Blood Net: Linking Hospital with Donors

Anirudh N., Dhanush Kumar R. and Ramya M.

St. Joseph’s Institute of Technology, Chennai, Tamil Nadu, India

Keywords: Efficiently, Crucial, Essential.

Abstract: This e-blood and plasma donation system will be done in Java, HTML, CSS, Bootstrap, and SQL. The primary

features of this system include login and registration for the user and a donation module that connects donors

to emergency patients. The system encompasses the back-end handling by Java, HTML, CSS, and Bootstrap

for interface and responsiveness, while SQL handles the database. An account can be created and a user

logged in through the registration page. The blood donation module offers support in the searching process

by selecting types, locations, and other criteria to identify donors, as well as booking donations, tracking

history, and receiving alerts. A plasma donation module allows finding donors, booking appointments, and

keeping track of the records. For the database storage of user information, donor details, and appointment

records, SQL would be used to make sure data integrity and easy access.

1 INTRODUCTION

Blood donation is harmless and safe in the body.

Instead, it is a social responsibility. The donor is

donating for it as it will be used in saving lives of his

fellow beings. He himself may use the same during his

own need. MILLIONS OF people owe their lives to

people whom they will never know or meet in their

lifetime. They are none other than those great souls

who gladly and graciously donated blood without their

expecting or seeking a single reward in return-here we

have our voluntary unpaid donors. Voluntary unpaid

donors form the very bedrock of a safe and reliable

blood supply that has the potential to rescue millions

of human beings from the jaws of untimely death and

despair. Hearty appreciation and deep gratitude should

be extended to these unsung heroes without whom

countless lives could have been sustained and

preserved through their noble acts.

June 14th Is Observed as International Blood

Donars Day. Nothing can be compared to the

preciousness of human blood. Even with the rapid and

wonderful conquests of the medical science of today,

no laboratory manufactures blood. It is only in human

beings that human blood is made and circulated. And

for those who require blood to save their lives, sharing

from other fellows is the only means. Therefore, it can

be said that donation and particularly voluntary

donation forms the only method of blood collection

kept safely that meets the emergency needs and

imperative for preserving life.

International Blood Donors Day-it cannot be

priced more than once in every lifetime, as is the

human blood, on June 14th. It can come only from

human beings, and for some people, it's a matter of life

and death. Only the blood donation system can meet

the urgent lifesaving needs reliably. Figure 1shows the

development of deep learning in industries It is a risk-

free way of obtaining what is desired as voluntary

donation.

Figure 1: Development of Deep Learning in Industries.

840

N., A., R., D. K. and M., R.

Blood Net: Linking Hospital with Donors.

DOI: 10.5220/0013921600004919

Paper published under CC license (CC BY-NC-ND 4.0)

In Proceedings of the 1st International Conference on Research and Development in Information, Communication, and Computing Technologies (ICRDICCT‘25 2025) - Volume 4, pages

840-849

ISBN: 978-989-758-777-1

2 ROLES OF BLOCKCHAIN

ACROSS INDUSTRIES

2.1 Finance & Banking:

It has transformed the banking industry with a safe,

decentralized, and open manner of transacting.

Middlemen are present in conventional banking

systems, causing delays and increased fees for

transactions. Blockchain removes middlemen, thus

making cross-border transactions more affordable and

efficient.

2.2 Healthcare

In the healthcare industry, blockchain enhances the

security and integrity of patient records. Medical

records on a blockchain are Immutable, reducing the

risk of data leakage and unauthorized access.

Blockchain also improves drug traceability to

authenticate the genuineness of drugs and prevent

counterfeit drugs from entering the market.

2.3 Real Estate

The real estate sector benefits from blockchain by

reducing the fraud and streamlining properly

transactions. Blockchain enables secure and

transparent property ownership records, eliminating

the need for intermediaries like brokers and lawyers.

It also facilitates seamless buying, selling, and leasing

properties, reducing paperwork and increasing the

efficiently.

