ECOLOGICAL PROTECTION AND
ENVIRONMENTAL GOVERNANCE IN THE
ERA OF BIG DATA CORPORATE FINANCE
POLITICAL PERFORMANCE STUDIES
Xiaochuan Cao*
School of Civil Engineering, Chongqing Jiaotong University, Chongqing, 400074,
China
cxiaoch2021@163.com
Yuhu Luo
School of Civil Engineering, Chongqing Jiaotong University, Chongqing, 400074,
China
Reception: 21/03/2023 Acceptance: 06/05/2023 Publication: 28/06/2023
Suggested citation:
Cao, X. and Luo, Y. (2023). Ecological Protection and Environmental
Governance in the Era of Big Data Corporate Finance Political
Performance Studies. 3C Empresa. Investigación y pensamiento crítico,
12(2), 39-55. https://doi.org/10.17993/3cemp.2023.120252.39-55
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ABSTRACT
The theory of sustainable development based on ecological protection and
environmental governance places greater emphasis on the coordination between
ecological civilization and economic construction. In response to the contradiction
between economic development and ecological protection and environmental
governance. We combine big data processing and big data mining techniques to
conduct an in-depth study of ecological protection and environmental governance. In
addition, we focus on exploring the relationship between relevant corporate financial
performance and ecological protection and environmental governance. The results
show that our proposed ecological conservation and environmental governance
model has a maximum error of 2.37% and 1.27% in predicting ecological change and
environmental governance respectively. The improvement in ecological conservation
prediction is 63.72% and 65.93% respectively. In environmental governance, the
improvement is 11.6% and 14.47%. The corresponding corporate earnings can be
further increased by up to 37.81% and 41.36%. This shows that the adjustment of
corporate finance can effectively solve the fluctuation of earnings caused by
ecological protection and environmental management, and also promote the steady
growth of corporate earnings.
KEYWORDS
Ecological protection; environmental governance; economic construction; big data;
corporate finance
INDEX
ABSTRACT
KEYWORDS
1. INTRODUCTION
2. A FRAMEWORK FOR APPLYING BIG DATA FINANCIAL PERFORMANCE
ANALYSIS TO ECOLOGICAL PROTECTION AND ENVIRONMENTAL GOVERNANCE
ENTERPRISES
2.1. The general framework of the model
2.2. Ecological protection and environmental governance state network indicators
2.3. Accuracy of ecological conservation and environmental governance models
3. RESULTS AND DISCUSSION RELATED TO ECOLOGICAL PROTECTION AND
ENVIRONMENTAL GOVERNANCE
3.1. Impact of ecological protection and environmental governance indicators
3.2. Assessment and prediction of ecological conservation indicators
3.3. Assessment and prediction of environmental governance indicators
3.4. Corporate financial returns
4. CONCLUSION
REFERENCES
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1. INTRODUCTION
Nowadays, China's economic development has been remarkable and it has
become the second-largest economy in the world [1]. However, the rapid development
of China's economy [2, 3] has come at the expense of the environment [4], with
human activities, especially those of industrial enterprises, causing more damage to
the environment every year [5]. Therefore, it is urgent for environmental management
and ecological protection. Therefore, the task requirements should be to accelerate
green and low-carbon development, continuously improve the quality of the
environment, enhance the quality and stability of the ecosystem, and comprehensively
improve the efficiency of resource use. At present, the construction of ecological
civilization has gradually made positive progress [7, 8]. The rough and fast-growing
economy needs to be transformed into a green and low-carbon sustainable
development model [9, 10]. China is currently accelerating the process of
environmental pollution control [11], while more stringent regulation of heavily polluting
enterprises is being implemented. In the process of ecological protection and
environmental management, to enable healthy, stable, and sustainable economic
development [12], it is also necessary to take into account the environmental carrying
capacity when society conducts economic behavior. We also need to consider the
impact of environmental governance on business finances. We, therefore, need to
establish a virtuous ecosystem and take a good ecological path in economic
development, we must insist on putting the ecological environment before economic
benefits while considering the benefits to the enterprise and dealing with the
harmonious relationship between the ecology and the enterprise. We cannot let
environmental management and ecological protection lead to an increase in the risk
factor of enterprises and affect their development. What we should do now is to
change the initial concept of economic development and use ecology and economics
to combine the two concepts to explore methods and paths that can solve the
problems of environmental governance, ecological protection, and economic
development.
