Modern Computer Laboratory Technologies and Their Role in Medicine

Abstract

Modern computer laboratory technologies are increasingly becoming an integral part of the medical field. With the rapid development of information technologies, many stages of laboratory processes are being automated, which significantly contributes to the efficiency of diagnostics and treatment. This topic highlights the role of modern computerized laboratory equipment, automated analyzers, artificial intelligence, and data processing systems in medical research and laboratory work. Moreover, it discusses the computer software used in laboratories, databases, real-time access to analysis results, their storage, processing, and decision-making technologies that assist medical professionals. These technologies not only ensure accuracy and speed but also reduce human- related errors. Through this analysis, the practical significance of laboratory technologies in diagnostics, epidemiology, pharmacology, and other medical areas is revealed. The aim is to provide a broad understanding of the theoretical and practical foundations of modern laboratory technologies, their advantages, fields of application, and future development directions.

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Atakhanov Sanjarbek Anvarovich, & Asalkhon Alijonova daughter of Sokhibjon. (2025). Modern Computer Laboratory Technologies and Their Role in Medicine. International Journal Of Management And Economics Fundamental, 5(04), 59–63. https://doi.org/10.37547/ijmef/Volume05Issue04-09
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Abstract

Modern computer laboratory technologies are increasingly becoming an integral part of the medical field. With the rapid development of information technologies, many stages of laboratory processes are being automated, which significantly contributes to the efficiency of diagnostics and treatment. This topic highlights the role of modern computerized laboratory equipment, automated analyzers, artificial intelligence, and data processing systems in medical research and laboratory work. Moreover, it discusses the computer software used in laboratories, databases, real-time access to analysis results, their storage, processing, and decision-making technologies that assist medical professionals. These technologies not only ensure accuracy and speed but also reduce human- related errors. Through this analysis, the practical significance of laboratory technologies in diagnostics, epidemiology, pharmacology, and other medical areas is revealed. The aim is to provide a broad understanding of the theoretical and practical foundations of modern laboratory technologies, their advantages, fields of application, and future development directions.


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International Journal of Management and Economics Fundamental

59

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VOLUME

Vol.05 Issue 04 2025

PAGE NO.

59-63

DOI

10.37547/ijmef/Volume05Issue04-09



Modern Computer Laboratory Technologies and Their
Role in Medicine

Atakhanov Sanjarbek Anvarovich

Fergana Medical Institute of Public Health Department of “Biomedical Engineering, Biophysics and Information Technologies”,
Uzbekistan

Asalkhon Alijonova daughter of Sokhibjon

Fergana Medical Institute of Public Health, Uzbekistan

Received:

26 February 2025;

Accepted:

21 March 2025;

Published:

25 April 2025

Abstract:

Modern computer laboratory technologies are increasingly becoming an integral part of the medical

field. With the rapid development of information technologies, many stages of laboratory processes are being
automated, which significantly contributes to the efficiency of diagnostics and treatment. This topic highlights the
role of modern computerized laboratory equipment, automated analyzers, artificial intelligence, and data
processing systems in medical research and laboratory work. Moreover, it discusses the computer software used
in laboratories, databases, real-time access to analysis results, their storage, processing, and decision-making
technologies that assist medical professionals. These technologies not only ensure accuracy and speed but also
reduce human- related errors. Through this analysis, the practical significance of laboratory technologies in
diagnostics, epidemiology, pharmacology, and other medical areas is revealed. The aim is to provide a broad
understanding of the theoretical and practical foundations of modern laboratory technologies, their advantages,
fields of application, and future development directions.

Keywords:

Computer laboratory technologies, medical information technologies, automated diagnostics, artificial

intelligence in medicine, laboratory analyzers, biochemical analysis, digital medicine, database, medical sofrware,
laboratory automation, analysis result management, diagnostic systems, clinical laboratory technologies, medical
information systems.

Introduction:

Information technologies are present

everywhere around the world. In particular, they play a
significant role in the field of medicine. Modern
information technologies have a positive impact on
developing new methods for organizing medical care
for the population. Many countries have long been
actively using new technologies in the healthcare
sector. Teleconsultations for patients and staff, sharing
patient

information

between

different

institutions,remote

monitoring

of

physiological

indicators, and real-time observation of information
technologies

in

medicine.

This

takes

the

informatization of healthcare to a new stage of
development and encompasses all areas of its

operations.

Today, the use of various forms of information
exchange in medicine is one of the most pressing
issues. Regulating these processes allows for
automated

information

exchange

within

the

healthcare system, increasing the efficiency of medical
personnel and improving the quality of patient services.
To manage information flows, information systems
have been developed within the healthcare sector. An
information system is a structured combination of
documents and information technologies, including
computing equipment and communication tools used
to process information.