2.4 Decentralized Finance DeFi

Blockchain innovation since it eliminates the

middlemen in transactions, such as banks. This way,

people can lend, borrow, or exchange their money

without a central authority. Consider smart contracts

as the new means of delivering financial services to a

broader and even more distributed audience

worldwide in an innovative manner. 5. Digital

Identity Management Of the features that make the

blockchain more impressive in digital identity

management is the ability of people to have control

over their personal data without having central

authorities. The innovation provides maximum

protection against privacy invasion and identity theft

in matters of medicine and finance authorities to

direct this information. Figure 2 shows how

blockchain works in industries.

Figure 2: Blockchain Works in Industries.

3 APPLICATION OF BLOOD

AND PLASMA DONATION

SYSTEM

3.1 Hospital Support During

Emergency Conditions

This system plays a vital role in emergency medical

cases by granting hospital immediate access to blood

and plasma donors. Patients in need of immediate

transfusions from accidents, surgery, or serious

illness can locate compatible donors in real life. The

system guarantees life-saving donations and are

delivered to patients in the shortest time possible,

reducing delays in life-saving therapy.

3.2 Donor Management System

The system streamlines donor management by

tracking donors’ details like blood group, availability,

and donation history. This allows hospitals to have a

steady database of available donors who can be

summoned at any time a specific blood group is

needed. Automating donor management, the system

enhances the efficiency of blood banks and medical

facilities. Figure 3 shows the Blood and plasma

donation management system.

Blood Net: Linking Hospital with Donors

841

Figure 3: Blood and Plasma Donation Management System.

3.3 Community Engagement and

Awareness

The system encourages individuals to participate in

blood and plasma donation drives by providing

notifications about upcoming donation camps. By

educating the public on the importance of donating

blood and plasma, it fosters a culture of voluntary

donation. This helps address shortages in blood banks

and ensures a steady supply for medical emergencies.

3.4 Hospital and Blood Bank

Collaboration

Hospitals and blood banks benefit from a centralized

platform that connects them with donors and other

medical institutions. By sharing data on available

blood units and donation requests, healthcare facilities

can coordinate effectively. This reduces wastage of

stored blood, ensures better inventory management,

and improves response time during emergencies.

3.5 Medical Campaign and Awareness

Drives

Hospitals can organize and manage blood and plasma

donation camps through the system. The platform

allows event notifications to be sent to registered

users, improving participation rates. Donors can also

receive certificates for their contributions,

encouraging more individuals to donate regularly.

3.6 Integrated Data Security

The system applies SQL in accessing databases of the

hospital where donor and patient information would

be securely stored and retrieved. Encryption data will

ensure the maintenance of privacy, which is quite

critical in a healthcare environment. Figure 4 shows

the data security in blood and plasma management

system. Therefore, it ensures that only authorized

personnel get to access sensitive medical data due to

strict login mechanisms.

Figure 4: Data Security in Blood and Plasma Management

System.

3.7 Real-Time Notifications and Alerts

One of the most significant use of the system, one has

been particularly geared to maximize efficiently and

responsiveness within healthcare, it its capability for

real-time notification to be disseminated. Donors are

timely reminded of available opportunities to support

through donation, while hospitals are immediately

notified every time there are available donors who

3.8 Digital Certification

The system allows both donors and hospitals to

schedule and manage donation appointments

efficiently. Donors can book slots at nearby donation

centers or hospitals, reducing wait times and

optimizing the donation process. Hospitals, in turn,

can plan their blood collection drives based on real-

time availability of donors. After a successful

donation, the system can generate digital certificates

for donors, recognizing their contribution to saving

lives. This feature encourages regular donations by

offering an acknowledgment of their efforts. These

certificates can also serve as proof of eligibility for

special benefits in health programs or government

initiatives.

