CULTURAL VISION OF DANCE EDUCATION:
RESEARCH ON TEACHING AND
PERFORMING CHINESE CLASSICAL DANCE
IN CROSS-CULTURAL CONTEXTS
Ke Li*
Division of Arts, ShenZhen University, Shenzhen, Guangdong, 518060, China
coco810@sohu.com
Reception: 11 March 2024 | Acceptance: 10 May 2024 | Publication: 11 July 2024
Suggested citation:
Li, K. (2024). Cultural Vision of Dance Education: Research on Teaching
and Performing Chinese Classical Dance in Cross-Cultural Contexts. 3C
Empresa. Investigación y pensamiento crítico, 13(1), 81-100. https://doi.org/
10.17993/3cemp.2024.130153.81-100
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ABSTRACT
This paper explores the teaching and performance of classical Chinese dance in a
cross-cultural context, and proposes an innovative deep learning-based model for
generating classical Chinese dance. The model effectively combines dance gestures
and audio features, accurately extracts key features from dance and music data, and
transforms these features into internal representations through an encoder, which in
turn generates dance movements that match the music. The introduction of the
attention mechanism allows the model to focus on the important parts of the music
during the generation process, realizing a more harmonious fusion of classical
Chinese dance and music. Finally, the model of teaching ability module, performance
ability module and choreography ability module is carried out to comprehensively
improve students' dance skills and humanistic literacy, and to develop cross-cultural
communication ability and creativity. The results show that this model excels in dance
innovativeness and ability to convey emotions, receiving high scores of 8.9 and 9.3,
respectively. The research results can provide dancers from different cultural
backgrounds with a new perspective for learning and appreciating classical Chinese
dance, and promote the communication and dissemination of world culture.
KEYWORDS
Deep learning; classical Chinese dance; audio features; decoder; attention
mechanism
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INDEX
ABSTRACT .....................................................................................................................2
KEYWORDS ...................................................................................................................2
1. INTRODUCTION .......................................................................................................4
2. CHINESE CLASSICAL DANCE MUSIC FEATURE EXTRACTION ........................5
2.1. Audio feature extraction .....................................................................................5
2.2. Action feature extraction ....................................................................................6
3. MODULE DESIGN OF GENERATIVE MODELING FOR CLASSICAL CHINESE
DANCE .....................................................................................................................8
3.1. Generative model network structure ..................................................................8
3.2. Classical dance generator and encoder design .................................................9
3.3. Discriminator design for dance movement evaluation ......................................11
3.4. Realistic Chinese Classical Dance Design ......................................................13
4. TEACHING AND PERFORMING INTERCULTURAL CHINESE CLASSICAL DANCE
14
5. DISCUSSION OF EMPIRICAL EVIDENCE ON THE RESULTS OF TEACHING
CLASSICAL CHINESE DANCE .............................................................................16
5.1. Analysis of Choreographic Authenticity and Coherence ..................................16
5.2. Multidimensional Assessment of Dance Performance .....................................17
6. CONCLUSION ........................................................................................................18
REFERENCES ..............................................................................................................19
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1. INTRODUCTION
With the deepening of globalization, cultural exchange and integration have
become the theme of the times. In this context, dance, as one of the oldest art forms
of mankind, its education and performance are naturally endowed with a broader
cultural vision [1]. Chinese classical dance has a long history and rich movements,
and is an important part of Chinese culture. With its unique rhythms, gestures and
expressions, dance shows the charm of Chinese civilization to the world [2-3].
However, due to cultural differences and language barriers, the teaching and
performance of classical Chinese dance in cross-cultural contexts often face many
challenges. In terms of teaching, due to the differences in students' perception and
understanding of body language in different cultures, how to enable students to
accurately master the movement essentials and rhythmic characteristics of classical
Chinese dance has become the primary problem that teachers need to solve [4]. In
terms of performance, it is also a big challenge to make audiences from different
cultural backgrounds understand and appreciate the beauty of classical Chinese
dance. Teachers and performers are required to have not only superior dance skills,
but also profound cultural literacy and cross-cultural communication skills [5].
