary shift in medical education from planar cognition to three-dimensional manipulation, building a cognitive bridge connecting basic anatomy and clinical practice.

The anatomical structure of the head, neck, and face is extremely complex, containing hundreds of muscles, nerves, and blood vessels, all of which are intertwined and closely related. Traditional two-dimensional atlases and planar images cannot fully and accurately represent the spatial relationships and three-dimensional morphology of these structures, easily causing comprehension difficulties for students. Head, neck, and facial anatomical models, through a three-dimensional form, clearly present these complex structures. Modern high-fidelity anatomical models are precisely manufactured, clearly showing the branching course of the trigeminal ganglion, the three-dimensional adjacency of the facial vein and facial artery, and so on. Hong Yu's silicone-polymer composite material model not only replicates the diameter differences of the temporal branch of the facial nerve but also uses color coding to distinguish arteries, veins, and nerves.

For example, a complete head, neck, and facial model can visually demonstrate the morphology of the skull, the connection of sutures, and the origin, insertion, and direction of facial muscles; the vascular and nerve model can clearly show the distribution of the carotid and vertebral arteries, as well as the branches and innervation areas of major nerves such as the trigeminal and facial nerves. By observing the models, students can directly perceive the location, shape, and adjacent relationships of various structures from multiple angles, quickly building a spatial understanding of the anatomical structures of the head, neck, and face, transforming abstract knowledge into concrete understanding, effectively reducing learning difficulty, and laying a solid foundation for subsequent in-depth learning and clinical practice. Research has found that students' accuracy in identifying human structures significantly improves after using such models.

Traditional classroom teaching mainly relies on teacher explanation and demonstration, resulting in a relatively monotonous teaching method that easily leads to student fatigue and boredom. The introduction of head, neck, and facial anatomical models brings more diversity and interest to teaching. Teachers can use models for hands-on explanations, combining the structural features of the models to explain anatomical knowledge in a simple and easy-to-understand way, making the teaching content more vivid and engaging. Simultaneously, students can be organized into group discussions and model observation activities, allowing them to explore and discover problems independently, cultivating their self-learning abilities and teamwork spirit.

Furthermore, the anatomical models are equipped with digital interactive functions. For example, by scanning QR codes or using human anatomy software (APP), students can access detailed anatomical information, 3D animation demonstrations, and related clinical case analyses, realizing a combined online and offline learning model. This diversified teaching method not only enriches the teaching content but also stimulates students' learning interest and enthusiasm, improving teaching effectiveness.

Each medical student has different learning abilities, pace, and styles. In the traditional large-class teaching model, it is difficult for teachers to provide personalized teaching based on the characteristics of each student. Head, neck, and facial anatomy models provide students with tools for self-directed learning. Students can observe and learn anytime, anywhere according to their own learning situation and needs. Students with weak foundations can deepen their understanding of basic anatomical structures through repeated observation of the models; students with stronger learning abilities can use the models for in-depth research, exploring the relationship between anatomical structures and clinical diseases. Furthermore, teachers can provide targeted guidance and tutoring based on the problems students encounter during model learning, achieving personalized teaching, meeting the learning needs of different students, and promoting their all-round development.

Different models can be designed to meet different teaching needs, such as representing the anatomical changes of specific diseases or the special course of nerves and blood vessels, providing students with diverse learning resources and meeting the needs of personalized training.

Head, neck, and facial anatomical models play a multifaceted and important role in medical education. By intuitively demonstrating complex structures, supporting diversified teaching, promoting personalized learning, and compensating for the lack of physical specimens, they effectively improve medical students' mastery of head, neck, and facial anatomy and their clinical practice abilities. With the continuous development of medical education and technological advancements, head, neck, and facial anatomical models will continue to be innovated and improved, playing an even more important role in medical education and making a greater contribution to cultivating high-quality medical professionals.

The Role of Human Skeletal Models in Medical Colleges

In today's rapidly developing digital teaching environment, human skeletal models retain their unique educational value. They are not only a material representation of anatomical knowledge but also a three-dimensional bridge connecting medical theory and clinical practice. As one medical educator stated, "A well-designed skeletal model is worth more than a thousand flat diagrams; it is the first 'speaking patient' in a medical student's career." The following will explore the role of human skeletal models in medical colleges from multiple perspectives.

