Research on the Development of Business Model of Food Delivery
Platform Enabled by Technological Innovation: Taking Meituan
Waimai as an Example
Sa Zhang
a
School of Economics and Management, Beijing Jiaotong University,
Weihai Campus, Modern Road, Wendeng District, China
Keywords: Technology Empowerment, Business Model Innovation, Food Delivery Platforms, Meituan Waimai,
Network Effects.
Abstract: With the rapid development of digital technology, the food delivery platforms are undergoing significant
transformations driven by technological innovations, which promote the transformation of intermediary
models and enhance network effects and platform properties. This article examines how technology empowers
business model innovation in food delivery platforms, focusing on Meituan Waimai as a case study. Under
the vital role of artificial intelligence, big data, and automation in optimizing platform operations, business
model of Meituan Waimai has evolved evolves from a multi-dimensional value chain model to its current
"retail + technology" approach. The study employs a mixed-methods approach, combining qualitative analysis
of Meituan's strategic shifts with quantitative data on user engagement, order fulfillment, and technological
adoption. Findings reveal that Meituan's integration of smart logistics, AI-driven recommendations, and
unmanned delivery systems has strengthened its network effects, expanded service boundaries, and improved
value co-creation among stakeholders. The research contributes to understanding how digital platforms
leverage technology to sustain competitive advantage and reshape industry standards, offering insights for
practitioners and policymakers in the digital economy.
1 INTRODUCTION
In recent years, the rapid development of digital
technology has profoundly reshaped the business
model of the food delivery industry. Platform
companies represented by Meituan Waimai have
achieved a transformation from information
intermediaries to intelligent decision-making centers
through artificial intelligence, big data analysis and
automation technology. This technology-driven
transformation not only improves order-matching
efficiency and delivery speed, but more importantly,
reconstructs the value relationship between the
platform and consumers, merchants and riders.
Especially during the COVID-19 pandemic,
technological innovations such as contactless
delivery have highlighted the important value of
technology empowerment, driving food delivery
a
https://orcid.org/0009-0004-5508-2266
platforms to become an important part of urban
infrastructure (Rong and Hu,2023).
This paper uses a longitudinal case study method,
taking Meituan Waimai as the research object, and
systematically examines the impact mechanism of
technological innovation on its business model. The
study constructs a complete chain of evidence
through multi-source data collection and analysis,
focusing on the application scenarios of key
technologies such as artificial intelligence, big data,
and unmanned delivery, and their business model
creation paths. At the same time, through a horizontal
comparative analysis method, the evolution
characteristics of Meituan Waimai platform
attributes, network effects, and intermediary
functions at different development stages are
examined. This case study method can deeply analyze
the specific mechanism of technology empowerment,
reveal the inherent laws of platform business model
innovation, and provide empirical evidence for
494
Zhang, S.
Research on the Development of Business Model of Food Delivery Platform Enabled by Technological Innovation: Taking Meituan Waimai as an Example.
DOI: 10.5220/0013848100004719
Paper published under CC license (CC BY-NC-ND 4.0)
In Proceedings of the 2nd International Conference on E-commerce and Modern Logistics (ICEML 2025), pages 494-500
ISBN: 978-989-758-775-7
Proceedings Copyright © 2025 by SCITEPRESS Science and Technology Publications, Lda.
understanding the technology-business co-evolution
in the digital economy era.
This study aims to systematically explore how
technological innovation drives the transformation
and upgrading of the business model of the food
delivery platform through the case of Meituan
Waimai, and its research objectives have both
theoretical value and practical significance. At the
theoretical level, by revealing the innovative
contributions of digital technologies such as artificial
intelligence and big data to platform economic
theory, a new theoretical perspective is provided for
constructing a business model analysis framework in
the digital economy era. At the practical level, the
context-based rapid recommendation strategy
(CoFARS) system, the BETTER business model and
other technical application cases are examined, and
replicable digital transformation experiences are
extracted to provide a reference for platform
enterprises to optimize their technology strategies. At
the same time, the study pays special attention to the
technology empowerment mechanism in emerging
fields such as algorithm governance and data security.
Analyzing the transformation logic of platform
intermediary functions and the governance
innovation problems they generate, it provides a basis
for regulatory authorities to formulate platform
economic policies that adapt to technological
development. Through research in these three
dimensions, it aims to achieve the dual value of
theoretical research and practical guidance, promote
the innovative development of platform economic
theory, and provide practical guidance for digital
transformation for enterprises and policymakers.