The purpose of medical information systems is to


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support various tasks in providing medical care to the
population, managing medical institutions, and
ensuring information exchange in the overall
information management of the healthcare system.

METHOD

Today, the use of information technologies in medicine
plays an important role in solving medical problems,
conducting treatment and scientific-practical activities
at a high-quality level, and in training professionals who
can properly utililize information technologies in their
work.

Modern Technologies and new discoveries in medicine
contribute to the delivery of high-quality technical
services to the population. Innovations in the medical
field are of great significance In medicine, modern
technologies encompass not only the latest medical
devices but also integrated networks and software
systems that automate all workflows. The most
advanced technologies enable the performance of
complex operations, facilitate medical surveys,
accelerate the processing of laboratory analyses, allow
for remote patient consultations, and expand
diagnostic possibilities.With the help of specialized
software, medical centers can efficiently manage
interactions with patients, track their health status, and
ensure effective communication. These systems help
control.

Modern technologies and new discoveries in medicine
lead to the provision of high-quality technical services
to the population. Innovatsions in the field of medicine
are of great importance. Modern technologies in
medicine include not only the latest medical
equipment, but also networks and software that
automate all workflows. The most advanced
technologies enable the performance of complex
operations and surveys, accelerate the processing of
laboratory tests, provide opportunities for remote
consultatins, and allow more extensive patient
monitoring.

With the help of special programs, medical centers can
efficiently interact with clients, monitor their health
status, and ensure seamless communication. These
systems

help

manage

departments,

monitor

pharmaceutical warehouses, carry out accounting
operations with patients and staff, and handle other
types of medical practices.In recent , computer
technologies have been widely used in almost all areas
of life, including medicine. Especially in the field of
laboratories, these technologies play an important role
in optimizing diagnostic and treatment processes.
Today

almost

all

modern

laboratories

are

computerized, operating based on automated systems,
artificial intelligence, and information technologies are

bringing revolutionary changes to work of doctors and
provide patients with fast and high-quality medical
care.

Types of Computer Laborory Equipment:

a) Automated Laboratory Equipment:

. Biochemical analyzers

. Hematology analyzers (for blood tests)

. Immunoassay analyzers (ELISA)

. Coagulometers (for studying blood coagulation)

. PCR devices (Polymerase Chain Reaction)

These devices are controlled by computers, and the
analysis results are recorded automatically.

b) Laboratory Information Systems (LIST)

. Electronic registration of all laboratory analyses

. Storage, comparison, and analysis of test results

. Quick access to patient medical history and decision-
making based on test outcomes

c) Artificial Intelligence and Machine Learning:

. Analysis of pathological images

. DNA and RNA data analysis

. Diagnosis based on big data

d) Bionformatics Software:

. Genome analysis

. Detection of hereditary diseases

Personalized Medicine -Treatment Planning Based on
Individual Approach Role in Medicine:

a) Improve Diagnostic Accuracy:

. Reduces human error in diagnosis

. Performs complex analyses in a short amount of time

b) Saves Time and Resources:

. Clinical Decision Support Systems (CDSS) help guide
clinical decisions

d) Enhances Patient Safety:

. Improves accuracy and reliability of results

. Reduces errors in treatment

What is Tomography ?

Tomography is a medical diagnostic technique that
allows for layer-by

layer imaging of the internal

structure of the human div. Using this method,
internal organs, bones, tissues, and blood vessels can
be clearly visualized. The term is derived from

Greek:”tomos” meaning “layer” and “graphien”
meaning ‘to draw or image . “It involves imaging by

using any type of penetrating wave. Tomography is
used not only in medicine but also in fields such as
radiology, archaeology, oceanography, plasma physics,


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materials science, astrophysics, quantum information,
and others.

The device used in tomography is called a tomograph
and the image it produces is known as a tomogram.

Main Types Tomography :

a)

Computed tomography (CT):

. Uses X-rays to capture multiple-angle images of the
div

. Computer compiles the images into a 3D model or
cross-sectional view of internal organs

. Applications:brain,lungs, abdominal cavity, bones and
tumor detection

b)

Magnetic Resonance Imaging ( MRI)

. Uses a strong magnetic field and radio waves to
visualize internal tissues

. Does not use X-rays making it safer

. Applications:brain, spine, muscles, joints, heart, and
soft tissues

c)

Positron Emission Tomography (PET):

Displays the metabolic activity of organs using
radioactive isotopes.

Often used in combination with CT or MRI

Applications:early detection and monitoring of cancer,
neurological, and cardiovascular diseases.

d)Optical Coherence tomography (OCT):

Examines eye tissues with micron-level precision.

