Skip to content
View mehmetniyazikayi's full-sized avatar

Block or report mehmetniyazikayi

Block user

Prevent this user from interacting with your repositories and sending you notifications. Learn more about blocking users.

You must be logged in to block users.

Maximum 250 characters. Please don’t include any personal information such as legal names or email addresses. Markdown is supported. This note will only be visible to you.
Report abuse

Contact GitHub support about this user’s behavior. Learn more about reporting abuse.

Report abuse
mehmetniyazikayi/README.md

Mehmet Niyazi Kayi

Quantum Computing Researcher @ GWDG • M.Sc. Physics (Computational & Theoretical) @ Göttingen

EmailGitHubLinkedInQuantBrain


                                                                __
                                                               / _)
                                                        .-^^^-/ /
                                                     __/       /
                                                    <__.|_|-|_|

About

I’m a physics M.Sc. student focused on quantum algorithms + HPC, currently working at GWDG (Göttingen).

  • Research: QAOA/VQE, QPE, QML, quantum simulation & benchmarking
  • HPC workflows: Docker/Singularity containers for quantum simulators
  • Teaching: workshops + tutorials (ISC25, NHR QML tutorial, GWDG Academy, University of Göttingen)

Highlights

  • Built & maintained container stacks for quantum simulators on HPC systems
  • Developed QC use-cases: QAOA (JSSP, MaxCut), QPE (Hydrogen molecule), QML (qNN / kNN - QNN), many more coming :)
  • Poster + tutorial delivery at ISC25 on QC/HPC benchmarking and quantum optimization

                                                                                                       
                                            #****                                                      
                                          #*******                                                     
                                         ***#.  -:                                                     
                                        @***                                                           
                                        ***@                @                                          
                                        ***                 @                                          
                       .                ***                 @                                     :    
                       :                #**@                @                                     :    
                       -                 ***                @                                    -     
                       -                 +***               @                 -**                -     
                       .-                 #***              @               %*-*                 -     
                        -                  ****#*.:+%****:..@            %***#%*#               -      
                        =                   =***************@***+++ -+=+***#*#**+*              =      
                         =                   #%*************@*********************+             =      
                         =                 +#%**************@************#**#****#             =.      
                         =.               %**#*%******#*****@*************#**#    .-           =       
                          +               #**#*@************@****************                 --       
                          +               ****#*************@**************%%                 +        
                          .+              ***#**************@******#**%#****                 =+        
                           *             +*****#******#-.-=*@@%%******#%****                 *         
                           :#          #****=   *****=###*: @  #@@@%+  %****%               =#         
                            #=        **       ****@##=     @  ***+###. *****               #          
                             #       :**      #**@##        @ .**#   +##: ****             #+          
                             %%      **       *@@%          @ #**      *%% #***           %%           
                              @@    ***      @@@**          @ **.        #@@****         %@            
                               @@:  -*    :@@@   **#*       @ +*#*         #@@%**#=     @@             
                                @@@#   *%@@@.     #**.      @  ..            @@@@@@  +@@@              
                                 .@@@@@@@%                  @                  *@@@@@@@%               
                                    :::                     @                     .::                  
                                                            @                                          
                                                            @                                          
                                                            =                                          

Popular repositories Loading

  1. DAOS-io500-Benchmarking DAOS-io500-Benchmarking Public

    High-performance IO500 benchmarking of DAOS with kernel-bypass NVMe and InfiniBand RDMA. Includes configuration, deployment workflow, scalability analysis, and performance results across 10–20 node…

    Python 1

  2. mehmetniyazikayi.github.io mehmetniyazikayi.github.io Public

    My personal website and portfolio; sharing projects, tutorials, and research notes on Quantum Computing, HPC, and AI.

    HTML

  3. QAOA QAOA Public

    The Quantum Approximate Optimization Algorithm (QAOA) is a hybrid quantum–classical variational algorithm designed to solve combinatorial optimization problems that can be written as Quadratic Unco…

    Jupyter Notebook

  4. mehmetniyazikayi mehmetniyazikayi Public

    Hi, it's MeNiKa!

  5. QML QML Public

    Quantum Machine Learning (QML) is a hybrid quantum–classical approach for learning tasks such as classification and regression, where classical data is encoded into quantum states via feature maps …