With the modernization of animal husbandry, the demand for highly qualified animal husbandry professionals is increasing daily. Animal anatomy, as a fundamental core course in animal husbandry, is crucial for students to master animal anatomy structure and physiological functions. Traditional animal anatomy teaching methods have limitations, while the emergence of animal virtual simulation teaching software has brought new opportunities and transformations to animal anatomy teaching.

At this critical stage of modernization and intelligent development in animal husbandry, the quality of professional talent training directly impacts the future of the industry. As a cornerstone course in animal husbandry, the reform of its teaching model is urgently needed. Animal virtual simulation teaching software, leveraging cutting-edge technology, breaks through the bottlenecks of traditional teaching, injecting powerful momentum into animal anatomy teaching and becoming an important tool for improving teaching quality.

Traditional animal anatomy teaching relies on physical animal specimens, but is constrained by factors such as the difficulty in obtaining specimens, high preservation costs, and limited quantity, resulting in limited hands-on opportunities for students per capita. For example, rare animal or large livestock specimens are difficult to obtain, and problems such as tissue decay and structural deformation are prone to occur during specimen preservation, affecting teaching effectiveness. Animal virtual simulation teaching software uses computer modeling and simulation technology to construct high-precision animal anatomical models, covering common livestock such as cattle, sheep, and pigs, as well as many rare animals. Students can perform dissections anytime, anywhere in a virtual environment, repeatedly observing the animal’s skeletal, muscular, and visceral structures, without time or space limitations. Simultaneously, the software can simulate animal anatomical structures at different growth stages and under different pathological conditions, broadening students’ knowledge and allowing them to encounter anatomical cases rarely seen in reality, effectively compensating for the shortcomings of physical specimens and improving learning efficiency.

Animal dissection experiments carry certain risks. Improper operation by students may lead to injury, or improper handling may cause biosafety issues. Furthermore, purchasing and maintaining physical animal specimens requires significant financial investment, including animal procurement costs, preservative purchase costs, and specimen preservation equipment costs. Animal virtual simulation teaching software provides a zero-risk practical environment for teaching. Students can complete dissections without touching real animals and dissection instruments, avoiding accidental injuries and biosafety hazards. Simultaneously, the software reduces reliance on physical specimens, lowering teaching costs. Schools no longer need to invest heavily in specimen procurement and maintenance, allowing more resources to be allocated to upgrading teaching facilities and building a strong teaching staff.

VR devices immerse students in virtual dissection scenarios, allowing them to interact with virtual models, such as freely rotating, zooming in and out, and observing animal anatomical structures from different angles.

Each student’s learning ability and pace differ, making traditional uniform teaching models insufficient to meet individual needs. Animal virtual simulation teaching software possesses powerful data analysis and personalized learning capabilities. The software records students’ operational processes and learning data, such as dissection steps, time, and number of errors. Analysis of this data reveals students’ learning progress and weaknesses, providing teachers with precise teaching feedback. Teachers can develop personalized teaching plans based on individual student differences, providing targeted guidance and tutoring. Meanwhile, students can independently choose their learning content and pace based on their own learning progress, addressing any gaps in their knowledge and achieving personalized learning to improve learning outcomes.

Given the uneven distribution of educational resources, animal husbandry schools in remote areas often face a shortage of teaching resources. Animal virtual simulation teaching software, existing in digital form, is easy to store and transmit, breaking geographical limitations and enabling the sharing of teaching resources. High-quality virtual simulation teaching resources can be disseminated to various regions through online platforms, allowing students in remote areas to enjoy the same level of teaching resources as students in developed areas, promoting educational equity. Furthermore, with the development of internet technology, distance learning has become an important teaching method. Animal virtual simulation teaching software supports distance learning functions; teachers can remotely guide students in virtual dissection operations and conduct online teaching activities. Students can learn from anywhere with internet access, without time and space limitations, providing new avenues for innovation and development in teaching models.

The application of animal virtual simulation teaching software not only compensates for the shortcomings of traditional dissection teaching but also reconstructs the teaching scenario through technological empowerment. Its core value lies in using the virtual to enhance the real, and integrating the virtual and real worlds. This ensures the safety of teaching while improving students’ practical skills and innovative thinking. In the future, with the further integration of technologies such as AI and 5G, virtual simulation teaching may become the core driving force for the digital transformation of animal husbandry and veterinary education, cultivating more high-quality skilled talents for the industry.