Applications:in

ophthalmology

(eye

diseases),

dermatology and dentistry.

How does tomography work?

CT:The patient lies inside a rotating X-ray scanner that
captures images from multiple angles. A computer
processes these images to create cross-sectional views.

MRI:In a strong magnetic field, the divs tissues
respond to radio waves. These signals are analyzed by
specialized computers.

PET: A radioactive substance is injected into the
patient. The distribution of this substance in the div
reveals the presence and activity of diseases.

Advantages of Tomography:

. Detailed internal organ visualization

. Ability to analyze layer by layer

. Early detection of tumors, swelling, bleeding and
fractures

. Allows accurate planning before surgeries

. Enables real-time monitoring of disease progression

Capabilities of Modern Tomography Devices:

. 3D and 4D tomography: Theree-dimensional (and
real-time motion) imaging of organs

.

Systems

integrated

with

artificial

intelligence:Automated diagnosis support

Portable CT/MRI machines:On-site examination
without moving the patient

. Telemedicine integration:Remote analysis of
diagnostic images

Practical Applications:

. In traumatology:detecting bone and brain injuries

. In oncology:early tumor detection and treatment
monitoring

. In neurology:identifying strokes, multiple sclerosis,
epilepsy

. In cardiology:evaluating the condition of blood
vessels and the hearth

Sound Visualization

Sound visualization refers to a set of techniques used
to display sound characteristics, typically involving a 2D
projection of a 3D discrete data set -usually a 3D scalar
field. This dataset often consists of a series of 2D slice
images acquired through medical scanning devices
such as CT, MRI, or MicroCT. These slices are usually
captured at regular intervals and contain a uniform
number of psixels, forming a structrured volumetric
grid. Each volumetric element, or voxel, is represented
by a single value sampled from the space it occupies.

To create a 3D projection from a 2D dataset, the
position of a virtual camera relative to the volume must

first be defined. Additionally, each voxel’s transparency

and color must be specified. This is typically done using
a transfer function, which maps each possible voxel
value to an a RGBA (Res, Green, Blue, Alpha) value,
allowing for intuitive rendering of the dataset.

Computed Tomography CT in Pediatrics

CT is commonly used in pediatrics to detect congenital
anomalies and various childhood diseases.

Working Principle:

. High -resolution imaging of soft tissues, bones, blood
vessels, lungs,liver, kidneys, other internal organs

. Evalution of the cardiovascular system using CT
angiography

. Detection and monitoring of cancer and its spread

. Identification of internal injuries and hemorrhages

Advantages:

. Very fast and accurate.

. Ability to obtain multiple cross-sectional images.


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. A3D scanner uses X-rays. The scanner rotates around
the div and emits X-rays from various angles. These
rays, after passing through the div, are detected by
sensors and converted into three-dimensional (3D) or
cross-sectional (2D) images using a computer.

Areas examined with CT:

. Brain:tumors, hemorrhage, stroke, brain swelling.

. Lungs:lung cancer, pneumonia, embolism.

. Heart and blood vessels:coronary arteries, aortic
aneurysm, embolism.

. Abdominal cavity:liver, kidneys, stomach, spleen,
intestinal dideases.

. Bones and joints:fractures, tumors, osteoporosis.

. Oncology:tumor size, metastases, condition of lymph
nodes.

. Provides very fast and accurate results (it is possible
to scan the entire div within 1-2 minutes).

. 3D reconstruction capability -very helpful before
surgeries or biopsies.

. Highly effective in detecting internal bleeding,
fractures, or tumors.

. Minimally invasive

allows full diagnostics without

any incisions.

Disadvantages:

. Radiation exposure:CT involves a higher dose of
radiation compared to standard X-rays.

. Requires caution in pregnant women.

. There may be allergic reactions to contrast agents (if
contrast-enhanced CT is performed)

. CT scans use a large amount of radiation, significantly
higher than conventional X-rays.

. Repeated scans or prolonged exposure can pose
health risks- a slightly increased risk of cancer.

. Particulary risky for children, pregnant women and
young individuals.

Issues related to contrast agents:

. Special contrast liquids are used to obtain clearer
images. However:

In some cases, they may cause allergic reactions (mild
rashes, or in severe cases, anaphylactic shock).

In patients with impaired kidney function, contrast
agents may worsen their condition.

Some patients cannot tolerate contrast agents or may
experience significant discomfort.

To obtain clear images, special contrast liquids are
used. However:

. They may occasionally trigger allergic reactions (from

mild rashes to severe cases such as anaphylactic shock).