This Also Feature Fosters Regular Donations by

Recognizing the Contributor. These Certificates

Could Also Be Used as Proof of Eligibility for Special

Benefits in Health Programs or Government

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Initiatives. Figure 5 represents the blood plasma for

donating.

Figure 5: Blood Plasma for Donating.

4 IMPACT OF BLOOD AND

PLASMA DONATION SYSTEM

4.1 Faster Access to Life Saving

Donations

The system considerably reduces the time taken to

find suitable plasma and blood donors, enabling the

hospital to respond promptly in an emergency. In

emergencies such as accidents, surgeries or serious

headaches, the availability of donors saves lives.

4.2 Improved Donation Process

Many of the features provided in the modules

enhance the functionality, However, the integration

of modules to work together to improve the donation

experience of the donors is the key. It relieves and

optimizes the entire donation experience for both

medical institutions and individual donors involved in

such vital processes. Thus, with the emphasis of these

advancements, a much consistent and systematic

structure for assisting humanitarian work can be seen

as an evident increase in the amount and consistency

of the contributions.

4.3 Increased Blood and Plasma

Availability:

By connecting donors directly with hospitals and

blood banks, the system helps maintain a steady

supply of blood and plasma. This reduces shortages

and ensures that even rare blood groups are readily

available. As a result, hospitals can meet patient

demands more efficiently without relying on urgent

donation on crisis.

Figure 6: People Volunteered in Donation.

By this system method, an acceptor can get Blood and

plasma in a faster rate without worrying about their

problem to catch the donors. Hospitals can also meet

patient demand more efficiently without waiting for

emergency donations during crises. Figure 6 shows

the people volunteered in donation. The Blood and

plasma foster without any concern about the problem

of finding a donor.

4.4 User Friendly Inerface an

Accessibility

The Blood and Plasma Network uses a high

responsive design framework created with Bootstrap

that is meant to ensure smooth accessibility across

multiple devices. This carefully designed architecture

increases the ease through which interaction is

achieved between the system, as well as between

health facilities, and the donor from any form of

device use. It ensures that users, including those in

rural or underserved settings, can access very

essential donation services in blood and plasma

conveniently and effectively without unnecessary

disruptions.

Blood Net: Linking Hospital with Donors

843

4.5 Enhances Efficiency in Hospital

Organizations

Well-structured scheduling framework that would be

unique to plasma donation creates and implements a

scheduling system for the entire plasma donation

process. Hospitals, blood banks enjoy automated

donor management. It eliminates manual work.

Rather than make fruitless phone calls to potential

donors, hospitals can use a system to locate available

ones and a list of them with a proper location, blood

type and donation history. This leads to more efficient

use of resources and seamless functioning of

healthcare.

4.6 Positive Social and Humanitarian

Impact

The system also actively promotes voluntary

donations and creates awareness of the importance of

donating blood and plasma, thus contributing to

overall public health. Chronic diseases also require

blood transfusions regularly, usually thalassemia or

hemophilia, and that can be ensured only through

regular donations on part of people.

But there are more than just medical benefits in

this system; it also encourages empathy and

solidarity. Know that you are all making a difference

in saving lives; that is so rewarding for donors. This

benefit helps raise awareness while providing an

easy way to donate to humanitarian efforts.

5 PROPOSED METHODOLOGY

This is something which would be a useful

application for the society and it’s a part of a larger

network for all the various places that do blood

donation. The methodology consists of three main

steps: System Development and Implementation,

Data Security and Management, and Testing and

Deployment. There are many subtopics in each stage

that explain certain functionalities and a set of

processes required to achieve a seamless and efficient

system.

5.1 System Development and

Implementation

If this system of donating blood and plasma is to

work, it’s going to take a good design to seamlessly

connect donors with hospitals. This includes

developing an easy interface, implementing

matching donor features, and making scheduling

appointments easy

5.1.1 User Management and Authentication

This system securely exposes the application through

a login and authentication mechanism to donors,

hospitals, and administrators. BLOOD DONOR

REGISTRATION: DONORS can register providing

their information i.e. name, contacts, blood group,

and location. Hospitals sign up their information and

license for the site to verify. Try here Login System:

A login system is used to prevent unauthorized

access to different user portals. Roles are

implemented by Java Servlets and database roles.