2 PLATFORM TECHNOLOGY
INNOVATION ENABLED BY
SCIENCE AND TECHNOLOGY
2.1 CoFARS AI Algorithm Innovation
CoFARS is an intelligent recommendation system
based on artificial intelligence technology developed
by Meituan Waimai. Its core innovation lies in
solving efficiency and accuracy problems in long-
sequence recommendation scenarios through deep
learning and graph neural network technology (Feng
et al., 2024). The system uses a probabilistic encoder
to convert user context (such as time, location, and
weather) into an explainable preference distribution,
and combines prototype learning to cluster and reduce
the dimension of massive user behaviors,
significantly improving the recommendation effect of
cold start scenarios. By building a time-series graph
neural network model, CoFARS can dynamically
capture the evolution of user preferences and
innovatively adopt a two-stage reasoning
architecture, first quickly screening related
subsequences based on context, and then making
accurate predictions through the attention
mechanism.:
2.2 AI Algorithm Innovation of
BETTER Model
The Meituan BETTER model is an intelligent food
delivery business decision-making system based on
AI algorithm. Through cutting-edge technologies
such as deep learning, graph neural network and
reinforcement learning, it conducts a multi-
dimensional analysis of 600 million users on the
platform and builds a precision marketing system that
includes seven major population portraits such as
"urban foodies" and "affordable homebodies"
(MeiTuan Waimai and Bain, 2024). The system
innovatively integrates the spatiotemporal preference
separation algorithm, dynamic pricing model and
digital twin simulation technology, and can realize
the full-link intelligence of demand forecasting,
competition analysis and strategy optimization.
2.3 AI Algorithm Innovation of DPVP
Model
Dual Period-Varying Preference (DPVP) is the next-
generation intelligent recommendation model
developed by Meituan Waimai as a partner. Its core
technology is based on the fusion design of dual
interactive perception architecture and time period
dynamic decomposition network (Zhang, 2023). The
system accurately captures users' differentiated
preferences for store brands and food content through
dual-graph separation modelling (store-level graph +
food-level graph), and divides the whole day into four
periods: Morning/Noon/Night/Late Night, combined
with the time-aware gating mechanism (Time-Aware
Gating), to achieve fine-grained modelling of
dynamic changes in user preferences, which improves
the accuracy of cross-period recommendations by
18.6%. At the feature engineering level, the model
innovatively uses heterogeneous temporal graph
convolution (HT-GCN) to parallelly process the
ternary interaction relationship between users, stores,
and food, and uses personalized food aggregators
(User-Weighted Food Pooling) to weigh the attention
of multiple products in the store, effectively solving
Research on the Development of Business Model of Food Delivery Platform Enabled by Technological Innovation: Taking Meituan Waimai
as an Example
495
the recommendation problem of "different users in
the same store pay attention to different dishes". A
multi-level cache acceleration architecture is adopted
in the online service stage. The first layer achieves
millisecond-level response through pre-calculation of
time period features. The second layer filters low-
relevance nodes in real time based on dynamic graph
pruning technology. Finally, the dual-tower model
(user preference tower + product matching tower) is
used to complete the second-level sorting of hundreds
of millions of candidates sets. Online A/B testing
shows that its GMV increased by 0.7% while
reducing computing resource consumption by 23%.
2.4 Embedded Interactive
Recommender System
Embedded Interactive Recommender System (EIRS)
is a new interactive recommendation system
developed by Meituan Waimai. It realizes seamless
capture of user intentions and dynamic
recommendation optimization through embedded
interactive design (Ji et al., 2023). The system
innovatively adopts the interactive paradigm of
"homepage as questionnaire", uses user click
behavior as real-time feedback signal, and generates
accurate recommendations through three-level
processing modules (retrieval-sorting-acceptance
evaluation). The core technologies include: multi-
channel retrieval architecture (four channels of
popularity/user portrait/DSSM/commodity
collaboration), combined with fine-grained category
filtering (200+ fine categories and 70+ coarse-grained
clusters) to improve the quality of candidate sets;
dual-objective sorting model (click-through
conversion rate CTR&CXR joint prediction)
integrates user real-time behavior characteristics and
contextual information; dynamic embedding
mechanism inserts the recommendation results into
the next position of the user's positive feedback POI,
and ensures the quality of recommendation through α
threshold control. Online A/B testing shows that the
click-through conversion rate of embedded
recommendation results is 132% higher than that of
the original results, and the homepage GMV
increases by 0.43%, while maintaining zero
interference with user experience. The system adopts
a client-server collaborative architecture. The client
captures deep interaction signals such as dwell time
and add-to-cart through the "in-store behavior
perception module", and the server uses the MMoE
multi-task model to achieve feature crossover and
finally enhances interactive perception through
dynamically inserted visual feedback. At present,
EIRS has been fully deployed and has become one of
the core components of Meituan Takeaway's
homepage recommendation system.