. In patients with impaired kidney function, contrast
agents can worsen their condition.

. Some individuals may not tolerate contrast materials
well or may experience significant discomfort.

CT scans provide clear visualization of bones, lungs and
dense structures; however,

. Soft tissues (such as muscles, the brain, joints) are not
as clearly visualized compared to MRI.

Sensitivity to Movement:

. The patient must remain still during the scan,
especially when examining the heart, lungs, or internal
organs.

. Children, elderly, or critically ill patients may find it
difficult to remain motionless, which can reduce image
quality.

CT equipment is very expensive, installation and
maintenance are complex.

. It does not reveal organ function or metabolic activity.

. For functional assessments, PET or MRI is preferred.

Risk during pregnancy:

CT scans are performed on pregnant women only when

absolutely necessary and with a doctor’s approval, as

radiation exposure may negatively affect fetal
development.

CONCLUSION

Computed tomography CT is a diagnostic tool that
stands out in modern medicine for its precision, speed
and versatility. However, it is not without limitations,
which must be carefully considered when making
clinical decisions. The presence of ionizing radiation,
the potential for allergic reactions to contrast agents,
limited clarity in imaging soft tissues and restricted
functional evaluation are among the notable
drawbacks of this technology. Therefore, CT
examinations should always be conducted with full

consideration of the patient’s overall condition and the

diagnostic goals.

It is essential that computed tomography (CT) be used
in alignment with the intended diagnostic purpose and
the availability of alternative methods. When selected
appropriately and performed with care, CT remains an
invaluable tool in the process of medical diagnosis and
treatment.

Today, computed tomography is consired one of the
most widely used modern diagnostic methods. It allows
for rapid and accurate visualization of internal div
structures and enables prompt diagnosis in emergency
situations. However, the method is not without its
drawbacks: the use of ionizing radiation poses health


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risks, contrast agents may cause adverse effects and
there are limitations in evaluating soft tissues. These
factors necessitate combining CT with other diagnostic
approaches where appropriate.

Therefore, CT scans should be applied cautiously and
anly when truly necessary, taking into account the

patient’s

age

,

health

status

and

individual

circumstances. When used correctly, CT plays a critical
role in delivering precise and effective diagnoses, even
in the most complex clinical cases.

REFERENCES

Anvarovich, A. S., & Qizi, Y. D. A. (2025). THE ROLE AND
IMPORTANCE OF MODERN COMPUTER TECHNOLOGIES
IN THE DIAGNOSIS AND TREATMENT OF AUTISM IN
YOUNG CHILDREN.

ATAKHANOV, S., & MAKSUMOV, M. (2024). Technology
for developing critical thinking in students through
biological problem modeling in medical education.

Атаханов, С., & Максумов, М. (2024). Технология
развития критического мышления у студентов
медицинских

вузов

через

моделирование

биологических проблем. Общество и инновации,

5(11/S), 287-291.

Atakhanov, S. A., & Burieva, N. A. (2024). Developing
Medical Competencies in Students Through the Use of
Biological Modeling Technologies in Medical Education.
European Journal of Innovation in Nonformal
Education, 4(12), 321-323.

Атаханов, С. (2023). РОЛЬ ИНФОРМАЦИОННЫХ
ТЕХНОЛОГИИ

В

ЛЕЧЕНИИ

ОНКОЛОГИЧЕСКИХ

ЗАБОЛЕВАНИЙ.

Евразийский

журнал

академических исследований, 3(4 Part 2), 87

-89.

References

Anvarovich, A. S., & Qizi, Y. D. A. (2025). THE ROLE AND IMPORTANCE OF MODERN COMPUTER TECHNOLOGIES IN THE DIAGNOSIS AND TREATMENT OF AUTISM IN YOUNG CHILDREN.

ATAKHANOV, S., & MAKSUMOV, M. (2024). Technology for developing critical thinking in students through biological problem modeling in medical education.

Атаханов, С., & Максумов, М. (2024). Технология развития критического мышления у студентов медицинских вузов через моделирование биологических проблем. Общество и инновации, 5(11/S), 287-291.

Atakhanov, S. A., & Burieva, N. A. (2024). Developing Medical Competencies in Students Through the Use of Biological Modeling Technologies in Medical Education. European Journal of Innovation in Nonformal Education, 4(12), 321-323.

Атаханов, С. (2023). РОЛЬ ИНФОРМАЦИОННЫХ ТЕХНОЛОГИИ В ЛЕЧЕНИИ ОНКОЛОГИЧЕСКИХ ЗАБОЛЕВАНИЙ. Евразийский журнал академических исследований, 3(4 Part 2), 87-89.