Java Servlets are used for login system

implementation and user credentials are stored.

Securely in a database. SHA-256 is applied to encrypt

the passwords to protect the passwords from being

stolen.

5.1.2 Donor Matching and Blood Request

System

The system includes a major component that

matches donors with hospitals based on blood group

and geographical area. Hospitals can search for

possible donors using a user-friendly interface that

filters by availability. For example, SQL queries

would be used to fetch donor information and a

geolocation algorithm, like the Haversine formula,

would be used to find the distance between hospitals

and donors. To accept or reject requests as necessary,

donors may be contacted via email or notification

regarding their availability. With the automatic

matching system, the time taken to find appropriate

donors during emergencies is substantially reduced.

5.1.3 Appointment Scheduling and

Notification System

The system has an appointment scheduling tool that

allows the donor and the hospital to coordinate the

donation process more efficiently. The donation

request is taken by the donor and chooses the time

slot to visit the hospital. Hospitals can use the portal

to manage these appointments. The system sends

email and SMS reminders to donors and hospitals to

prevent missed appointments. You use Java Mail API

to send e-mail reminders and third-party SMS

gateways to send SMS reminders. You are used

with data till October 2023 This feature enables these

well-coordinated donation process which makes the

blood and plasma collecting process easier.

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5.2 Data Security and Management

Given its sensitivity and the role on hospitals, it is

important to preserve greater security and integrity.

It is important to note that this stage involves securing

data storage, security from cyber threats, and

appropriate data backup methods.

5.2.1 Secure Data Storage

The appointment, hospital and donor data are stored

in a structured SQL database. Sensitive data is

encrypted with AES encryption to prevent

unauthorized access, thus ensuring confidentiality of

personal data. The database has a strict access rule

where information is very sensitive and can be

accessed by authorized users only. Regular data

validation checks are executed to prevent duplication

and to confirm the reliability of donor data.

5.2.2 Transaction Security and Protection

Authentication and transaction processes are made

secure to protect donor and hospital interaction.

Session Token Each user session is encrypted to

ensure no unauthorized access. All data exchanged

between users and the server are encrypted using

SSL/TLS encryption, ensuring the privacy of

communication. It also gets anti SQL injection, XSS

across the site.

5.2.3 Data Integrity and Backup

Regular backups of the database and version control

techniques ensure data integrity. In the event of a

power outage, donor records, hospital information,

and appointment logs are automatically backed up so

that no information is lost. Your data is viable and you

can use rollback system to revert the database to the

previous state in case something goes wrong or if any

inconsistencies or errors are found. Alternatively,

cloud storage solutions could also be integrated into

the system to provide off-site backups and to

minimize the risk of system failure.

5.3 Testing and Deployment

A comprehensive quality assessment is conducted

and the system is trained on data before it goes live.

The second phase Assessment phase: the

deployment phase involves making the system

available to users while minimizing disruption.

5.3.1 Functional and Unit Testing

Individual components and their relationships.

Functional testing involves checking that the various

features of the application such as User Registration,

Donor Search, and Appointment Scheduling are

functioning properly. Unit testing is done using

framework like java-based JUnit to test each

component of application separately. You are tested

for bugs and inconsistencies and based on test results,

you can either go back for refinement or proceed to

the next consent.

5.3.2 Security and Performance Testing

Security testing is performed to know potential

threats such as unauthorized access, data breaches

with respect to defending exposures. There are also

ethical hacking tools and penetration testing tools that

are used in the process to replicate cyber-attacks and

make sure the system is able to withstand malicious

activities. Also, performance testing evaluates how

the system performs under high traffic. There are

simulations that test multiple users to be accessing the

platform at the same time. The basis of these

simulations is to test response times, identify

performance bottlenecks.

