Presents a lightweight mobile queue-management architecture that integrates virtual ticketing, real-time Firestore synchronisation, branch-isolated queues, active-counter-aware waiting-time estimation and proximity-based notifications within a single Android application. Its most distinctive element is the adjustment of expected queue throughput according to the number of active service counters, offering a low-infrastructure solution suitable for regional service branches
Optical Performance Analysis and Thickness Optimization of a MAPbI₃-Based Two-Terminal Perovskite Tandem Solar Cell Using FDTD Simulation
The main contributions of this paper are: (i) A compact two terminal MAPbI3-based tandem optical model, (ii) incorporating wavelength dependent optical constants for ITO, MAPbI3, TiO2, Spiro-OMeTAD, Ag, and Al, (iii) analyzing the thickness dependent absorption, reflection, transmission, and photogeneration, and (iv) identifying a practical absorber thickness window near 0.5-0.6 µm for balanced tandem optical operation.
An Explainable Deep Learning Framework with Multi-Scale Backbones for 9-Class Gallbladder Pathology Identification in Ultrasound Scans
Autonomous Full-Frame Pipeline: Evaluates multi-class gallbladder disease identification directly on uncropped, full-frame ultrasound scans, removing the manual seed-point bottleneck of Active Contour Segmentation (ACS).
Luminance-Preserving Contrast Enhancement: Applies CLAHE strictly to the luminance ($L^*$) channel in the CIE $L^*a^*b^*$ color space, enhancing mucosal margins and posterior shadowing without introducing chrominance distortion.
Comprehensive Architecture Benchmark: Evaluates ResNet-50, EfficientNet-B0, and MobileNetV3-Large across a 13,872-scan cohort using inverse-frequency class-weighted cross-entropy loss and a two-stage transfer learning protocol. High-Stakes Diagnostic Reliability: Achieves a 100% true positive rate (1.00 recall, 1.00 precision, and 1.000 ROC-AUC) across six acute conditions (gallstones, normal scans, acute cholecystitis, gangrenous cholecystitis, perforation, and polyps). Radiological Dilemma Mapping: Characterizes diagnostic ambiguity as strictly confined to the adenomyomatosis–carcinoma–wall thickening triad, directly mirroring clinical challenges in abdominal radiology. Ultra-Fast Edge Viability: Demonstrates real-time POCUS bedside triage potential via MobileNetV3-Large, yielding an 83.60% macro F1-score with only 3.47M parameters and a 6.00 ms GPU latency ($>$160 frames per second). Transparent Saliency Verification: Validates decision pathways using Grad-CAM heatmaps, confirming network reliance on genuine sonographic biomarkers rather than machine telemetry or peripheral calipers.
Recurrent Graph Reinforcement Learning Framework for Task Offloading in Internet of Vehicles
The rapid growth of the Internet of Vehicles (IoV) has increased the demand for low-latency, real-time, and priority-aware applications recently. Current Mobile Edge Computing (MEC) enabled vehicular architecture often fails to address these challenges effectively, which leads to lower quality of service. In this paper, we propose a joint mobility-aware task offloading and priority-based resource allocation framework for MEC-enabled IoV. We formulate a priority-aware multiobjective optimization problem to minimize latency and energy consumption of the offloaded task, which is a mixed-integer nonlinear problem (MINLP) and NP-Hard to solve. In this regard, we develop a Recurrent Graph Reinforcement Learning (RGRL) framework integrated with a Graph Neural Network (GNN). The GNN captures the spatio-temporal relationships among vehicles, Roadside Units (RSU), and edge servers, enabling intelligent and adaptive decision-making in dynamic environments. Simulation results demonstrate that the proposed RGRL-GNN approach outperforms state-of-the-art works in terms of latency reduction, energy efficiency, and successful task completion rate.
Automated Difficulty and Algorithmic Tag Prediction for Competitive Programming Problems Using Natural Language Processing
This research proposes a lightweight NLP-based framework for automatically predicting the difficulty rating and algorithmic tags of competitive programming problems. The system combines TF-IDF text features with Random Forest Regression for difficulty prediction and One-vs-Rest Logistic Regression for multi-label tag prediction. The models are evaluated on unseen Codeforces problems, showing that traditional NLP and machine learning techniques can provide useful support for problem analysis, practice selection, and educational recommendation systems.
