Cloud Based Privacy Preserving Data Encryption

International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056
Volume: 09 Issue: 03 | Mar 2022 www.irjet.net p-ISSN: 2395-0072
© 2022, IRJET | Impact Factor value: 7.529 | ISO 9001:2008 Certified Journal | Page 727
Cloud Based Privacy Preserving Data Encryption
Akash Kumar1, Dr. Bhuvana J2
1Professor, School of CS & IT, Jain University, Bangalore, India.
2MCA, School of CS & IT, Jain University, Bangalore, India.
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Abstract – The purpose of this paper is to improve Data
Security which will be uploaded by the data owner in
encrypted format and will later be converted to encrypted
form. In this paper, we consider multi-file system
encryption where multiple data providers such as
hospitals and physicians are authorized by individual data
owners to upload their personal health data to a trusted
public cloud. Health data is sent in encrypted form to
ensure data security, and each data provider also sends
encrypted data references to enable queries to encrypted
data. We propose a Multi-Source Order-Preserving
Symmetric Encryption (MOPSE) novel system where the
cloud can integrate encrypted data tracks for multiple
data providers without knowing the content of the index.
MOPSE enables effective query processing and
confidentiality where a data user can send a single data
query that they can process to encrypted data from all
related data providers without knowing the content of the
query. We also propose an advanced scheme, MOPSE +, to
effectively support data queries by successive data
providers. Extensive analysis and real-world site testing
demonstrates the effectiveness and efficiency of MOPSE
and MOPSE +.
Key words: AWS, Cloud Based, MySQL, Database,
Javascript, HTML, CSS, AES
1. INTRODUCTION
New revolving technologies in hardware, middleware,
virtual machine and distributed systems are needed to
meet the growing needs of the information . Such
technology should meet the need for all types of clients
from individuals and organizations. All of these services
can be provided by cloud computing as they provide
platform, infrastructure and software as a service using
the technologies mentioned above. This is a payment
model as you go. As these technologies require
resources, network, hardware and virtualization on a
larger scale than the integration of all technical issues
leads to a complete loop in the systems. Among all the
problems associated with cloud computing we focus on
issues of user privacy and data securities. Cloud
computing emerges as a new computer paradigm in the
field of healthcare among other business domains. Many
health care companies have begun to transform
electronic health information into a cloud. Introducing
cloud services in the health sector is not just a matter of
exchanging electronic medical records. In addition,
switching to cloud-based environment rehabilitates a
health care organization with tedious infrastructure
management activities and reduces the cost of
development and preservation. However, maintaining
patient privacy concerns should be considered
important when designing safety and confidentiality
guidelines. Various methods have been used to protect
the privacy of health information in the cloud
environment. This study aims to integrate sophisticated
privacy protection techniques used in e-health clouds. In
addition, privacy sensitive methods are classified as
encryption and cryptographic methods, and are assigned
to the category categories. Additionally, the strengths
and weaknesses of the provided methods are reported
and some open issues are highlighted.
2. PROBLEM STATEMENT
In this project, we aim to identify effective schemes for
storing patient information. In this case the owner will
upload the files in encrypted format and can be accessed
later. That data will be sent to the cloud and can be
accessed by hospitals and even cell phones we can
access. Later uploaded files will be encrypted. We can
create flexible patient requests to complete through
schemes:
MOPSE enables effective query processing and
confidentiality where a data user can submit a single
data query that they can process to encrypted data from
all related data providers without knowing the content
of the query.
We also propose an advanced scheme, MOPSE +, to
effectively support data queries by successive data
providers.
Extensive analysis and evaluation of the actual database
demonstrates the effectiveness and efficiency of MOPSE
and MOPSE +.
3. LITERATURE WORK
[1] Assisted Cloud Health Care Surveillance System For
compression, wireless nerves are increasingly being
used to record / collect information on health care
organisation . To get the right resource data, one big
practice today is to use compression sensitivity, as it
involves sampling normal data and congestion. Despite
growing popularity, the ever-present way of processing
data of health care and protecting data privacy at the
same time, while maintaining low sensitivity, remains a
challenge. To solve the problem, we propose a cloud-
based healthcare monitoring system using a pressure
sensor, which combines different domain strategies with