5.3.3 Deployment and User Training

After testing is done, the system gets deployed on

some cloud-based server so it is scalable and

available anytime. Hospitals receive structured

training on how to use the platform, while donors are

equipped with instructions on how to register and

participate. First users are gathering feedback to

further improve the system's usability. After the

deployment, we keep an eye on the system to make

sure everything is working fine, and we deploy

updates regularly to improve features or add new

security measures.

6 INTEGRATION OF BLOOD

AND PLASMA DONATION

SYSTEM

The integrations outlined in the "Blood and Plasma

Net" system include several key points regarding how

different modules and components of the system

interact.

Blood Net: Linking Hospital with Donors

845

6.1 Need for Integration

However, most hospitals and blood banks work in

silos and it is cumbersome to manage blood donations.

In many cases, this fragmented system results in

delays for matching suitable donors, especially in life-

threatening situations. Hospitals should be able to link

up with all stakeholders through a single platform,

which will connect them instantly with those eligible

donors, enabling ready availability of blood and

plasma when required.

Another key driver of integration is a growing

demand for blood and plasma for treatments of

medical conditions such as accidents (accident

victims typically require blood), surgeries and

diseases such as anaemia and cancer. The population

is ever growing and with the growing healthcare

needs, hospitals require a stronger system to manage

the donor records, status of donation history, and

compliance with the medical guidelines. Once the

system is integrated, hospitals can issue real-time

notifications and alerts to registered donors and

enhance the probability of successful donations.

Additionally, this will help minimize manual

mistakes and increase operational efficiency through

automated processes such as donor verification,

inventory management, and appointment scheduling.

6.2 Overview of Blockchain in

Donation Management System

The Blood and Plasma Net system is a software

developed to aid the donation process by uniting the

hospital and the willing donor. (has six pages

including login) The system is designed using web

technologies such as Java HTML, CSS, Bootstrap,

and SQL. Its goal is to make registration, searching,

and matching easier. The system comprises several

modules, including user registration, blood/plasma

donor search, appointment scheduling, and donation

history tracking. It also has a notification feature,

which is used to remind donors about opportunities

to donate. In turn, this leads to more donations.

Platform features easy to use interface for

facilitating efficient communications between

hospitals and donors. Hospitals can request certain

blood types, and alert nearby donors on urgent needs.

The system uses geolocation algorithms for hospitals

to reach the nearest donors based on real-time

location data. Donors register, view requests for

donations, and indicate when they are available. The

system ensures a seamless and cost-effective

engagement with role-based access control (RBAC)

to provide access to only those, who are authorized

like hospitals, administrators, and donors.

6.3 Benefits of Integration

Blood and Plasma Net' integration system benefits:

One of the main advantages of a pooled blood and

plasma donation system is that it allows donors to be

matched quickly with hospitals. Advanced searches

and filters like blood type, proximity and availability,

which can lead to the best donor for the hospitals.

This can shorten the time to find a donor, particularly

in the case of emergencies where every second

counts. An integrated system also sends automatic

notifications to donors.

Another major benefit is improved security and

data management. The donor records and hospital

records stored securely with an integrated SQL

database and unauthorized people can't access it."""

Donor information is maintained due to encryptions

like SHA-256 that secure the sensitive text. Role-

based authentication ensures that the correct entity

has access only to what he/she should have access to,

eliminating the risk of fraud.

Operational perspective, integration makes it

easier for blood banks and hospitals to manage their

inventory. The current blood donation management

systems, conventional methods involve maintaining

blood stocks which can become wasted when not in

use on time. The integrated new system automatically

updates blood inventory levels and issues alerts

when supplies are low. That helps ensure blood and

plasma are used efficiently and that hospitals always

have the supplies they need on hand.