Due to the promotion of ecological protection and environmental management,
various research scholars have contributed their ideas. It is hoped that ways can be
found for environmental and ecological development and economic development of
enterprises. New approaches to environmental governance can help to mitigate
adverse socio-economic and ecological impacts. Broadbent, E.N [13] develops CoP-L
on tools and strategies to improve infrastructure governance that can be used as a
mechanism. Their research promotes learning and action on factors related to
governance effectiveness. In addition, they used mixed methods [14, 15] to explore
textual analysis and regional multi-iterative discussions with stakeholders. Zuo, L [16]
argue that understanding the relationships between ecosystem services and exploring
their drivers is necessary for effective ecosystem management. They quantified four
factors: soil conservation, water production, net primary productivity, and habitat
quality [17, 18]. Ecological priority conservation areas and ecological priority
restoration areas are then identified, which facilitates targeted conservation. In terms
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of corporate ecological protection, micro-enterprises with profit-seeking characteristics
have not developed sufficient motivation for environmental governance. hu, J [19]
proposed that environmental protection departments carry out environmental
regulation and their strength in enforcing regulations has an important impact on
corporate environmental governance. wang, X [20] proposed an environmental
monitoring system based on a ZigBee wireless sensor network. The system consists
of a wireless monitoring network and a remote PC to achieve real-time remote
monitoring of environmental information such as temperature and humidity, light
intensity, rainfall, etc. Lu, S [21] looked at the legal system and established a
corresponding ecological civilization system by legal norms, which has a positive
effect on promoting environmental protection. They also focus on the current situation
of China's ecological environment [22, 23], analyze its problems, and propose
corresponding solutions in light of the problems. Guan, Y [24] combine the current
requirements of China's ecological environmental protection. They introduced the
macro background of the development of social organizations for environmental
protection in China in terms of policies and regulations, material support, and
propaganda guidance, and further analyzed the existing problems. Wu, M [25]
conducted an in-depth discussion on the relationship between the economy,
resources, and environment in the Greater Bay Area of China. The relationship
between the green economy and the carrying capacity of resources and the
environment in the Greater Bay Area is analyzed. By constructing a comprehensive
economic-resource-environment index system, the entropy weighting method is used
to calculate the index weights. They argue that the coordination of the economic-
resource-environment system in China's Greater Bay Area is currently increasing and
that economic development is moving towards high resource-carrying capacity and
high environmental carrying capacity. Mazzanti, M [26] Their research questions cover
everything from economic and financial performance to innovation adoption, to
circular economy implementation and environmental protection. In addition in applying
clustering techniques [27, 28] to better design and target policy tools for circular
economy, environmental protection, and eco-innovation in areas related to ecological/
sustainability transition. Nowadays, due to the spread of information technology,
computer network computing has developed [29, 30]. The processing of various
complex problems through big data has also received increased attention. Fu-sheng
[31] drew on the international BOT model to construct urban big data based on next-
generation information technology such as artificial intelligence, cloud computing, and
the Internet of Things to help the ecological construction of smart cities. Chen, F [32]
used big data as a research context to construct a rural agroecological system
ecological based on complex systems theory The study was based on the complex
system theory to build an ecological management system for rural agricultural
ecosystems. Among the many research scholars mentioned above on ecological
protection and environmental quality, they have studied various aspects from the
perspective of laws and regulations, ecological service system relationships, and
artificial intelligence. In addition to the purely ecological influences and related
governance methods, economic orientation has a great influence on ecological
protection and environmental governance. In particular, with the rapid development of
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information technology, it is essential to analyze the relationship between ecological
conservation, environmental governance, and related corporate finance based on big
data.
The theory of sustainable development based on ecological protection and
environmental governance places greater emphasis on the coordination between
ecological civilization and economic construction. This research plays a guiding role in
the construction and development of ecological protection and governance. The
results of the research are conducive to promoting the common progress of the
environment, economy, and society. Therefore, we combine big data processing and
big data mining technology to conduct in-depth research on ecological protection and
environmental governance. In addition, we focus on exploring the relationship
between relevant corporate financial performance and ecological protection and
environmental governance. It is a win-win situation for enterprises if they can maintain
a healthy and stable growth of their revenue in the process of ecological protection
and environmental management.