The most direct function of human skeletal models is to help students understand the anatomical structure of the human skeleton. Through observation and touch, students can more clearly recognize the various parts of the skeleton and understand their arrangement, size, and shape. Skeletal models can demonstrate the skeletal structure of the human body, including the skull, spine, and limb bones, enabling students to more intuitively understand the composition of the skeletal system based on textbook knowledge.

Anatomy is one of the fundamental disciplines of medicine. For medical students, detailed knowledge of the skeleton is crucial for subsequent clinical practice. By using skeletal models, students can not only gain a clearer understanding of bone structure but also develop a basic understanding of human kinesiology by observing bone connections and movement patterns.

Human skeletal models provide students with direct hands-on opportunities. By touching, disassembling, and assembling the models, students can better understand the structure and function of bones. Especially when learning skills such as fracture repair and surgical procedures, skeletal models can simulate actual fracture scenarios, helping students master practical skills such as fracture treatment and surgical incision design.

This hands-on approach not only deepens students' understanding of bones but also improves their problem-solving abilities in actual clinical work. Particularly in surgical teaching, models can be used to simulate different types of fractures, allowing students to gain practical experience through simulation, thus laying a solid foundation for future clinical work.

Human skeletal models also play an important auxiliary role in clinical teaching. For example, when learning the diagnosis and treatment of fractures, joint diseases, or osteoporosis, skeletal models allow students to visually observe bone changes under different pathological conditions, helping them better understand pathophysiological processes.

Furthermore, human skeletal models can also assist students in simulated diagnosis. By altering the angle and position of the model or adding diseased components, students can simulate different clinical scenarios, thereby improving their diagnostic and clinical decision-making abilities. For example, simulating conditions such as osteoarthritis and scoliosis can help students improve their ability to make rapid and effective diagnoses in clinical practice.

Human skeletal models are not merely tools for anatomy learning; they also stimulate students' clinical thinking. Through analysis and discussion of the models, students can understand how different skeletal parts interact and consider the relationship between the skeleton and other systems (such as the nervous and muscular systems) in certain disease conditions. This helps cultivate students' ability to think about problems from multiple perspectives, promoting their overall clinical competence.

For example, skeletal models can help students understand how to perform bone displacement, bone fusion, and the protection of surrounding tissues during surgery. This multidisciplinary approach to thinking is a core competency in medical education, and skeletal models provide an effective teaching medium.

Beyond professional medical education, human skeletal models also have wide applications in health education and public science popularization. In public health courses in medical colleges, medical science lectures, and public health education activities, skeletal models can effectively help audiences understand the function of bones, the importance of bone health, and methods for preventing bone diseases.

In this way, skeletal models not only enhance students' practical skills but also improve their sense of social responsibility, enabling them to better engage in health education and disease prevention work in their future careers.

Human skeletal models play a crucial role in medical colleges, serving not only as an important tool for anatomy teaching but also in clinical teaching, surgery, health education, and many other fields. Through learning and operating these models, students can better master medical knowledge, improve their practical skills, clinical reasoning abilities, and overall competence, laying a solid foundation for future medical work. Therefore, skeletal models are not only an important component of medical education but also a key tool for students' comprehensive development.

At present, Meiwo products are mainly divided into 4 categories:

1. Specimen products: Animal plastinated specimens, animal skeletons, biology microscope slides, etc.

2, Model products: soft silicone model, high simulation soft silicone model, high realistic pathological models, high realistic silicone anatomy models.

3. Medical anatomy softwares: human anatomy software, animal anatomy software, 3D digital human anatomy specimen database, 3d body slices anatomy software.

4. Life Science Museum: Human Science Museum, Animal Science Museum, Ocean Museum, Chinese Herbal Medicine Museum, school history Museum, simulated pharmacy, aquatic herbarium, etc.

The Role of Human Anatomy Teaching Software in Medical Anatomy Courses

 With the rapid development of information technology, digital educational tools have been deeply integrated into the field of medical education. Human anatomy, as a fundamental core course in medical education, is undergoing a transformation in its teaching methods from traditional to modern. The emergence of human anatomy teaching software not only compensates for the limitations of traditional anatomy teaching but also provides medical students with an unprecedented learning experience.

