Visual representation of ranks of algorithms with PM mutation. by Jalal- ud-Din (21474307)

Visual performance of each algorithm with PM mutation. by Jalal- ud-Din (21474307)

Visual performance of each algorithm with MPTM mutation. by Jalal- ud-Din (21474307)

Visual line representation of algorithm with MPTM mutation. by Jalal- ud-Din (21474307)

Visual performance of each algorithm with NUM mutation. by Jalal- ud-Din (21474307)

Visual representation of ranks of algorithms with MPTM mutation. by Jalal- ud-Din (21474307)

Visual representation of ranks of algorithms with NUM mutation. by Jalal- ud-Din (21474307)

Visual parametric framework for all fifteen algorithms. by Jalal- ud-Din (21474307)

A) Probability density of glucuronate-UDP as a function of three collective variables (CVs): the distance between the C6 atom of the sugar and the atom of Lys307, defined as <i>d</i>_<i>k</i>, and the two angles <i>γ</i> and <i>θ</i> describing the orientation of the sugar ring in a polar coordinate system. B) RMSD of the probability density with respect to the initial state, calculated after 1 ns of simulation. The density of states is complex, and stable populations are observed at the end of the simulation. C) Probability density of glucose-UDP. D) RMSD of the density of states calculated as in B). In this case, convergence is even clearer. The density functions were computed by including all replicas from the Hamiltonian replica exchange simulation, with weights determined using the WHAM algorithm. by Davide Luciano (22822210)

“…In this case, convergence is even clearer. The density functions were computed by including all replicas from the Hamiltonian replica exchange simulation, with weights determined using the WHAM algorithm.…”

Immune infiltration analysis by CIBERSORT algorithm. by Lanying Shen (22755930)

The GOR4 and SOPMA algorithm findings. by Ahmad Abdullah Mahdeen (19704401)

Immune infiltration analysis by CIBERSORT algorithm. by Lanying Shen (22755930)

Plot of coverage attenuation function. by Junjie He (700642)

“…Additionally, sensitivity analysis was conducted to explore the effect of different parameters on the maximum fire risk value that can be covered by a fire station. A compromise coordinated siting scheme with a hierarchy of fire stations can be obtained by solving the proposed model. …”

A comparison chart of the detection effect. by Wenyuan Xu (2553028)

Deconvolution challenges due to coherence and heterogeneity. by Nuray Sogunmez Erdogan (21533872)

WISpR spatial deconvolution workflow overview. by Nuray Sogunmez Erdogan (21533872)

Fuzzy weight. by Sultan H. Almotiri (14029251)

“…However, in the pursuit of complexity, vulnerabilities may be introduced inadvertently, posing a substantial danger to software security. Our study addresses five major components of the quantum method to overcome these challenges: lattice-based cryptography, fully homomorphic algorithms, quantum key distribution, quantum hash functions, and blind quantum algorithms. …”

Block diagram of lattice-based cryptography. by Sultan H. Almotiri (14029251)

“…However, in the pursuit of complexity, vulnerabilities may be introduced inadvertently, posing a substantial danger to software security. Our study addresses five major components of the quantum method to overcome these challenges: lattice-based cryptography, fully homomorphic algorithms, quantum key distribution, quantum hash functions, and blind quantum algorithms. …”

Weight of the quantum techniques. by Sultan H. Almotiri (14029251)

“…However, in the pursuit of complexity, vulnerabilities may be introduced inadvertently, posing a substantial danger to software security. Our study addresses five major components of the quantum method to overcome these challenges: lattice-based cryptography, fully homomorphic algorithms, quantum key distribution, quantum hash functions, and blind quantum algorithms. …”

Block description of homomorphic encryption. by Sultan H. Almotiri (14029251)

“…However, in the pursuit of complexity, vulnerabilities may be introduced inadvertently, posing a substantial danger to software security. Our study addresses five major components of the quantum method to overcome these challenges: lattice-based cryptography, fully homomorphic algorithms, quantum key distribution, quantum hash functions, and blind quantum algorithms. …”