2. A FRAMEWORK FOR APPLYING BIG DATA
FINANCIAL PERFORMANCE ANALYSIS TO
ECOLOGICAL PROTECTION AND ENVIRONMENTAL
GOVERNANCE ENTERPRISES
In the context of the big data era, the establishment of a big data analysis platform
for ecological protection and environmental governance enterprises enables the
collection and acquisition of financial and performance information for ecological
protection and environmental governance enterprises in real time. Through the pre-set
ecological protection and environmental governance logic language of the financial
analysts, the report output performance end is fed back and the output data is
processed to derive the important information required by the various departments
and management of the ecological protection and environmental governance
enterprise in real-time.
This paper uses a proposed method based on the output of financial and
performance information from the ecological conservation and environmental
governance state network to predict the time series generated by different
environmental systems. The results conclude that the performance of the state
network with ecological protection and environmental governance is reliable.
2.1. THE GENERAL FRAMEWORK OF THE MODEL
Ecological conservation and environmental management state networks are
artificial recurrent neural networks that remain active even in the absence of relevant
environmental data. This is shown in Figure 1.
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Figure 1. Model diagram of the ecological protection and environmental governance state
network.
The ecological protection and environmental governance state network consists of
a front-end input layer, an intermediate reserve pool, and an output layer, whose
corresponding input vectors, state connection vectors, and output vectors can be
expressed as follows.
(1)
(2)
(3)
Among them, is a dimensional input vector; is a dimensional state
continuum vector; and is a dimensional output vector. At sampling time , the
state equation update and the financial and performance information output equation
of the ecological protection and environmental governance state network are shown
below.
(4)
(5)
Where the weight ratio within the reserve pool is a dimensional matrix, the
weight ratio at the input layer is a dimensional matrix, and the from
the financial and performance information output layer and then the feedback
connection is a dimensional matrix of warrant ratios. is the noise vector and
the hyperbolic tangent is used as the activation function in this paper. In equation (5),
which is the output equation of the single output network, the weight ratio of the
output financial and performance information is a dimensional matrix. is the
financial and performance information output of the ecological protection and
environmental governance state network. is composed of the hyperbolic tangent
activation function and the weight ratio of the output financial and performance
u(n)=(u1(n), u2(n), …, uk(n))T
x(n)=(x1(n), x2(n), …, xr(n))T
y(
n
)=(
y
1(
n
),
y
2(
n
), …,
y
l(
n
))T
u(n)
x(n)
r
l
n
x
(n+ 1) = tanh
(
Winu(n+1)+Wx(n)+W
back
y(n)+v(n)
)
y(n+ 1) = Wout x(n+ 1)
W
r×r
Win
r×k
Wback
r×l
v(n)
Wout
l×r
y(n)
u(n)
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information after passing the training. The network is continuously activated even in
the absence of relevant environmental data.
The main component of the ecological conservation and environmental
management state network is the use of a large-scale stochastic sparse reserve pool
as the relevant environmental data processing medium. After processing the
environmental data input signals are mapped from a low-dimensional input space to a
high-dimensional state space. The network is eventually trained in the high-
dimensional state space using linear regression methods for partial connection weight
ratios.
2.2. ECOLOGICAL PROTECTION AND ENVIRONMENTAL
GOVERNANCE STATE NETWORK INDICATORS
This subsection first gives definitions of the relevant ecological conservation and
environmental management state network indicators, including definitions of
prediction steps, sparsity, energy loss (energy consumption), energy efficiency
(energy efficiency), and contribution.
1. The number of prediction steps is the minimum number of steps at a moment
in time. This is described as follows:
(6)
where are the values of the signal sequence at moment
and is the output value of the corresponding prediction sequence at
moment . reflects the predictive performance of the ecological conservation and
environmental management state network.
2. Sparsity is a connection probability between the neurons in the reserve pool
and the financial and political performance information output neurons. This is
described as follows.
(7)
where denotes the number of dormant synapses in the conservation and
environmental governance state network and denotes the number of all tunable
synapses in the ecological conservation and environmental governance state network.