Combined with the research data, it is found that a large number of scholars put
forward targeted strategies for the development of classical Chinese dance and
foreign dance teaching and performance. For example, Ma, L perfectly united training,
creation and performance in the teaching of classical Chinese dance, analyzed the
importance and artistic characteristics of body rhyme teaching, explored the
comprehensive scoring system from four aspects, namely, the establishment of
evaluation index dimensions, the analysis and treatment of evaluation indexes, the
weight ratio of evaluation index dimensions, and the conversion and comprehensive
calculation of evaluation indexes, and explored the new possibilities of choreographic
creation [6]. Li, J et al. on the MOOCs platform, integrating high-quality teaching
resources worldwide, including dance videos, teaching courseware, expert lectures
and so on. And using the MOOCs platform's wide dissemination and sharing function,
the customized teaching method can deliver the quality dance teaching resources to
more people and promote the inheritance and development of the dance art [7]. Yang,
X in the special performance prediction model for dance students, correlation analysis
and clustering analysis were performed, and neural network was used to build the
prediction model, and the model was analyzed for reliability and error. The test results
showed that the model constructed by the neural network predicted the level of
development of dance performance and physical fitness more accurately than the
regression model [8]. Anderson, M presents the work of many of Australia's major
dance companies and individual performers while spanning a wide range of genres,
including modern, ballet, theater, contemporary, folk and social dance styles. This
dance collection is part of the Australian Performing Arts Collection and encompasses
five key areas of circus, dance, opera, music and theatre [9]. Zhang, D takes dance
choreographers as the object of study and applies the music feature extraction
technique in machine learning to analyze the choreographers, applying the extracted
music feature information to the choreography process while synchronizing the audio
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and video to achieve better choreographic effect [10]. Daly, D. K adopted an artistic
practice investigation approach that included designing, rehearsing, performing and
recording two performance events. A departure from traditional classical music
methods, drawing on Dalcroze's artistic rhythmic techniques and utilizing ethnography
and other arts-based methods to develop and collect data. An overview of Dalcroze's
artistic rhythms from the performer's perspective, i.e. the researcher's, is presented
and the implications of this approach for the investigation of his artistic practice are
discussed [11].
The above dance teaching methods are often limited to a particular cultural context,
which is difficult to meet the growing demand for cross-cultural teaching. In order to
break through this limitation, this paper starts from the cultural perspective of dance
education, and the deep learning-based machine dance automatic generation
technology brings new possibilities for cross-cultural dance teaching. Deep learning
technology's has achieved remarkable results in the fields of image recognition,
speech recognition and natural language processing. Deep learning has a powerful
feature extraction and learning ability, which can automatically extract useful
information from a large amount of data and simulate the complex thinking process of
human beings. Therefore, applying deep learning technology to the generation and
teaching of Chinese classical dance is expected to provide a new solution for cross-
cultural dance communication and dissemination. Through deep learning algorithms,
a classical Chinese dance generation model is constructed, which is able to combine
dance gestures and audio features, improve the model's ability to capture the complex
relationship between dance and music by improving the traditional encoder and
decoder and introducing the attention mechanism, so as to make a perfect match
between dance and music, realize a better fit between classical Chinese dance
movements and music, and provide a new perspective for dancers of different cultural
backgrounds to learn This will provide dancers from different cultural backgrounds
with a new perspective on learning and appreciating classical Chinese dance. At the
same time, by combining the teaching ability module, performance ability module and
choreography ability module, we can comprehensively improve students' dance skills
and humanistic qualities, and cultivate cross-cultural communication ability and
creativity.
2. CHINESE CLASSICAL DANCE MUSIC FEATURE
EXTRACTION
2.1. AUDIO FEATURE EXTRACTION
Audio feature extraction is a key technique for analyzing and understanding the
intrinsic properties of music, especially for Chinese classical dance music, whose
unique rhythmic and rhythmic characteristics need to be captured by precise audio
analysis. This process not only involves the technical aspects of signal processing,
but also requires an in-depth understanding of the cultural connotation and artistic
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expression of the music. In terms of rhythmic feature extraction, Mel Frequency
Cepstrum Coefficient (MFCC) is a commonly used method. MFCC is able to simulate
the human ear's perceptual characteristics of sound and effectively represent key
information such as pitch, timbre, etc. of an audio signal. By extracting MFCC
features, the melody of classical Chinese dance music can be analyzed in detail to
capture its unique pitch changes and timbre characteristics. Rhythm feature
extraction, on the other hand, is an important part of understanding classical Chinese
dance music. Classical Chinese dance music often has a distinctive sense of rhythm,
which is crucial to the coordination of dance movements. Rhythm feature extraction
needs to accurately capture the beat information in the music, including the strength
and speed of the beat. By analyzing these rhythmic features, the coordinated
relationship between music and dance movements can be better understood. In
conclusion, through the extraction of rhythmic and rhythmic features, the intrinsic
properties of music can be understood more deeply, providing strong support for the
subsequent generation and teaching of dance movements.