2.5 Intelligent Unmanned Delivery
System
Meituan has launched an efficient low-altitude
logistics solution through self-developed artificial
intelligence, big data and drone technology, which
has significantly improved delivery efficiency. By the
end of 2024, Meituan drones have opened 53 routes,
with a total of more than 450,000 deliveries, and
achieved fast delivery in scenic spots, ports and other
scenes. For example, the hot pear soup at the Great
Wall can be delivered in just 6 minutes and 37
seconds. At the same time, Meituan's automatic
delivery vehicle technology has also made
breakthroughs, completing nearly 5 million deliveries
in total, covering more than 100 communities across
the country, and the proportion of autonomous
driving mileage has reached 99%, which can
efficiently deliver daily necessities such as fresh food
and takeaways. These innovative technologies not
only optimize the logistics experience but also create
new consumption scenarios for merchants. For
example, during the May Day holiday in 2024, the
number of orders from merchants around drone routes
increased by more than 300% year-on-year (n.d.).
3 TECHNOLOGY
EMPOWERMENT
STRENGTHENS THE
NETWORK EFFECT OF
MEITUAN TAKEAWAY
In the multilateral market of the takeaway platform, a
close interactive relationship has been formed
between customers, merchants and riders. More
merchants attract more customers because consumers
have more choices; more customers attract more
merchants because merchants hope to reach a larger
user base; the increase in order volume promotes the
growth of rider supply, and the increase in riders
makes delivery faster, thereby further improving
customer experience; faster delivery services enhance
customer stickiness, attract more users to join the
platform, and then promote the further growth of the
supply of merchants and riders, forming a positive
cycle and continuously promoting the prosperity and
development of the platform ecology.
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The role of technology empowerment is to
improve matching efficiency, optimize fulfillment
capabilities, and enhance user experience, thereby
strengthening the network effect. For the client,
technology empowerment provides “AI+big data” to
improve matching efficiency. By using context-based
fast recommendation strategy (CoFARS) to combine
time, location, weather and other information, the
BETTER takeaway business system recommends the
most suitable meals for users, gives personalized
discounts, and increases the order rate. From 2023 to
2024, Meituan Takeaway's click-through rate (CTR)
increased by 4.6%, making it easier for users to find
their favorite meals, and the transaction volume
(GMV) increased by 4.2%, stimulating consumption
and increasing the order volume (MeiTuan Waimai
and Bain, 2024). Ultimately, it improves the user
experience, attracts more customers to use the
platform, thereby attracting more merchants, and
increases the frequency of consumption to increase
the order volume, increasing in delivery demand. For
merchants, technology enables intelligent traffic
distribution and improves merchant profitability.
Meituan uses data from hundreds of millions of users
and clusters them into seven categories of takeout
delivery people based on the BETTER takeout
business system: urban foodies, busy parents, small-
town blue-collar workers, affordable homebodies,
mature elites, commuting white-collar workers, and
students who want to satisfy their cravings. Through
analysis of the status quo and trends of the seven
groups across the entire region, brands can gain
insight into the long-term competitiveness of their
own categories and brands from a higher dimension.
Intelligent SKU recommendations are made by
analyzing multi-dimensional data such as user
behavior, order data, dish sales, seasonal changes,
etc., using machine learning algorithms to
recommend the best menu combinations and dish
rankings to merchants, helping merchants improve
operational efficiency, and ultimately using
Meituan’s intelligent marketing tools to increase
merchant sales and attract more merchants to join,
thereby increasing platform supply, and operating
efficiently to reduce costs, making merchants more
willing to cooperate with the platform for the long
term. On the delivery side, Meituan uses big data and
artificial intelligence to optimize the delivery routes
of riders in real time, reduce delivery time, improve
delivery efficiency, and conduct intelligent
dispatching. Orders are automatically assigned
according to the location, delivery capacity, and order
requirements of the riders. Low-altitude logistics and
automatic delivery vehicles improve delivery
efficiency, reduce costs, and create a new consumer
experience for users. Ultimately, the income of riders
increases, which attracts more riders to join, thereby
enhancing delivery capabilities. As delivery time
increases, customer satisfaction will also increase,
increasing the order rate, thereby affecting merchant
sales.