the following advantage. By design, sensitive data
samples never leave the nerves in an unsafe state.
Protected samples are then sent to the cloud, to be
stored, processed, and distributed and recycled data to
recipients. The system ensures privacy when the cloud
does not see real samples or basic data. Handles small
and standard data, as well as audio-interrupted data.
Visual and visual inspections indicate that the system
gains privacy verification, efficiency, efficiency, and time-
saving services.
[2] HCPP: The Cryptography Based Secure EHR System
for Patient Confidentiality and Emergency Medical Care
is undoubtedly a major obstacle to the delivery of
electronic health records (EHR) records that are
considered to be highly efficient, less prone to errors,
and additionally accessible than standard paper
recording systems. Patients are unwilling to accept an
EHR system unless their protected health information
(PHI) containing highly confidential data is guaranteed
for proper use and disclosure, which cannot be easily
achieved without controlling the patient in his or her
PHI. However, caution should be exercised when dealing
with emergencies where a patient may not be able to
regain a controlled PHI in order to receive emergency
treatment. In this paper, we propose a secure EHR
system, HCPP (Patient Privacy Care Program), based on
cryptographic design and existing wireless network
infrastructure, to provide privacy protection to patients
under any circumstances while allowing timely PHI
detection for treatment. which saves lives. for
emergencies. Additionally, our HCPP system limits PHI
access to authorized physicians (not negligently), who
may not be tracked and accountable if the diagnosed PHI
is found to be inappropriate disclosure. Lastly, HCPP
uses wireless network access to support the
confidentiality / access of PHI, which is under a secure
and feasible EHR system.
[3] Search Cloud Computing Records Keyword Records
Your Health Recently, uploaded data has emerged as a
patient-centered model for exchanging health
information, which includes keeping all records in one
place, as a single person. cloud service provider. While
this is very helpful in managing and sharing patient
health information (PHI), there has been considerable
concern about whether these service providers can be
fully relied upon to manage a critical patient PHI. To
ensure patients' control over their privacy, data
encryption has been proposed as a promising solution.
However, important service functions such as keyword
search by many users are especially challenging with
encrypted data. Basically, user queries should be done in
a confidential manner that hides both keywords in the
queries and documents. More importantly, in order to
prevent unnecessary exposure of patients' PHI to
unlimited questioning power, each user's questionnaire
needs to be authorized and controlled in a
straightforward manner, which will be achieved with a
high level of systematic assessment. Available search
encryption functions cannot meet the above
requirements simultaneously.
In this paper, we create and address a keyword search
(APKS) encrypted on cloud computing sites. We present
a downtime and an encrypted search framework, in
which users derive the power of queries from trusted
local authorities based on their attributes, which are
very high in the user rating. We then propose two APKS
novel solutions based on the latest cryptographic
primitive encryption, hierarchical predicate (HPE)
encryption, one of which is highly efficient and the other
encrypted. In addition to the privacy of the text and the
privacy of the queries, other notable features of our
programs include: multi-sided keyword support that
works, with a variety of simple queries, allowing for the
submission and acquisition of search capabilities. We use
our system in a modern work environment, and test
results show its suitability for practical use.
[4] Eliver Control Encryption: Ensuring the Privacy of
Electronic Medical Records. We argue that security in
such systems should be exercised by encryption and
access control. In addition, we oppose systems that allow
patients to generate and store encryption keys, so that
patient privacy is protected in the event that the host
data center is compromised. A common argument
against such a method is that encryption would interfere
with system performance. However, it does show that
we can create an effective system that allows patients to
share partial access rights with others, and to conduct
searches through their records. We have officially
implemented the requirements of the Patient-Managed
Encryption System, and provided a few presentations,
based on available hidden resources and agreements,
each receiving a different set of properties.
[5] Effective and Secure Sharing of Health Records in
Cloud Computing using Quality-Based Encryption.
A personal health record is kept in one place for the
keeping of personal information and patient diagnosis.
The health record is a growing model that focuses on
patient exchange of health information, which is often
released to be stored on an external company, such as
cloud providers. However, there have been widespread
privacy concerns as personal health information may be
disclosed to those third-party servers and to
unauthorized persons. Security schemes are used to
protect data from public access. Ensuring patient control
of access to their information, is a promising way to
encrypt before removing Servers. However, problems
such as risks of privacy disclosure, downtime in critical
management, flexible access and effective user
withdrawal, remain the most important challenge in
achieving well-designed, privately enforced data access
control. In order to obtain well-analyzed and measurable
data access controls, we use attribute-based (ABE)
encryption techniques to encrypt each patient's file. The
data owner updates personal data into third-party cloud

data centers. Many data owners can access the same data
values. It differs from previous functions in secure data
extraction, focuses on the status of multiple data holders,
and separates users from a system with multiple security
domains that significantly reduce the administrative
complexity that is important for owners and users. A
high level of patient privacy is guaranteed at the same
time with strong ABE. Our system also enables flexible
modification of accessibility policies or file attributes,
support for user extensions / active identifiers and glass
access under emergencies.
4. DISCUSSION
In our paper, here we have created a cloud-based app to
load that data in an efficient way to tackle the health
recording system. Cloud provides us with a flexible
feature, using a computer cloud is essential in helping
businesses and individuals identify and deliver the
promise of digital change.
Using HTML, cascade, and java script I created my own
interactive app. and we can use the loping feature in
HTML because we can use long slide code or any module
we have to repeat. MySQL provides data storage on the
website.
The final user flow of my model cover i.e., user /
customer. Here the owner can upload the files in
encrypted format and they will be deleted from
encrypted users.
Figure: 1.1 Performance Model
Data will flow as the owner begins to upload the file to
the cloud in encrypted format where authorization
questions will be collected. Later that data will be
provided to hospitals, Cell Phones.
5. Conclusion
In this paper, we explore the problem of encrypting
multiple choice questions in the cloud-based PHR
environment. Unlike previous functions, our MEIM
proposed method allows a certified data holder to access
secure, relevant, and effective query data for multiple
data providers. To address the practical question, we
introduced MDBT as a data framework. To reduce the
productivity question of the data owner, and allow the
cloud server to ask securely, we recommend a novel
symmetric encryption system for mass storage (MOPSE).
To make our model more efficient, we propose a very
sophisticated symmetric encryption system (MOPSE +)
to satisfy a statistically valid question. In addition, we
use strong security evidence to prove that our systems
are secure. Finally, we demonstrate that the MEIM
method works best on a computer by using our schemes
and operating on virtual storage.
Although our work only focuses on Encrypting and
clearing data system encryption, it can be expanded by
looking at various scenarios, mobile data collection,
recommendation system, and so on. However, devices,
such as cell phones, have limited memory and memory
function. In all of this, we will discuss low-cost schemes
in our future work.
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