2.2. ACTION FEATURE EXTRACTION
Action feature extraction is a key link to deeply understand the connotation and
style of dance movement, especially in the analysis of Chinese classical dance, which
is famous for its rich body language, precise action positioning and smooth action
transition, so extracting its action features is of great significance for subsequent
dance generation, teaching and performance. OpenPose technology can detect and
track multiple key points of the human body in real time. The OpenPose technology
can detect and track multiple key points of the human body in real time, and Figure 1
shows the key points of human dance movement characteristics. Figure 1 shows the
key points of human dance movements, such as wrists, ankles, knees, shoulders,
etc., so as to accurately capture the position information, trajectory, speed and
acceleration of the key points of dance movements. These features can not only
describe the basic form of dance movements, but also reflect the dancer's
performance style and emotional expression. In Chinese classical dance, the soft
curves of the arms and wrists, the light jumps of the feet, and the coordinated rotation
of the body are important parts of the dance flavor and style, and the 18 key points of
the human body are obtained by extracting the human body movement features using
OpenPose.
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Figure 1. Key point detection of human dance motion features
By extracting audio features and action features, the following sets of feature data
are obtained:
1. Audio feature
, i.e., the feature dimension of each
audio is 32.
2. Beat feature
, i.e., the beat dimension size of the video
frame section is 3.
3. Pose feature
, i.e., the size of the pose dimension in a
video frame is 36.
4. Audio data , which means that the audio data is
frames in total, and each frame is represented as .
Mi=m1
i,m2
i,,m32
i
Bi=b1
i,b2
i,,b3
i
pi=p1
i,p2
i,,p36
i
M={M1,M2,,Mn}
n
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5. Dance Gesture Data , indicates that the dance gesture is
frames, and each frame is represented as .
3. MODULE DESIGN OF GENERATIVE MODELING FOR
CLASSICAL CHINESE DANCE
3.1. GENERATIVE MODEL NETWORK STRUCTURE
After feature extraction is completed, the classical Chinese dance generation
model can be divided into three main parts, generator, self-encoder and discriminator.
These parts work together to generate realistic dance movements. The network
structure of the classical Chinese dance generation model is shown in Figure 2. The
generator is the core part of the dance generation model, which is responsible for
generating the corresponding dance action gestures based on the input audio
features or other information. Self-encoder is a neural network model for data
compression and reconstruction, which is used for audio reconstruction in the
classical Chinese dance generation model. The self-encoder accepts the input audio
signal and tries to recover the original audio signal through the process of encoding
and decoding [12]. In the dance generation model, the role of the self-encoder is to
compress and reconstruct the extracted audio features so that they can better guide
the generator to output the corresponding dance movements. The discriminator is
another important component used to evaluate the authenticity of the generated
classical Chinese dance movements. The task of the discriminator is to determine
whether the generated classical Chinese dance movements are similar to the real
ones, so as to help the generator learn more realistic dance movements. By
combining the three parts of generator, self-encoder and discriminator, a complete
model of classical Chinese dance generation can be constructed. This model is able
to generate realistic classical Chinese dance movement gestures based on input
audio features or other information, which provides powerful support for classical
Chinese dance creation and learning [13-14].
p={p1,p2,,pn}
n
P
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Figure 2. Network structure of Chinese classical dance generation model
3.2. CLASSICAL DANCE GENERATOR AND ENCODER DESIGN
In order to make the generation of Chinese classical dance more effective, the
Seq2Seq model is chosen to design the generator, which specifically includes the
encoder and decoder. However, the Seq2Seq model cannot represent all the
semantic information, and the attention mechanism will be added on the basis of this
model, so as to become a context vector that can summarize different semantic
information at different moments. The dance generation sequence with the addition of
the attention mechanism is shown in Figure 3.
In the encoder part, the attention mechanism is used to calculate the weight of
each position in the input sequence so that all relevant information is taken into
account when generating the context vector. This is achieved by assigning a weight to
each position in the input sequence, which is calculated based on the importance of
the semantic information at that position. In the decoder part, the same attention
mechanism is used to compute the weight for each position in the output sequence. In
this way, the model can take into account contextual information when generating
each output step and emphasize or ignore certain parts as needed. By combining the
Seq2Seq model and the attention mechanism, a flexible dance generation model can
be created. The model can generate richer, more realistic and compliant dance
movements based on input audio features and other information.