4 TECHNOLOGY
EMPOWERMENT ENHANCES
THE PLATFORM ATTRIBUTES
OF MEITUAN TAKEAWAY
4.1 Multilateral Effect
As a platform-based enterprise, Meituan Takeaway
has a significant multilateral market effect,
connecting consumers (C-end), merchants (B-end)
and riders (D-end) to form an efficient supply and
demand match. Consumers place orders on the
platform, merchants rely on the platform to obtain
traffic, and riders’ complete delivery through
intelligent scheduling. The growth of all parties
promotes each other and forms a positive cycle (Yao
et al., 2022). As the number of users increases, more
merchants will join in, providing a rich selection of
food, thereby attracting more users. The growth in
orders will in turn lead to an expansion of the rider
scale, improve delivery efficiency, and enhance user
experience. This network effect enables Meituan
Takeaway to have a strong market expansion
capability. At the same time, through AI
recommendation, LBS positioning, intelligent
scheduling and other technologies, it further
optimizes supply and demand matching and enhances
platform stickiness.
4.2 Value Co-Creation
Meituan Takeaway promotes the coordinated
development of the platform, merchants, users, and
riders through the value co-creation mechanism to
achieve a win-win situation for all parties. Consumers
are not only recipients of services, but also influence
the ranking of merchants through evaluation, order
sharing, and feedback to optimize platform
experience; merchants can use data analysis and
precision marketing tools to adjust pricing and
optimize dishes to increase sales; riders improve
service quality through the rating system and delivery
data analysis. At the same time, Meituan provides
intelligent scheduling and insurance protection to
Research on the Development of Business Model of Food Delivery Platform Enabled by Technological Innovation: Taking Meituan Waimai
as an Example
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optimize the delivery experience. The platform not
only provides a trading venue, but also optimizes
resource allocation through AI algorithms, automated
operations, intelligent delivery and other
technological means, enhances user experience,
improves merchant operating efficiency, and reduces
fulfilment costs, ultimately promoting the healthy
development of the entire ecosystem (Xiong, 2024).
5 TRANSFORMATION OF
INTERMEDIARY MODEL
UNDER TECHNOLOGY
EMPOWERMENT
5.1 Transformation Path of
Intermediary Model Driven by AI
Algorithm
From information intermediary to intelligent
decision-making center. The operation mode of food
delivery platform driven by AI algorithm realizes the
paradigm reconstruction of supply and demand
matching mode, and its core lies in the dual
breakthrough of data real-time and decision
prediction (n.d.; Choi et al., 2021). Traditional menu
adopts static update mode, which requires manual
adjustment based on past experience. The data
feedback has a strong lag. Generally, it takes 2-3
months of sales data to judge the performance of
dishes. In addition, the adjustment cost of this mode
is high, and each update requires manual replacement
of posters. After the optimization of BETTER
business model, Meituan overcame the problem of
site selection prediction that was difficult to achieve
due to the high degree of dispersion of the industry
and the lack of database. Using AI site selection tools,
it conducted revenue prediction ability tests based on
multiple merchants, and the accuracy of predicting
food delivery sales has exceeded 90% (Zhang,2023).
Against the background of the continuous
strengthening of platform control, the supply and
demand matching model are undergoing paradigm
reconstruction. As an important member of the
Internet advertising platform, Meituan has achieved
dynamic control of advertisers' conversion costs and
precise fulfillment by introducing the optimized
billing method Optimized Cost Per Mille (OCPM),
relying on the Vickrey-Clarke-Groves (VCG)
bidding mechanism and automatic bidding system.