In traditional anatomy teaching, the number of physical specimens is limited, and constraints such as preservation conditions and ethical considerations make it difficult to meet the needs of all students for simultaneous and detailed observation. Human anatomy teaching software overcomes these limitations, using 3D modeling technology to present the various systems and organs of the human body in a three-dimensional and dynamic form. In the classroom, teachers can easily demonstrate various aspects of the human body structure to students, such as the origin and insertion points of muscles, the course of blood vessels, and the distribution of nerves. Furthermore, through zooming in, zooming out, and rotating, students can observe from different angles and comprehensively, making abstract anatomical knowledge intuitive and easy to understand. Furthermore, the software can simulate the dissection process, demonstrating the layer-by-layer separation of organs, avoiding the waste of teaching resources caused by the irreversible nature of physical specimen dissection, greatly improving teaching efficiency and enriching teaching models.

For medical students, the human anatomy is complex and diverse. Relying solely on textbooks and teacher explanations makes it difficult to build a complete and accurate three-dimensional model in their minds. The interactivity of human anatomy teaching software provides students with opportunities for independent exploration. Students can operate the software themselves using devices such as mice and touchscreens, independently choosing the observation areas and angles to gain a deeper understanding of the details of human structures. The software can also set up virtual experiments, allowing students to perform dissection operations in a virtual environment, such as simulating surgical incisions and tissue separation. This immersive learning experience enhances students' memory and understanding, effectively improving learning outcomes. Simultaneously, the software's built-in testing function helps students promptly assess their learning progress, identify knowledge gaps, and conduct targeted learning and reinforcement.

In some regions with relatively scarce medical education resources, the shortage of physical anatomical specimens and limited anatomy laboratory conditions severely restrict the quality of anatomy teaching. The emergence of human anatomy teaching software has brought new hope to these regions. Digital teaching resources allow students to access complete and accurate anatomical knowledge even without sufficient physical specimens. Furthermore, the widespread availability of the internet facilitates easy remote sharing of teaching software, enabling students in different regions to access the same high-quality resources, thus helping to narrow the gap in medical education levels between regions and promoting educational equity.

Anatomy teaching software is not intended to completely replace traditional anatomy teaching, but rather to serve as a powerful supplementary tool, complementing cadaver dissection practice. These digital tools significantly improve the quality and efficiency of medical anatomy education by providing a safe, repeatable, and interactive learning environment. With the further development of technologies such as virtual reality and artificial intelligence, anatomy teaching software will continue to deepen its application in medical education, playing an irreplaceable role in cultivating medical professionals with a solid foundation in anatomy. In the future, how to better integrate virtual and real anatomy experiences and achieve complementary advantages between traditional and modern teaching methods will be an important challenge for medical educators.

Benefits of Cross-Sectional Anatomy Software for Medical Students in Medical Education

 In the field of medical education, anatomy is a crucial foundational discipline, laying the groundwork for medical students' in-depth understanding of human structure and physiological functions. However, traditional anatomy teaching relies on physical specimens and two-dimensional atlases, which has many limitations and cannot meet the demands of modern medical education for precision and visualization. With the rapid development of information technology, cross-sectional anatomy software has emerged, bringing revolutionary changes to medical students' anatomy learning and demonstrating significant advantages in medical education.

Traditional cross-sectional anatomy teaching heavily relies on physical specimens and slides, but the scarcity of specimen resources, high preservation costs, and irreversible manipulation limit students' practical opportunities. For example, universities such as Fudan University have faced the dilemma of multiple students sharing a single specimen, resulting in insufficient mastery of complex structures (such as the distribution of brain nerves). Cross-sectional anatomy software addresses this deficiency in the following ways:

Digital human specimen database: Three-dimensional models are built based on real human cross-sectional scan data (such as CT and MRI), supporting unlimited virtual dissection operations. For example, Meiwo3D anatomy software provides high-precision Asian human models covering systemic anatomy, regional anatomy, and clinical cases. It allows layer-by-layer viewing of cross-sectional structures and real-time comparison of imaging images (such as CT and MRI), helping students understand the relationship between anatomical structures and clinical images. Online platforms enable students in remote areas to access high-quality resources, promoting educational equity.