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Figure 3. Attention mechanism
With the introduction of the attention mechanism, the generator network is able to
focus on different semantic information at different moments to better understand and
generate dance movements related to the input audio features [15]. This design
approach can improve the flexibility and generation effect of the model, and better
meet the needs of cross-cultural teaching and learning. The generator model of
classical Chinese dance for the generator network after the introduction of the
attention mechanism is shown in Figure 4.
Figure 4. Schematic diagram of the Chinese classical dance generator model
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3.3. DISCRIMINATOR DESIGN FOR DANCE MOVEMENT
EVALUATION
In order to make the matching of classical Chinese dance gestures and music more
accurate, the matching results are evaluated by adding a discriminator. The
discriminator is designed to evaluate how well the generated dance movements
match the music. By adding the discriminator, the generated dance movements can
be evaluated more accurately so that the generation process can be adjusted to
improve the matching between the dance movements and the music. The
discriminator receives the generated dance movement as input and outputs an
evaluation result indicating how well the movement matches the music. This
evaluation result may be a probability value, e.g., the discriminator outputs a
probability value close to 1 if the generated dance movement is highly matched to the
music, and a probability value close to 0 if the degree of matching is low. During the
training process, the loss function of the discriminator can be designed according to
practical needs. A common loss function is the binary cross-entropy loss, which is
used to measure the difference between the generated movements and the real
music match. By minimizing this loss function, the discriminator can gradually learn
how to accurately assess the degree of match between dance movements and music.
The specific way of discriminating is mainly through the loss function of the
(1)
Where, denotes the generator, denotes the music,
denotes the
generation of the dance gesture, and denotes the size of the probability that
the dance matches the music, if the value is close to 1, it indicates that the two match
more. If the value is in the range of 0, it indicates that the dance-music matching
probability is small.
The classical Chinese dance gesture encoder network structure is shown in Figure
5, after generating the dance gesture, the discriminator is used to judge the match
between the dance and the audio, so as to confirm whether the audio is consistent
with the real gesture. If the gesture vector is denoted as
, the
difference between the front and back frames is denoted as
, and the audio features are denoted as
[16]. All of them are input into the discriminator and then the
discrimination is calculated by equation (1).
L
GA N(G,D)=E(P,M)[log D(P,M)] +
1
2
[log(1 D(P,M)) + log(1 D(W,M))
]
G
M
G(M)
D(G,M)
p={p1,p2,,pn}
{P1P2,P2P3,,Pn1Pn}
M={M1,M2,,Mn}
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Figure 5. Network structure of Chinese classical dance pose encoder
The role of self encoder is to reconstruct the audio features. If
denotes an audio
feature and
denotes a beat feature, the match between music and dance can be
improved by inputting the two features into the encoder and then encoding and
decoding them. The specific reconstruction is as follows:
(2)
(3)
where denotes the reconstructed audio,
denotes the extracted low
dimensional audio features.
denotes the splicing process of the extracted
parameters, and and
denote the neural networks to be learned
[17].
B
fi=Encoder(Concat(Mi,Bi))
M
i=Decoder(fi)
M
i
f
Concat
Encoder
Decoder
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3.4. REALISTIC CHINESE CLASSICAL DANCE DESIGN
In order to make the generated dance movements more realistic and in line with
the style of Chinese classical dance, the improved Pix2Pix algorithm can be used to
further process the generated dance movements. The training process of the
improved Pix2Pix network for the dance movements is shown in Figure 6. The Pix2Pix
algorithm is an image-to-image conversion algorithm that converts the sketches of the
dance poses into real dance poses. During the training process, the Pix2Pix algorithm
gradually improves its conversion ability by learning the mapping relationship from
sketches to real dance poses. The algorithm continuously optimizes its parameters to
minimize the difference between the real dance pose and the conversion result. By
using the improved Pix2Pix algorithm, the generated dance movements can be
converted into movements that are more realistic and in line with the Chinese
classical dance style.
Figure 6. Dance Action Training Process of Improved Pix2Pix Network
Based on the above training process, the whole process of realizing the live-action
dance can be divided into the following steps:
1.
Video reading and single-frame extraction, using the OpenCV library to read
the dance video file. Extract single frames in the video to form a collection of
single frames as input for subsequent processing.
2.
