Quantumn-Inspired Deepfake Detection : A Novel Approach Using
Image Decomposition, Lighting Analysis, and Counterfactual Quantum
                           Entanglement
                         A PROJECT REPORT
                               Submitted by
       Varsha Karthikeyan                              RA2211042020003
       Srivarshan S                                    RA2211042020015
       Roshini R                                       RA2211042020027
                          Under the guidance of
                             Sathya Priya S
                          Associate Professor
           Department of Computer Science and Engineering
            in partial fulfillment for the award of the degree of
               BACHELOR OF TECHNOLOGY
                                     in
             COMPUTER SCIENCE AND BUSINESS SYSTEM
     SRM INSTITUTE OF SCIENCE AND TECHNOLOGY
            RAMAPURAM, CHENNAI - 600089
                                 April 2025
                                          I
                      SRM INSTITUTE OF SCIENCE AND TECHNOLOGY
                          (Deemed to be University U/S 3 of UGC Act, 1956)
                                              BONAFIDE CERTIFICATE
Certified that this project report titled “Quantumn-Inspired Deepfake Detection : A Novel Approach Using Image
Decomposition, Lighting Analysis, and Counterfactual Quantum Entanglement” is the bonafide work of VARSHA
KARTHIKEYAN [REG NO: RA2211042020003], SRIVARSHAN S [REG NO: RA2211042020015], ROSHINI R
[REG NO: RA2211042020027] who carried out the project work under my supervision. Certified further, that to the best
of my knowledge the work reported herein does not form any other project report or dissertation on the basis of which a
degree or award was conferred on an occasion on this or any other candidate.
                SIGNATURE                                        SIGNATURE
                Sathya Priya S                                   Dr. USHA RUBY
                Associate Professor                              Associate Professor and Head
                Department of Computer Science                   Department of Computer Science and
                Engineering with specialization in Gaming        Business Systems,
                Technology,                                      SRM Institute of Science and Technology,
                SRM Institute of Science and Technology,         Ramapuram, Chennai-89.
                Ramapuram, Chennai-89.
 Submitted for the project viva-voce held on ___________at SRM Institute of Science and
 Technology,Ramapuram,Chennai -600089.
    INTERNAL EXAMINER I                                 INTERNAL EXAMINER II
                                                            II
       SRM INSTITUTE OF SCIENCE AND TECHNOLOGY,
                      RAMAPURAM, CHENNAI - 89
                               DECLARATION
We hereby declare that the entire work contained in this project report titled
“Quantumn-Inspired Deepfake Detection : A Novel Approach Using Image
Decomposition, Lighting Analysis, and Counterfactual Quantum Entanglement” has
been carried out by VARSHA KARTHIKEYAN [REG NO: RA2211042020003],
SRIVARSHAN      S[REG    NO:   RA2211042020015]    ROSHINI    R    [REG   NO:
RA2211042020027] at SRM Institute of Science and Technology, Ramapuram,
Chennai- 600089, under the guidance of          Sathya Priya S (Associate
Professor), Department of Computer Science and Engineering with
specialization in Gaming Technology.
     Place: Chennai                                Varsha Karthikeyan
     Date:
                                                    Srivarshan S
                                                     Roshini R
                                       III
                         ACKNOWLEDGEMENT
      We place on record our deep sense of gratitude to our lionized Chairman
Dr. R. SHIVAKUMAR, MBBS., MD., for providing us with the requisite
infrastructure throughout the course.
      We take the opportunity to extend our hearty and sincere thanks to our
Dean, Dr. M. SAKTHI GANESH., Ph.D., for maneuvering us into
accomplishing the project.
      We take the privilege to extend our hearty and sincere gratitude to the
Professor and Chairperson, Dr. K. RAJA, Ph.D., for his suggestions, support and
encouragement towards the completion of the project with perfection.
      We thank our honorable Head of the department Dr.Usha Ruby, Associate
Professor & Head, Department of Computer Science and Business Systems for her
constant motivation and unwavering support.
      We     express    our   hearty    and   sincere   thanks   to    our   guide
Dr. Sathya Priya S, Associate Professor, Department of Computer Science and
Engineering with specialization in Gaming Technology for her encouragement,
consecutive criticism and constant guidance throughout this project work.