The human body is complex and possesses three-dimensional spatial characteristics. Traditional two-dimensional atlases and planar images cannot comprehensively and accurately represent the spatial relationships and three-dimensional morphology of human structures, making it difficult for medical students to develop spatial concepts. Cross-sectional anatomy software utilizes advanced 3D modeling and visualization technologies to present human structures in a three-dimensional and dynamic way. Students can observe cross-sectional images of the human body from any angle, and through operations such as rotation, cutting, and layering, clearly see the morphology, location, and interrelationships of organs and tissues at different levels. For example, when learning cranial anatomy, students can use software to observe the brain's structure layer by layer, understanding the distribution of lobes, nerve fiber bundles, blood vessels, etc., from different angles, and intuitively experiencing their spatial location and adjacent relationships. This three-dimensional visualization learning method helps medical students develop clear and accurate spatial cognition, better understand the complexity of human structure, and lay a solid foundation for subsequent clinical learning and practice.

The variety and quantity of physical specimens are limited, making it difficult to cover all anatomical variations and pathological conditions in the human body. However, tomographic anatomy software integrates a large amount of anatomical data and image resources, including not only the anatomical structures of normal humans but also various anatomical variations and pathological changes in disease states. Students can observe rare anatomical variation cases through the software, understand the impact of diseases on human structure, broaden their knowledge, and deepen their understanding of anatomy. In addition, the software provides rich supplementary learning materials, such as detailed text descriptions of anatomical structures, audio explanations, and animated demonstrations, helping students better master anatomical knowledge. These diverse learning resources enable students to learn anatomy in depth from multiple perspectives, improving learning outcomes.

Tomographic anatomy software plays an indispensable role in medical education. By providing a more intuitive, dynamic, and interactive learning experience, it greatly enhances medical students' understanding and retention of anatomical knowledge, while also promoting the integrated learning of other disciplines. With continuous technological advancements, sectional anatomy software will continue to play an increasingly important role in medical education, helping to cultivate more highly qualified medical professionals.

Highly Realistic Deep Anatomy of Human Body Model

Highly realistic deep anatomy of human body model provides a revolutionary teaching tool for medical education by meticulously replicating the detailed structures of internal organs, blood vessels, nerves, and muscles. Their impact extends beyond the transmission of basic knowledge to include clinical skills development, interdisciplinary integration, and research support. The deep anatomy of human body model accurately reproduces the morphology and spatial relationships of deep blood vessels (such as branches of the abdominal aorta), nerve plexuses (such as the celiac plexus), and muscle layers (such as the diaphragm and psoas major), transforming traditional two-dimensional diagrams into tangible, three-dimensional structures.

Meiwo highly realistic deep anatomy of human body model includes 3 parts, clearly shows venous branches (superficial temporal vein, supraorbital vein, infraorbital vein, external nasal vein, submental vein, internal sacrum vein, retroauricular vein, occipital vein, maxillary vein, mandibular vein, internal jugular vein, subclavian vein, axillary vein , lateral thoracic vein, veins of epiphysis, superior vena cava, posterior intercostal vein, brachial vein, radial vein, ulnar vein, palmar vein, dorsal palmar vein, metacarpophalangeal vein, anterior interosseous vein, inferior vena cava, common iliac vein veins, internal iliac vein, median sacral vein, femoral vein, great saphenous vein, lateral femoral vein, superficial external pudendal vein, anterior tibial vein, dorsal venous network, popliteal vein, superior gluteal vein, inferior gluteal vein, posterior tibial vein, first perforating vein, second perforating vein, etc.)