3. Energy loss is the total energy loss of the output synapses activated in the
ecological conservation and environmental management state network. This is
calculated as follows.
y
predict
(n)y
original
(n)
yoriginal
Δ
Δ= 0.001,yoriginal(n)
n
ypredict(n)
n
α
α
=
(NS)
N
S
N
E
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(8)
where is a matrix of weights between the
connecting financial and
performance information output neurons.
(4) Energy efficiency is the energy loss per unit corresponding to the predicted
number of steps in the ecological protection and environmental management state
network. This is calculated as follows.
(9)
2.3. ACCURACY OF ECOLOGICAL CONSERVATION AND
ENVIRONMENTAL GOVERNANCE MODELS
This section discusses the comparison of the outputs derived from the ecological
conservation and environmental management state network predictions with the
experimental results. In Figure 2 the horizontal coordinates indicate the number of
prediction steps and the vertical coordinates indicate the accuracy of the predicted
values. In this paper, the number of prediction steps is set to 20, 40, 60, 80, and 100
for comparison. It can be seen that as the number of prediction steps increases, the
prediction accuracy of the network model increases. When the number of prediction
steps is 40, the model prediction accuracy can reach 95.61%. When the number of
prediction steps reaches 100, the model prediction accuracy is 97.45%, which is only
a 1.84% increase in prediction accuracy. At the same time, the network will increase
the computational cost as the number of prediction steps increases. Therefore, 40 is
chosen as the number of prediction steps for the network iteration in this paper.
E
=
N
i=1
(Wout
i)
2
Wout
i
i
C
C
=
steps
E
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Figure 2. Plot of the number of ecological protection and environmental management state
network prediction steps versus prediction accuracy.
3. RESULTS AND DISCUSSION RELATED TO
ECOLOGICAL PROTECTION AND ENVIRONMENTAL
GOVERNANCE
Currently, some large and medium-sized energy companies in the Chinese energy
industry are facing trade-off decisions and constraints between the dilemma of
ecological protection and environmental treatment and energy production. The needs
in terms of energy production, ecological protection, and environmental treatment all
need to be assessed through the indicators of an ecological and environmental
protection enterprise. However, there are enormous tests in the area of environmental
management and ecological protection, and it is, therefore, necessary to make a
targeted analysis of the financial situation of ecological protection and environmental
management companies and the corresponding performance results. The problems
faced by companies in the field of ecological protection and environmental
management are (1) a lack of awareness of ecological protection among the
population and (2) insufficient investment in the ecological economy and research and
development by the companies themselves. Research on environmental
management, pollution treatment, and sustainable development has been relatively
in-depth or at the application R&D stage in previous years and needs to be further
assessed from the application environment; (3) In recent years, with the domestic
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economy, especially in some of the faster-growing regions, the development of
research, development and application environment in ecological protection and
environmental management has been full of vitality and vigor. However, in the rapid
economic development, pollution problems in various industries have become more
and more prominent. The current market environment for ecological protection and
environmental management enterprises in the new era is undergoing the pressure of
social opinion, means of publicity, innovation in business methods, and the combined
impact of energy efficiency and environmental conditions. At the same time, the
development and innovation of various big data technologies are gradually influencing
the methods of financial analysis, analyzing and predicting the future development
from the financial situation of the business community. The purpose of this is to serve
the wider ecological and environmental management business community. In turn, it
provides further policy and economic guidance to enterprises. It also guides the future
of ecological protection and environmental management in China.
