https://ijmri.de/index.php/jmsi
volume 4, issue 4, 2025
991
SMELL TELEPORTATION: A NEW ERA OF TOUCH-ENABLED MOBILE
COMMUNICATION
Khaydaraliyeva Khilola Farhod kizi
Tashkent University of Information Technologies
named after Muhammad al-Khwarazmiy
Assistent
Alikulova Naima Shavkat kizi
abdullayevanaima083@gmail.com
Tashkent University of Information Technologies
named after Muhammad al-Khwarazmiy
3rd year student of the Faculty of radio-mobile Technologies
Abstract:
The article discusses the current achievements and prospects of smell teleportation
technologies in the context of the development of touch-based mobile communication. Special
attention is paid to the physiological aspects of smell perception, technical solutions for digital
fragrance transmission, and integration of these technologies with fifth-and sixth-generation
mobile networks (5G/6G). The analysis of existing methods of synthesis and modulation of smell
signals is carried out, as well as the challenges and prospects of introducing smell teleportation in
everyday communication, education, medicine and entertainment industries are discussed.
Keywords:
smell teleportation, sensory mobile communication, digital aroma, 5G, 6G, smell
transmission, olfactory physiology.
Introduction
Modern mobile communication is developing not only in the direction of
increasing the speed of data transmission, but also in expanding the range of transmitted
information, including sensory sensations. One of the most promising areas is smell teleportation
— a digital transmission of aromatic signals that provides emotional and sensory enrichment of
communication. Smell perception plays an important role in human cognitive and emotional
processes, which makes this technology particularly relevant for various fields-from distance
learning and medicine to entertainment and e-commerce.
Despite significant progress in the field of digital transmission of visual and tactile data,
technologies for teleporting odors remain at the stage of active research. The main technical
challenges are related to the precise emulation of chemical and physiological processes of smell,
the development of miniaturized and energy-efficient devices for generating aromas, as well as
the creation of efficient data transmission protocols with low latency in next-generation mobile
networks.
The aim of this work is to systematically review modern technologies for teleporting odors,
analyze existing methods for transmitting and reproducing odors, and evaluate the prospects for
https://ijmri.de/index.php/jmsi
volume 4, issue 4, 2025
992
their integration with 5G and 6G mobile networks to create new forms of touch-based mobile
communication.
The human olfactory system is a highly specialized biological apparatus that provides perception
and recognition of a wide range of aromatic molecules. The main organ of smell is the nasal
cavity, where olfactory receptors are located-specialized neurons that can bind to volatile
chemicals.
When odour molecules enter the nasal cavity, they interact with olfactory receptors, which
initiates a cascade of biochemical reactions that convert a chemical signal into an electrical nerve
impulse. These impulses are transmitted through the olfactory nerve to the olfactory bulb of the
brain, where primary information processing takes place. Then the signals are sent to the higher
parts of the central nervous system, which leads to awareness and recognition of the smell.
The uniqueness of the human sense of smell lies in its sensitivity and ability to distinguish more
than 10,000 different odors. Olfactory receptors are selective for various molecules, which
provides a complex perception of aromatic compositions and their emotional impact.
Figure.1. Integration of biological and digital components in smell teleportation technologies
The study of olfactory physiology is key to the development of effective technologies for digital
transmission of odors, as it allows you to determine the signal parameters that need to be
reproduced for reliable emulation of the smell experience.
Digital teleportation of odors requires accurate and controlled reproduction of aromatic
substances. Modern devices for generating odors are based on the principles of
microencapsulation of aromatic compounds, where activated chemical components are released
as volatile molecules.
Another promising area is the use of microfluidics and chemical synthesis of aromas in real time.
Such systems use specialized cartridges with basic aromatic substances, mixing them in the right
proportions to form unique smell compositions. This allows you to provide a wide range of
reproducible flavors with minimal resources.
In addition, technologies for non-contact exposure to olfactory receptors using electromagnetic
waves, in particular in the terahertz range, which can stimulate nerve endings without releasing
chemicals, are being investigated, which opens up prospects for creating compact and hygienic
devices.
The transmission of odors in digital format requires efficient encoding of chemical information,
taking into account the multidimensional nature and complexity of aromatic signatures. The
main task is to reduce the unique properties of odors to a set of digital parameters, such as
intensity, duration, combination of basic aromas and time characteristics.
Coding methods include spectral analysis of aromatic substances, digital modeling, and the use
https://ijmri.de/index.php/jmsi
volume 4, issue 4, 2025
993
of machine learning algorithms to recognize and recreate odor profiles. This allows you to
compress the amount of data without losing the quality of perception.