Arterial branches: (cerebral artery, common carotid artery, maxillary artery, mandibular artery, medial pterygoid artery, inferior alveolar artery, mental artery, superficial temporal artery, occipital artery, medial artery, dorsal nasal artery, vertebral artery, brachiocephalic artery Trunk, aortic arch, thoracic aorta, abdominal aorta, iliac aorta, internal iliac artery, superior gluteal artery, inferior gluteal artery, femoral artery, lateral femoral circumflex artery, deep femoral artery, anterior tibial artery, anterior lateral malleolus artery, anterior medial malleolus artery, arcuate artery, dorsal pedis artery, dorsal metatarsal artery, suprascapular artery, lateral thoracic artery, popliteal artery, first perforating artery, second perforating artery, lateral supra-knee artery, medial supra-knee artery, posterior interosseous artery, Anterior tibial artery, posterior tibial artery, medial malleolus, dorsal palmar artery, dorsal digital artery, axillary artery, thoracoacromial artery, anterior circumflex artery, brachial artery, radial collateral artery, radial artery, ulnar artery, interosseous artery anterior artery, superficial palmar branch, deep palmar arch, superficial palmar arch, common palmar artery, palmar artery, etc.)

Nerve branches: (temporal branch, posterior auricular nerve, greater occipital nerve, supraorbital nerve, infraorbital nerve, optic nerve, pterygopalatine ganglion, masseter nerve, buccal nerve, inferior alveolar nerve, sympathetic trunk, vagus nerve, brachial plexus , recurrent laryngeal nerve, esophageal nerve, thoracic nerve artery, abdominal nerve arterial plexus, intercostal nerve, inferior mesenteric ganglion, sympathetic trunk, sacral ganglion, anterior sacral nerve, gray communicating branch, iliac plexus, genitofemoral nerve , lateral femoral cutaneous nerve, iliohypogastric nerve, ilioinguinal nerve, subcostal nerve, femoral nerve, lateral femoral nerve, muscular branch, saphenous nerve, deep peroneal nerve, superficial peroneal nerve, tibial nerve, medial foot nerve, dorsal toe nerve , cutaneous branch of deep peroneal nerve, spinal nerve, superior gluteal nerve, inferior gluteal nerve, sciatic nerve, pudendal nerve, common peroneal nerve, tibial nerve, greater occipital nerve, posterior bundle, radial nerve, ulnar nerve, axillary nerve, superior thoracic nerve, median nerve, thenar branch of median nerve, digital palmar nerve, posterior interosseous nerve, etc.)

Bone and skeletal muscles: deep skeletal muscles attached to the bones of the whole body (temporal muscle, masseter muscle, digastric muscle, sternocleidomastoid muscle section, pterygoid muscle, mandibular muscle, geniohyoid muscle, buccal muscle section, Cross-section of semispinalis capitis. Cross-section of cheek muscle, rectus minor posterior minor, major rectus posterior major, superior scalene, inferior scalene, longissimus capitis, levator scapulae, rhomboid, supraspinatus , infraspinatus, teres minor, teres major, levator rib muscle, spinous muscle, quadratus lumborum, internal oblique muscle, gluteus maximus cross-section, gluteus medius cross-section, gluteus minimus, piriformis, superior cochineal, Inferior periscus, obturator internus, sacrotuberous ligament, semitendinosus section, long head section of biceps femoris, quadratus femoris, adductor magnus, intermedius, short head of biceps femoris, semimembranosus, Popliteus, tibialis posterior, flexor digitorum longus, flexor digitorum longus.Achilles tendon, tibialis posterior muscle, neck longus, external intercostal muscle, internal intercostal muscle, intercostal innermost muscle, retrocostal muscle, psoas major Muscle, iliacus, gracilis, obturator externus, adductor longus, adductor brevis, adductor magnus, vastus intermedius, vastus medialis decapitation, vastus lateralis decapitation, rectus femoris decapitation, tibialis anterior Muscle decapitation, extensor digitorum longus, extensor digitorum longus tendon, extensor digitorum brevis, extensor digitorum brevis, interosseous muscle, coracobrachialis decapitation, biceps short head, biceps long head, brachialis , flexor carpi ulnaris, extensor finger, extensor little finger, pronator teres short head, palmar longus, pronator anterior, abductor pollicis brevis, abductor pollicis longus, abductor little finger, lumbriformis, thumb pair palmar muscle, transverse carpal ligament, supinator, extensor pollicis brevis, extensor index finger, etc.)

High realistic deep anatomy of human body model can delve into deep tissues, providing more comprehensive anatomical details. Through their accurate deep structural reconstruction, safe operating environment, and multi-dimensional application scenarios, they have become a core link connecting basic theory, clinical practice, and scientific research innovation in medical education, continuously promoting the precision and efficiency of medical talent training.