      Our thanks to the teaching and non-teaching staff of the Department of
Computer Science and Engineering of SRM Institute of Science and Technology,
Chennai, for providing necessary resources for our project
                                        IV
                                      ABSTRACT
The rise of advanced, deepfake technology is a critical threat in several areas, including
security, media and education, especially by promoting misinformation, fraud and public
distrust in digital content. Existing methods for detecting DeepFake recognition have disrupted
restrictions on generalization, resistance to controversial attacks, and interpretability. This
research work, a new quantum-inspired recognition framework is introduced that comprises
new image degradation algorithms, high-level lighting analysis, and quantum-scale resolution
of theoretical paradoxes. The approach here employs multiroom wavelets and spectral analysis
for the detection of hidden artifacts and Lambertian reflectance properties and remote
photoplethysmography (RPPG) signals to detect mismatches between lighting conditions and
physiological responses. Counterfactual quantum compression allows for non-invasive
examination of image consistency through indirect observation. Quantum inspired machine
learning is used to improve distinctive extraction and classification. This multifaceted approach
aims to surpass traditional methods in terms of sensitivity, robustness and adaptability.
Theoretical benefits include resistance to evacuation tactics and deeper interpretability.
However, this framework provides the basis for future empirical testing of benchmark datasets
and progress in the direction of quantitative digital forensics.
                                                 V
                        TABLE OF CONTENTS
                                               Page. No
ABSTRACT                                           vi
LIST OF FIGURES                                    x
LIST OF TABLES                                    xi
LIST OF ACRONYMS AND ABBREVIATIONS                xii
1   INTRODUCTION                                   1
    1.1   Problem Statement                       12
    1.2   Aim of the Project                      13
    1.3   Project Domain                          13
    1.4   Scope of the Project                    13
    1.5   Methodology                             14
    1.6   Organization of the Report              14
2   LITERATURE REVIEW                             16
3   PROJECT DESCRIPTION                           19
    3.1   Existing System                         19
    3.2   Proposed System                         19
          3.2.1    Advantages                     19
    3.3   Feasibility Study                       20
          3.3.1    Economic Feasibility           20
                                          VI
           3.3.2    Technical Feasibility                      20
           3.3.3    Social Feasibility                         20
    3.4 System Specification                                   21
          3.4.1     Hardware Specification                     21
          3.4.2     Software Specification                     21
          3.4.3     Standards and Policies                     21
4   PROPOSED WORK                                              22
    4.1    General Architecture                                22
    4.2    Design Phase                                        22
           4.2.1    Data Flow Diagram                          23
           4.2.2    UML Diagram                                24
           4.2.3    Use Case Diagram                           25
           4.2.4    Sequence Diagram                           25
    4.3    Module Description                                  26
           4.3.1    Module 1: Image Processing                 26
           4.3.2    Module 2: Feature Extraction               26
           4.3.3    Module 3: Image to Sketch Synthesis        27
           4.3.4    Step 2: Processing of Data                 27
           4.3.5    Step 3: Split the Data                     28
           4.3.6    Dataset Sample                             28
           4.3.7    Step 4: Building the Model                 29
           4.3.8    Step 5: Compiling and Training the Model   30
5   IMPLEMENTATION AND TESTING                                 31
    5.1    Input and Output                                    31
           5.1.1    Input Media Acquisition                    31
           5.1.2    Lighting Consistency Feature Extraction    31
           5.1.3    Quantumn -Inspired Data Transformation
           5.1.4    Counterfactual Entanglement Output
           5.1.5    Deepfake Classification Results
                                             VII
    5.2      Testing                                         32
             5.2.1     Types of Testing                      32
             5.2.2     Unit testing                          32
             5.2.3     Integration testing                   34
             5.2.4     Functional testing                    35
             5.2.5     Test Result                           35
6   RESULTS AND DISCUSSIONS
     6.1     Efficiency of the Proposed System
     6.2     Comparison of Existing and Proposed System
7   CONCLUSION AND FUTURE ENHANCEMENTS
     7.1     Conclusion
     7.2     Future Enhancements
     7.3     Results
8   SOURCE CODE & POSTER PRESENTATION
     8.1     Sample Code                         39
References
                                                      VIII
                               LIST OF FIGURES
4.1     Architecture Diagram                     24
4.2.3   Use Case Diagram                         26
4.2.4   Sequence Diagram                         26
8       Sample Code                              40
                                     IX
            LIST OF TABLES
Table No.    Table Name             Page No.
4.1          General Architecture     16
4.2.3        Use Case Diagram         20
4.2.3        Sequence Diagram
                     X
       LIST OF ACRONYMS AND ABBREVIATIONS
DWT        DISCRETE WAVELET TRANSFORM
DCT        DISCRETE COSINE TRANSFORM
FFT        FOURIERE TRANSFORM
QPU        QUANTUMN PROCESSING UNIT
QUBO       QUDRATIC UNCONSTRAINED BINARY OPTIMIZA
                         XI