Dance movement pose extraction, use pose estimation tools such as
OpenPose to analyze the extracted single frames for pose analysis. The pose
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information is converted into a heat map representation, where each pixel of
the heat map represents the action pose of the corresponding part.
3.
Establish the mapping relationship between the heat map and the real-life
video, using the labeled training dataset, train the Pix2Pix model to establish
the mapping relationship from the heat map to the real-life dance video. Let the
model learn how to convert the pose information into real dance movements.
4.
Dance movement coordinate conversion and video synthesis to convert the
predicted dance gesture coordinates into corresponding heat maps. Using the
trained Pix2Pix model, the newly generated heat maps are converted back to
real dance movements. These real dance action frames are combined
according to the chronological order to form a new real-life version of classical
Chinese dance video, which further enriches and advances the teaching of
classical Chinese dance.
4. TEACHING AND PERFORMING INTERCULTURAL
CHINESE CLASSICAL DANCE
In order to further enrich and promote the teaching and dissemination of cross-
cultural classical Chinese dance, the cultivation model of teaching ability module +
performance ability module + choreography ability module can be implemented. This
model aims to cultivate students' intercultural communication ability and dance ability
through systematic teaching and practicing activities. The three levels of modules for
the cultivation of classical Chinese dance ability are shown in Figure 7.
1.
The basic skills training in the teaching ability module is the cornerstone of
dance learning, including the training of body flexibility, strength and
coordination. Body rhythm is the soul of dance, emphasizing the integration of
the dancer's inner emotions and outer movements [18]. Understanding the
development history of classical Chinese dance as well as teaching methods
provides future dance teachers with the necessary knowledge base. By
attending and observing various performances, students can cultivate
creativity, stimulate vigor and passion, and better understand the charm of
dance art.
2.
The performance ability module includes repertoire rehearsals and
international exchange activities. By rehearsing classical or modern Chinese
classical dance repertoires, students can improve their performance skills and
stage presence. Students are encouraged to participate in international dance
festivals, cultural exchange activities, etc., to cultivate their international vision
and cross-cultural communication skills [19-20].
3.
The choreography ability module includes the fundamentals of dance
choreography, multicultural integration, and international cooperation
programs. Learning the basic principles and techniques of choreography
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enables students to create dance works with personal characteristics [21].
Students are guided to explore the possibility of combining classical Chinese
dance with dance elements from other countries and regions to develop their
cross-cultural choreographic ability. Encourage students to participate in
international dance creation projects and collaborate with international dance
artists to create dance works with international perspectives [22].
This cultivation mode of curriculum module + practical ability adds the element of
cross-cultural exchange to the original foundation, provides students with a wider
range of dance education opportunities, and cultivates their ability to perform, teach
and create dance in the context of globalization. Through participation in international
exchange activities and cross-cultural cooperation programs, students can better
understand and disseminate Chinese classical dance culture, and at the same time
learn from and absorb the outstanding dance elements of other countries and regions,
thus laying a solid foundation for their future cross-cultural teaching and performing
careers.
Figure 7. Three Levels of Cultivating the Ability of Chinese Classical Dance
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5. DISCUSSION OF EMPIRICAL EVIDENCE ON THE
RESULTS OF TEACHING CLASSICAL CHINESE
DANCE
5.1. ANALYSIS OF CHOREOGRAPHIC AUTHENTICITY AND
COHERENCE
In order to objectively assess the authenticity and coherence performance of the
system proposed in this paper on classical Chinese dance choreography, a user
manual scoring method was adopted for the empirical study. Thirty-five postgraduate
students were invited as experimental participants, 18 of whom had a background in
dance, musical instruments or voice. This combination of participants ensured the
professionalism of the scoring and also took into account the aesthetic viewpoints of
the general audience. During the experiment, emphasis was placed on ensuring that
the participants had sufficient musicality and aesthetic knowledge of music and dance
to ensure the reliability and validity of their ratings. Participants were asked to watch
two videos of classical Chinese dances, one was a classical Chinese dance
choreographed through traditional teaching methods, and the other was a classical
Chinese dance generated through the methodology of this paper. After viewing,
participants were asked to rate the authenticity and coherence of the two dances on a
five-point scale based on their subjective judgment. The scale was 1-5, where 1
indicated very poor and 5 indicated very good. This is designed to allow participants to
express their evaluation clearly. The result scores for the authenticity and coherence
of the choreography of classical Chinese dance are shown in Figure 8, and the
authenticity scores of the dance movements generated by this paper's method are all
significantly higher than the results of the control group.