3.1. IMPACT OF ECOLOGICAL PROTECTION AND
ENVIRONMENTAL GOVERNANCE INDICATORS
For this purpose, we collected information related to the financial performance of
companies regarding ecological protection and environmental management from
2016-2020 and used an artificial recurrent neural network (ANN) to make non-linear
predictions of the categorical data. One of the data sources was collected using a city
in Guangdong Province, China as the base database. The input parameters include
forest conservation indicators, water conservation indicators, air quality indicators, and
pollutant and waste treatment indicators. For the output parameters, we used
comprehensive evaluation indicators, which were set up as ecological protection
indicators and environmental management indicators. In Table 1, we summarise the
annual average forest protection indicators, water resource protection indicators, air
quality indicators, and pollutant and waste treatment indicators for a municipality for
the five years 2016-2020. It is observed that there is a huge crisis in ecological
protection indicators as well as environmental governance in a city in Guangdong
Province during the period 2016-2017. The figures for the area covered by forests, the
total water reserves, and the overall air quality index decreased by 23.25%, 15.70%,
and 26.87% respectively. This shows that the regulation of ecological protection is in
great danger. The combination of massive illegal or unsustainable tree felling, water
wastage, soil erosion, and pollution with the emission of harmful or greenhouse gases
such as CO2
has led to a simultaneous decline in the forest environment, water
environment, and air quality. In addition, it was observed that the number of pollutant
and waste treatment plants, which should be treated as pollutant emissions, did not
increase significantly; the number of pollutant and waste treatment plants only
increased by 5.8% between 2016 and 2017, which is far from enough to address a
large number of ecological protection and environmental management issues and
gaps during the period. As a result, there were huge ecological problems during this
period. In the period 2017-2020, however, the significant development and promotion
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of ecological protection and environmental management enterprises and the related
technological advances and developments have led to a significant improvement in all
indicator parameters. The area covered by forests will increase by 5.62%, 10.88%,
and 16.43% in the period 2018-2020 compared to the figures for 2017. Total water
reserves have increased by 4.48%, 8.47%, and 12.26% year-on-year. The combined
air quality index increased by 6.12%, 14.29% as well as 18.37% year-on-year. The
number of pollutants and waste treatment plants increased by 28.125%, 55.80%, and
63.39% year-on-year.
Table 1. Annual average indicator data for a city in Guangdong Province for 2016-2020
3.2. ASSESSMENT AND PREDICTION OF ECOLOGICAL
CONSERVATION INDICATORS
In the process of ecological protection, the number of ecological protection
indicators can clearly show how effective it is for ecological protection. Therefore, we
have collected the ecological protection index between 2016 and 2020 and analyzed
the index for these years using our proposed ecological protection and environmental
governance model. As shown in Figure 3, in the actual ecological protection index, the
figures for 2016 to 2022 are 0.557,0.313,0.361,0.397 and 0.431 respectively. the
predicted figures in our proposed ecological protection and environmental governance
model are 0.562,0.317,0.359,0.394 and 0.421 respectively. the maximum fluctuation
values are below 0.01, and the maximum error is within 2.37%, which indicates that
our proposed model has good accuracy. In addition, we have used the Ecological
Conservation and Environmental Management model to predict the Ecological
Conservation Index for subsequent years. According to our predictions, in 2024 and
2025, the relevant indices reach 0.519 and 0.526, an increase of 63.72% and 65.93%
compared to 0.317 in 2017. This indicates that after 2017, China's commitment to
ecological protection has become more and more powerful. China is not pursuing
pure economic growth, they are building their economy while paying more and more
attention to the ecological protection of the country. Strengthening ecological
protection is conducive to strengthening China's green and low-carbon science and
technology innovation, and sustaining the growth of green and low-carbon industries.
This will be conducive to the formation of new green economic dynamics and
sustainable growth poles. It will significantly improve the quality and efficiency of
Year 2016 2017 2018 2019 2020
Forest cover (in million hectares) 56.14 43.09 45.51 47.78 50.17
Total water reserves (in billions of cubic metres) 37.83 31.89 33.32 34.59 35.80
Air Quality Composite Index (0-1) 0.67 0.49 0.52 0.56 0.58
Pollutants and waste treatment plants 211 224 287 349 366
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economic and social development, and provide a strong impetus for China to build a
strong socialist modern state comprehensively.
Figure 3. Assessment and prediction maps for ecological conservation indicators
3.3. ASSESSMENT AND PREDICTION OF
ENVIRONMENTAL GOVERNANCE INDICATORS
China's fight against environmental pollution is of great theoretical and practical
significance in achieving sustainable economic development, building a moderately
prosperous society, and ultimately realizing the overall harmony of human society. It is
conducive to the sustainable development of China's economy. When building an
economy, there is a need to establish a way of development that meets the
development needs of the present without compromising the ability of future
generations to meet their needs. China is a developing country and the biggest
problem it faces is developing its economy, which depends on the environment and
resources to support it. The state of environmental governance is conducive to
building a moderately prosperous society in all aspects. In the previous decades,
China's rapid economic development had caused serious environmental pollution.