6.4 Model Architecture

Frontend (UI Layer): The UI interface of the system

is designed in HTML, CSS, and Bootstrap. Users can

maintain donation records using the interface. The

search feature filters donors by blood type, location,

and availability, so hospitals can pull in a match

quickly.

Backend (Application Logic Layer): The system's

backend relies on Java (JSP & Servlets), managing all

business logic and core functionalities. The user

authentication, donor-hospital matching, request

management, and appointment scheduling

functionality are provided here. Backend also

implements Java Mail API to send automatic email

notifications to the users about donation requests and

upcoming events.

Database Layer: SQL is the database management

system used, allowing for the secure storage of all the

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records of donors, hospitals, and appointments. The

relational database is designed using data

normalization techniques to remove all redundancy

and allows very fast retrieval of the data. This is

important for complying with privacy laws, and

sensitive data is protected by encryption mechanisms

like SHA-256. Figure 7 Shows the architecture

diagram blood donation system.

Figure 7: Architecture Diagram Blood Donation System.

7 EXPERIMENTS AND RESULTS

7.1 Experimental Setup

In order to assess the performance of the Blood and

Plasma Net under various scenarios it was evaluated

together with the underlying simulation environment.

The system was deployed on cloud server with

MySQL database and (java (JSP & Servlets have

powered the back-end. To verify that the frontend

works in the cross-platform we tested it on different

devices and also on multiple browsers.

These experiments were performed to investigate

the system performance and accuracy in addition to

the user response time. To mimic the real-world

scenarios, multiple datasets are collected that include

the information of donors, the hospitals and blood

request. The geographical distance between both

donor and hospital location was calculated with a

Haversine algorithm. It enabled the donor to be

proposed to him on the basis of his position. Java

Mail API was used to test the notification system.

The security tests carried out to verify the system

capacity to protect the user data. Passwords were

stored using SHA-256 hashing. To see how database

is protected, simulating SQL injection attacks were

performed. The scalability was tested by increasing

the number of concurrent users. Under the high load,

the response time was measured.

7.2 Performance and Accuracy

Results with Blood and Plasma Net, transport

companies can retrieve data from multiple blood

banks and manage requests based on transport

prioritization, in real-time, with high efficiency. The

performance tests showed that the system was able to

perform searches and display information about

donors in under 2 seconds with a database holding

more than 50,000 donors’ records. Optimized SQL

queries and database indexing were utilized for fast

and accurate results. Furthermore, the Haversine

algorithm was implemented for geolocation-based

donor matching, which was able to match donors

located at a distance of 5 to 10 km within 1.5

seconds. It was also tested on data of multiple datasets

for donor matching accuracy, which was found 98%

success in providing relevant donors based on blood

type and locality. They also validated that the system

updated and displayed donor availability after a

donation so that hospitals always had access to the

latest information.

7.3 Security

Security and data protection were an important part

of the Blood and Plasma Net system due to the

sensitive user data involved. The system uses SHA-

256 encryption for secure authentication and data

storage, making it extremely difficult for brute-force

attacks. By simulating SQL injection attempts against

the system, we evaluated the security of the

underlying database, which successfully blocked all

unauthorized access attempts, thereby proving the

safety of sensitive data stored. In addition, role-based

access control (RBAC) was implemented to limit

access to certain functions based on user roles (e.g.,

donor, hospital, administrator). This would have

prevented unauthorized users from changing or

accessing sensitive donor and hospital records. And

the entire project was tested for GDPR and HIPAA

compliance, to make sure donor privacy was

protected at all levels.

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847

7.4 User Satisfaction

The platform was tested with a group of 50 users

including donors and hospital representatives.

Participants were required to carry out significant

tasks like donor registration, appointment

scheduling, and donor searches. Results The feedback

collected revealed that 85% of users perceived the

system to be clear and easy to use, with clear

navigation and smooth interface. Scalability tests of

user representation as 100 to 5000 concurrent users

were performed to ensure the platform can handle

traffic loads efficiently. At peak usage, minor delays

in the notification system were experienced; however,

core functionalities were stable. It used to be manual

but users in both the hospitals as well as with potential

donors suggested some features such as real-time chat

between hospital and patients to improve engagement

and streamline communication even further.