Based on a real industrial-grade e-commerce platform
dataset, the ROI-sensitive Distributional
Reinforcement Learning (RSDRL) framework
proposed in this paper has significantly improved the
delivery effect in the test of 1,000 OCPM advertisers
and over 10 million auction records: in the offline
evaluation, after applying RSDRL, the number of
conversions of OCPM advertisers increased by about
100%, the payment amount increased by more than
12%, and the return on investment (ROI) was stably
controlled between 0.87 and 0.93, which is lower than
the set cost cap (1.0). At the same time, in the AA/BB
test in the real online environment, the advertiser
group (Group B) using RSDRL achieved a 5%
increase in conversion volume and a simultaneous
increase in platform revenue compared with the
traditional strategy group (Group A) (Tang et al.,
2020). This series of data verifies that in the context
of the dynamic evolution of supply and demand,
enhancing decision-making autonomy and real-time
performance through reinforcement learning has
become an important path for platforms to reshape the
advertising paradigm. This change indicates that food
delivery platforms have evolved from trading venues
to demand centers (Zhang,2023).
The power asymmetry that exists when AI
algorithms are applied in intermediary platforms is
mainly reflected in the platform's unilateral
formulation of rules, monopoly of data control,
weakening of merchants' economic bargaining
power, and lack of effective complaint channels
(n.d.). The platform forces merchants to participate in
promotional activities and adjusts the commission
ratio at will. At the same time, it controls traffic
distribution and search rankings through opaque
algorithms, forcing merchants to purchase paid
promotion services. In addition, the platform has core
user data but does not open it to merchants, making it
difficult to accurately optimize business strategies,
and the vague violation of judgment standards and
mechanized customer service system make it difficult
for merchants to protect their rights. This power
imbalance has led to the continuous compression of
merchant profits (some net profit margins are less
than 5%), and even a vicious cycle of "no orders if
you don't participate in activities, and losses if you
participate in activities" (Zhu et al., 2024). The
reconstruction of the distribution network. The
reconstruction of the distribution network driven by
AI algorithms realizes a paradigm shift in the
allocation of transportation resources. According to
the "White Paper on Trends in China's Instant
Delivery Industry", AI technology realizes full-link
optimization to grasp demand fluctuations in
advance, reasonably dispatch, avoid insufficient peak
transportation capacity and waste of low-peak
transportation capacity, improve order acceptance
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and delivery efficiency, and dynamically price to
encourage riders to accept orders in peak or remote
areas, ensure service coverage, improve overall
quality, monitor delivery conditions in real time, and
respond to exceptions quickly. The abnormal
processing time is reduced, and the delivery on-time
rate is improved (Frost and Sullivan, 2024).
5.2 Efficiency Upgrade of the
Intermediary Model Driven by the
Intelligent Distribution System
Specifically, drones can realize high-speed delivery
in the air, automatic vehicles are responsible for
short-distance transportation on the ground, and
riders are responsible for the precise delivery of the
last mile. The three work together efficiently and
greatly improve the overall delivery efficiency
(Zhang,2024). The National Development and
Reform Commission pointed out in the "China
Modern Logistics Development Report 2024" that
platform companies that adopt this three-level
intelligent distribution system have increased their
overall delivery efficiency by an average of 35%.
Especially during the peak hours of lunch when
orders are dense, thanks to intelligent scheduling and
division of labor and cooperation, the service radius
can be expanded from the traditional 3 kilometers to
more than 5 kilometers, significantly improving the
platform coverage and user experience, and helping
the logistics industry to move towards a higher
quality and intelligent development stage (China
Industry Research Network, 2023).
6 CONCLUSION
This study systematically analyzes the enabling
mechanism of technological innovation on Meituan's
food delivery business model through a mixed
research method. The study found that AI-driven
intelligent recommendation systems such as CoFARS
and BETTER and unmanned delivery technologies
have promoted Meituan's transformation from a
"multi-dimensional value chain" to a "retail +
technology" ecosystem, achieving significant results
such as improved supply and demand matching
efficiency, enhanced network effects, and multilateral
value co-creation.
At the theoretical level, this study constructed an
innovative framework of "technology-network
effect-business model", revealing how algorithmic
technology reconstructs the platform's intermediary
function, upgrading it from an information matcher to
an intelligent decision-making center. At the practical
level, technical applications such as intelligent
scheduling systems and drone delivery networks
provide the industry with a replicable example of
digital transformation. At the same time, the study
also found that there are significant differences in
algorithmic credit scores between chain merchants
and small and micro merchants, highlighting the
importance of technology inclusiveness.
Future research can further explore the fairness
mechanism of algorithmic governance, such as
establishing a dynamic regulatory framework to
balance the rights and interests of platforms,
merchants and riders; at the same time, attention
should be paid to the differences in technology
penetration in low-tier cities, and inclusive digital
solutions should be explored to provide empirical
evidence for policy making.
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