Environmental pollution has become a major public hazard today. The Chinese
government's efforts to manage the environment, properly manage the relationship
between the economy and the environment, and manage the environment and protect
the environment will provide an important foundation and prerequisite for China to
build a moderately prosperous society and is a strong guarantee for China to achieve
moderately prosperous for all people at an early date. Therefore, we have conducted
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an in-depth discussion on China's environmental governance, reflecting the extent of
China's environmental governance through the environmental governance indicator
factor. In Figure 4, we present the environmental governance factors for China
between 2016 and 2020 and compare them with the results predicted by our
proposed ecological conservation and environmental governance model. We can see
that the actual environmental governance factors are 0.513,0.519,0.532,0.537 and
0.558 respectively, with environmental governance showing a steady and slow
increase. The model predicts governance factors of 0.512, 0.518, 0.529, 0.534, and
0.551 for the period 2016 to 2020, with a maximum fluctuation of 0.007 or 1.27%
compared to the actual values. This is mainly due to several factors in the
environmental management process, including relevant laws and regulations, the
enforcement efforts of law enforcement officers, and some local environmental
influences. By forecasting the environmental governance in 2024 and 2025, the
relevant factors are large 0.586 and 0.593. Compared with 2017, the steady increase
of 11.6% and 14.47% indicates that environmental governance is steadily
progressing.
Figure 4. Assessment and prediction of environmental governance indicators
3.4. CORPORATE FINANCIAL RETURNS
Corporate finance needs to help decision-makers make the right judgment on the
market based on the data provided by the finance department so that the company
can grasp the right business direction in the market, develop steadily and stay in the
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invincible position. The focus of finance in an enterprise varies with the stage of
development of the enterprise. To verify the impact of ecological protection and
environmental management on corporate earnings, we track the earnings of a
particular enterprise. As can be seen in Figure 5, between 2016 and 2020, the actual
annual earnings growth of the enterprise is at 3.58%, 3.66%, 3.98%, 4.07%, and
4.14%. In our proposed model, the corresponding economic growth is 3.6%, 3.65%,
3.95%, 4.1%, and 4.12%. In addition, we forecast economic returns for the coming
years, which are expected to grow by 5.03% and 5.16% in the years 2024 and 2025.
This indicates that there will be no impact on the company's finances when it comes
to ecological and environmental management. The corresponding increase in revenue
could be as high as 37.81% and 41.36%. This shows that the adjustment of corporate
finance can effectively solve the fluctuation of earnings caused by ecological
protection and environmental management, and can also promote the steady growth
of corporate earnings.
Figure 5. Graph of growth in corporate financial returns
4. CONCLUSION
Ecological protection and environmental management have a very significant and
positive role to play in promoting sustainable development in China. In the process of
ecological protection and environmental management, maintaining the economic
growth of the enterprise according to specific circumstances is also a necessary
environment for the development process. In business, finance permeates every
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aspect of business management, and all business management activities are
ultimately reflected in financial data. These data can expose the loopholes and
weaknesses in business management and provide early warning for the prevention of
business risks. In the article, we combine big data technology for financial analysis to
analyze and predict the future direction of development from the financial and fiscal
status of the enterprise group. This is intended to provide further policy as well as
economic guidance to the larger ecological conservation and environmental
management business group. The findings of the study are as follows.
1.
We used an artificial recurrent neural network (ANN) to make non-linear
predictions of categorical data and summarised the data for a city's average
annual forest conservation indicators, water conservation indicators, air quality
indicators, and pollutant and waste treatment indicators for the five years
2016-2020. The results show a 23.25%, 15.70%, and 26.87% reduction in the
total water reserves and air quality composite index respectively.
2.
In the assessment and prediction of ecological protection and environmental
management indicators, our proposed ecological protection and environmental
management model has a maximum error of 2.37% and 1.27% in the
prediction of ecological change and environmental management. This indicates
that our model has good accuracy. It also improves 63.72% and 65.93% in
ecological conservation prediction and 11.6% and 14.47% in environmental
governance, respectively. It shows that our ecological protection and
environmental governance are steadily progressing.
3. In carrying out ecological protection and environmental management, it is vital
to ensure that companies earnings. In our forecasts, the corresponding
corporate earnings can be further increased by 37.81% and 41.36%. This
shows that the adjustment of corporate finance can effectively solve the
fluctuation of earnings caused by ecological protection and environmental
management, and also promote the steady growth of corporate earnings.
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