8 FUTURE WORK AND

DIRECTIONS

8.1 AI Based Donor Prediction

AI and ML machine learning improve the accuracy

of predicting potential donors based on their history

of giving, health status, and eligibility. The

recommendation system powered by AI also analyses

the donors' frequency and recommends the best time

which is ideal for making the donation. The tool that

can determine the sentiment of people will also

facilitate interaction with donors with respect to the

willingness and motivation for the same.

8.2 Integration with Mobile Apps and

IOT Devices

Develop mobile applications that allow the user to

have access directly from their smartphone, ensuring

that they get real-time updates and alerts

immediately. This will integrate IoT devices, such as

wearable health monitors, to provide real-time health

metrics to users and hospitals for the betterment of the

donation process.

8.3 AI Based on Advanced Machine

Learning Techniques

Implementing machine learning algorithms to make

better donor matches, analytics for predicted

outcomes at a micro level, and using this kind of

information for real-time decision making. Leverage

AI algorithms that make use of data from previous

transactions to recommend matches between

potential donors and recipients, helping augment the

accuracy and efficiency in those matching processes.

G. Continued innovation through insight from data

patterns to be able to always improve user experience

and even the performance of the platform as a whole.

8.4 Expansion to Plasma Therapy and

Organ Donation

The system may be extended to include organ

donation and plasma therapy. Organ donation is a

matter of life and death for many patients. A matching

system may be implemented to connect the donor and

the recipient, which can save a lot of time in life-and-

death situations. Plasma therapy matching system

may also be implemented to connect the patients who

need therapy and the ones who already recovered

from this infection. This system saves lives in

emergencies, allowing the recovered patients to

donate their plasma to the sick ones.

9 CONCLUSIONS

Summarily, there is a significant need to appreciate

and acknowledge the fact that the blood donation

system is one of the most fundamental and crucial

elements that exist within the overall health-care

delivery framework. This, in effect, means that it

performs an absolutely vital and critical function in

ensuring that at any given time, there is always a

consistently assured availability of safe and ample

supplies of blood exactly at the moment when

patients might urgently need it. The really

outstanding efficiency and dependability of this

system are wholly crucial for the goal of preserving

life while promoting the best possible results of

treatment for patients. Continuous improvement,

combined with growing public awareness, is

therefore required to ensure the health and active

participation of a donor base. This is required in order

to ensure that such a service remains sustainable as

well as continues to progress. As a united community,

we can become fierce advocates for this life-saving

effort. We can do so not by challenging people simply

to donate more often, but by promoting ways that will

help the community mobilize towards practical

aspects that can practically and effectively serve this

cause.

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REFERENCES

Castro MA, Ahumada Olivares MC, Putman CM, Cebral

JR. Intracranial Aneurysm Wall Motion and Wall Shear

Stress from 4D Computerized Tomographic

Angiography Images. Proc Int Soc Opt Phot (SPIE).

2013;8672.

Cerqueira MD, Weissman NJ, Dilsizian V, Jacobs AK,

Kaul S, Laskey WK, et al. Standardized Myocardial

Segmentation and Nomenclature for Tomographic

Imaging of the Heart: A Statement for Healthcare

Professionals from the Cardiac Imaging Committee of

the Council on Clinical Cardiology of the American

Heart Association. Circulation. 2002;105(4):539 – 542.

D. Chkliaev, J. Hooman and P. van der Stok, “Mechanical

verification of transaction processing systems,” in Proc.

ICFEM 2000. Third IEEE International Conference on

Formal Engineering Methods, 2000, pp. 89-97.