Figure 8(a) shows the authenticity score, the final score of the authenticity of the
choreography results of the control group is 1.61, and the proportion of users who
scored 1 and 2 is more than 40%, i.e., most of the users think that the results of the
choreography are very inauthentic and inauthentic, and the users who think that the
results are barely authentic and authentic only account for 6% each. The final score
for the authenticity of the results of this paper's method is 4.09, with more than 60% of
users scoring 4 and considering the results to be authentic, and 24% of users
considering the results to be very authentic. Figure 8(b) shows the coherence score,
the coherence of the results of the control group choreography final score of 1.76, the
highest score is only 3, the users who scored 1 and 2 almost accounted for 50% each,
i.e., the users who think the results are very incoherent and incoherent almost
accounted for half each. The final score for the coherence of the results of this paper's
method was 4.1, with a minimum score of 3. More than 70% of users scored 4 and
considered the results coherent, and almost 20% scored 5 and considered the results
very coherent.
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Figure 8. The choreography results of Chinese classical dance
5.2. MULTIDIMENSIONAL ASSESSMENT OF DANCE
PERFORMANCE
In order to comprehensively assess the effectiveness of the dance auto-generation
method in teaching classical Chinese dance, an empirical study was designed for
dance performance. Two groups of experimental subjects with different backgrounds5
were selected for this study, aiming to compare the differences between traditional
teaching methods and supplementary teaching methods incorporating dance auto-
generation in developing students' dance performance abilities. Two groups of
experimental subjects were selected, one was students with a basic knowledge of
classical Chinese dance, experimental group A, and the other was students without a
basic knowledge of dance but with an interest in Chinese culture, experimental group
B. A four-week cross-cultural classical Chinese dance teaching program was
conducted for the two groups of students, in which experimental group A adopted the
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traditional teaching method, and experimental group B used the dance auto-
generation system as the supplemental teaching method.
At the end of the teaching period, students in both groups were assessed on their
performances, and the results of the multidimensional classical Chinese dance
performance assessment are shown in Figure 9. In all three dance actions, the scores
of experimental group B were higher than those of experimental group A.
Experimental group A was good in the accuracy of dance actions, and scored 8.5
points in dance action 1. It scored relatively low on rhythm, expressiveness, creativity,
and ability to convey emotion. Experimental group B scored higher on all assessment
dimensions than experimental group A. It performed well in dance action 3 with a
score of 9.6 for movement accuracy. There were also significant improvements in
rhythm, expressiveness, innovativeness, and the ability to convey emotion, especially
in innovativeness and the ability to convey emotion, which received high scores of 8.9
and 9.3, respectively. From the data, experimental group B combined with the dance
automatic generation system teaching showed a trend of superiority over the
traditional teaching method of experimental group A in all aspects of dance
performance. This suggests that the use of the Dance Automated Generation System
in teaching may help to improve students' dance performance abilities, especially in
terms of creativity and ability to convey emotion. These enhancements may be
attributed to the features of instant feedback, personalized instruction, and creative
inspiration provided by the system.
Figure 9. Evaluation Results of Multidimensional Chinese Classical Dance Performance
6. CONCLUSION
In order to promote the inheritance and promotion of Chinese classical dance, this
paper successfully constructs a deep learning-based Chinese classical dance
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generation model, which realizes a better fit between dance movements and music by
combining dance gestures and audio features. The results of the traditional teaching
method and the teaching method combined with the automatic dance generation
system on the assessment of students' performances were compared. The final score
of the authenticity of the choreography results of the control group was 1.61, and most
users considered the choreography results to be very inauthentic and unrealistic. The
final score for the veracity of this paper's method was 4.09, with more than 60% of
users considering the results to be veritable and 24% considering the results to be
very veritable. The final score for the coherence of the choreography results for the
control group was 1.76, and most of the users considered the results to be very
disjointed and incoherent. The final score for the coherence of this paper's method
was 4.1, with more than 70% of users considering the results to be coherent and
nearly 20% considering the results to be very coherent. Experimental Group B, taught
in conjunction with the Dance Automation Generation System, showed a tendency to
outperform the traditional teaching methods of Experimental Group A in all aspects of
dance performance. The cultural vision of dance education in the study of teaching
and performing classical Chinese dance in a cross-cultural context has both deep
cultural connotations and is able to promote cultural inheritance and innovation, as
well as the coexistence and development of global cultural diversity.
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