The transmission of such data in mobile networks requires adaptation of protocols to take into
account the characteristics of sensory information. An important aspect is minimizing latency
and ensuring reliable transmission, which is achieved by using 5G and 6G capabilities, including
URLLC (Ultra-Reliable Low Latency Communications) and Network Slicing.
Fifth (5G) and sixth (6G) generation networks provide the necessary infrastructure for
implementing smell teleportation due to the following characteristics:
High throughput required for transmitting large amounts of sensor data.
Minimal delay that allows you to synchronize the transmission of odors with audio and
video content.
Reliable and secure transmission, ensuring stable and accurate reproduction of sensor signals.
The ability to virtualize and dynamically allocate resources through Network Slicing
technologies to prioritize touch data.
Sensor devices are integrated with mobile networks through specialized APIs and protocols that
ensure compatibility and scalability of smell teleportation systems.
Smell teleportation can significantly expand the interactivity of educational platforms, especially
in the fields of biology, chemistry, cooking, and medicine. The use of smell signals allows you to
create deeper sensory impressions, improving the assimilation of material and student
engagement.
In medical practice, digital smell transmission can be used for remote aromatherapy,
psychological rehabilitation, and patient monitoring. The ability to elicit certain emotional and
physiological responses through odors opens up new possibilities for therapy and diagnosis.
Integrating scents into multimedia content and virtual environments enhances the immersive
experience, making the user experience more realistic and emotionally charged. This is relevant
for the film industry, computer games, as well as theme parks and museums.
In e-commerce, digital smell teleportation allows consumers to" feel " the aroma of products (for
example, perfumes, food) remotely, which helps to increase confidence and increase sales.
The technology of smell teleportation within the framework of sensor mobile communication is
an advanced direction at the intersection of neurotechnology, telecommunications and materials
science. Modern developments in the field of electronic noses (e-nose) and synthetic olfactory
systems allow digitizing and transmitting odors, opening the way to the formation of a full-
fledged multi-channel interaction between users.
Research conducted by institutions such as Keio University (Japan), MIT Media Lab (USA) and
KAIST (South Korea) is already demonstrating prototypes of devices that can transmit odors at
the command of software interfaces. For example, the startup Aromajoin develops dynamic
aroma modules for the film industry and advertising, and the company FeelReal Inc. creates
virtual reality headsets with the ability to transmit odors in games and movies.
It is scientifically proven that odors play a key role in the formation of emotional memory and
cognitive perception (Herz, 2004), which means that their transmission enhances the effect of
presence and can become the foundation of a new generation of mobile interfaces. The prospects
for using these technologies cover not only entertainment, but also e-commerce, healthcare,
education, and even neuropsychological rehabilitation.
However, the implementation of full-fledged smell teleportation requires solving a number of
scientific problems: standardization of aromas in digital form (aroma coding), safe stimulation of
olfactory receptors, reduction of energy costs of smell generators, and protection of users from
https://ijmri.de/index.php/jmsi
volume 4, issue 4, 2025
994
sensory overload.
Thus, smell teleportation as a component of sensory mobile communication can become part of
the Sensory Internet of Things (SIoT) concept, expanding the boundaries of human perception in
the digital world. This area deserves close attention of the scientific community and can
transform both the technical and cultural paradigm of mobile communication in the XXI century.
List of literature
1. Dennler, N., Drix, D., Warner, T. P. A., et al. (2024). High-speed odour sensing using
miniaturised electronic nose.
2. Aktas, D., Ortlek, B. E., Civas, M., et al. (2023). Odor-Based Molecular Communications:
State-of-the-Art, Vision, Challenges, and Frontier Directions. Lee, H. R., Kim, K. S., & Min, H.
J. (2024). Development of a Digital Olfactory Function Test: A Preliminary Study. Life, 14(1),
75.
3. Wen, T., Mo, Z., Li, J., et al. (2020). An Odor Labeling Convolutional Encoder-Decoder for
Odor Sensing in Machine Olfaction.
4. Digital Olfaction Society. (2024). Advancing Olfactory Technology: New Graphene Sensors
Redefining Scent Detection.
5. Borak, M. (2024). Smell the future: Machine olfaction is paving the way for digitizing odors.
Biometric Update.
6. Mordor Intelligence. (2025). Digital Scent Market - Size, Share & Forecast, Trends (2025 -
2030). Mordor Intelligence