D. Puthal, N. Malik, S. P. Mohanty, E. Kougianos and G.

Das, “Everything You Wanted to Know About the

Blockchain: Its Promise, Components, Processes, and

Problems,” IEEE Consumer Electronics Magazine, vol.

7, no. 4, pp. 6-14, 2018.

D. Liu and J. Lee, “CNN based Malicious Website

Detection by Invalidating Multiple Web Spams,” IEEE

Access, vol. 8, no. 1, pp. 97258-97266, 2020.

F. Casino and C. Patsakis, “An Efficient Blockchain-Based

Privacy-Preserving Collaborative Filtering

Architecture,” IEEE Transactions on Engineering

Management, vol. 67, no. 4, pp. 1501-1513, Nov. 2020.

Hennemuth A, Friman O, Schumann C, Bock J, Drexl J,

Huellebrand M, et al. Fast Interactive Exploration of 4D

MRI Flow Data. Proc Int Soc Opt Phot (SPIE).

2011;7964.

K¨ohler B, Gasteiger R, Preim U, Theisel H, Gutberlet M,

Preim B. Semi-Automatic Vortex Extraction in 4D PC-

MRI Cardiac Blood Flow Data Using Line Predicates.

IEEE Trans Vis Comput Graph. 2013;19(12):2773 –

2782.

L. Peng, W. Feng, and Z. Yan. (2020). Privacy preservation

in permissionless blockchain: A survey. Digital

Communications and Networks. [Online]. Available:

https://doi.org/10.1016/j.dcan.2020.05.008.

Markle M, Frydrychowicz A, Kozerke S, Hope MD,

Wieben O. 4D Flow MRI. J Magn Reson Imag.

2012;36(5):1015 – 1036.

McLoughlin T, Laramee RS, Peikert R, Post FH, Chen M.

Over Two Decades of Integration-Based, Geometric

Flow. Comp Graph Forum. 2010;29(6):1807 – 1829

N. Kakade and U. Patel, “Secure Secret Sharing Using

Homomorphic Encryption,” in Proc. 2020 11th

International Conference on Computing,

Communication and Networking Technologies, 2020,

pp. 1-7.

P. J. Taylor, T. Dargahi, A. Dehghantanha, R. M. Parizi,

and K. K. R. Choo, “A systematicliterature review of

blockchain cyber security,” Digital Communications

and Networks, vol. 6, no.2, pp. 147-156, 2020.P

r¨om L, Sj¨oqvist L, Wranne B. Temporally Resolved 3D

Phase-Contrast Imaging. J Magn Reson Imag.

1996;36(5):800 – 803.

S. Kaushik, and S. Puri, “Online transaction processing

using enhanced sensitive data transfer security model,”

in Proc. 2012 Students Conference on Engineering and

Systems, 2012, pp. 1-4.

S. Sundari and M. Ananthi, “Secure multi-party

computation in differential private data with Data

Integrity Protection,” in Proc. 2015 International

Conference on Computing and Communications

Technologies, 2015, pp. 180-184.

S. Jiao, T. Lei, Y. Gao, Z. Xie and X. Yuan, “Known-

Plaintext Attack and Ciphertext-Only Attack for

Encrypted Single-Pixel Imaging,” IEEE Access, vol. 7,

no.2, pp. 119557-119565, 2019.

S. Zhang, and J H. Lee. “Mitigations on Sybil-based

Double-spend Attacks in Bitcoin,” IEEE Consumer

Electronics Magazine, vol.7, no. 2, pp. 1-1, 2020.

W. Martin, V. Friedhelm, and K. Axel, “Tracing

manufacturing processes using blockchain-based token

compositions,” Digital Communications and Networks,

vol. 6, no 2, pp.167-176, 2019.

W. Zheng, Z. Zheng, X. Chen, K. Dai, P. Li and R. Chen,

“NutBaaS: A Blockchain-as-a-Service Platform,” IEEE

Access, vol. 7, pp. 134422-134433, 2019.

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