An Intelligent Railway Level Crossing System with Multi-Zone Train Monitoring and Predictive Safety
The research proposes an intelligent railroad level crossing system based on Multi-zone sensors which integrates sensor self-testing, train speed and ETA(Estimated Time of Arrival) estimation, sensor sequence validation, automatic gate control and dual-condition safe exit verification in one framework. The system is meant to improve the safety and reliability of railroad crossings by reducing sensor-related faults and preventing unnecessary gate waiting.
NOTEBRIDGE: A Framework for Real-Time Multimodal Lecture Note-Taking with Evolving Knowledge State
NOTEBRIDGE is a 9-layer real-time multimodal lecture note-taking framework that addresses critical gaps in existing AI educational tools. Unlike systems producing flat transcripts, NOTEBRIDGE maintains an evolving topic-aware knowledge state with hierarchical tracking (supporting suspension, resumption, and merge), grounds claims within authorized curriculum resources via FAISS retrieval, and verifies assertions through a non-mutating verification protocol (F1=0.76). Evaluated on 80 lectures across 5 domains in English and Bangla, it achieves ROUGE-L F1=0.82 and Topic Boundary F1=0.85. Ablation study demonstrates incremental improvement from ASR-only (0.38) to full system (0.81). The framework integrates real-time streaming, privacy-preserving ephemeral processing, and bilingual support for educational note-taking.
ValeLink: Design, Development, and Evaluation of a Digital Property Management Platform for Fiji’s Residential Rental Sector
The research illustrates how digital technologies can modernize rental management and improve service delivery in small island developing countries that are still evolving. The research is also of interest in that it adds to the growing literature on PropTech adoption and provides a case of its implementation and evaluation in Fiji. The results also demonstrate that in order to achieve digital transformation in the residential rentals industry it is important not only to have the technological capabilities, but also to meet local regulatory, cultural and operational requirements.
JEPA-TTA -Test-Time Adaptation via Latent Prediction for Domain-Shifted Medical Images
Contributions
The main contributions of this study are as follows:
• We propose JEPA-TTA, a single-image test-time adap-
tation framework that introduces latent-space predictive
learning as an adaptation objective for cross-domain
medical image classification.
• We develop a masked-view adaptation mechanism that
combines latent predictive consistency with entropy reg-
ularization, while restricting parameter updates to the
predictor and LayerNorm affine parameters.
• We systematically evaluate the proposed framework
against Source-Only, AdaBN, TENT, SHOT, and MEMO
under a CheXpert-to-COVID-19 Radiography Database
domain shift.
• We conduct component-level ablation experiments to
investigate the contributions of JEPA pretraining, en-
tropy regularization, restricted parameter updating, and
the number of target views.
• We analyze both discriminative performance and feature-
space representations to characterize the behavior of
JEPA-TTA under the evaluated domain shift.
Solar Power Prediction in Coastal Zones of Bangladesh: A Hybrid Empirical-Machine Learning Approach for the Teknaf 20 MW Solar Power Plant
This study reports a relative assessment of single machine learning, ensemble, and hybrid deep learning methods for multi-step solar radiation and power forecasting tailored to the coastal climate of Bangladesh. Astronomical solar geometry, empirical global solar radiation regression models (Angstrom-Prescott, Akinoglu and Ecevit, Ampratwum and Dorvlo, and Newland), and five core algorithms (XGBoost, Random Forest, ANN, LSTM, and SVR) are applied to the Teknaf 20 MW solar power plant in Cox’s Bazar, Bangladesh. The models predict daily and multi-step power generation using meteorological and engineered features obtained through feature selection. The empirical regression formulations successfully capture seasonal variations with high correlation coefficients (r>0.98). Among the appraised models, Random Forest Regression demonstrates the superior performance (R2 = 0.9910, RMSE = 0.1898 MW, MAPE = 4.70%, Accuracy = 95.30%), closely followed by XGBoost and SVR. These tree-ensemble and kernel-based methods provide accuracy comparable to or exceeding complex deep learning models at a low computational cost, making them highly suitable for solar power planning and grid management in tropical and monsoon regions.
An Android-Assisted Accurate Transfer Learning Framework for Alzheimer’s Disease Diagnosis
Alzheimer’s disease is a progressive and devastating neurodegenerative disease caused by the shrinkage of brain tissues, which leads to memory loss, cognitive decline, and other symptoms, and its diagnosis needs magnetic resonance imaging scans of the brain. This incurable disease can be deadly if proper treatment and lifestyle are not followed. Early and accurate diagnosis of this disease is crucial, but its magnetic resonance imaging-based traditional diagnosis is cumbersome and costly. Efficient automated diagnosis is highly required for modernizing the treatment and management of this disease. This study aims to develop an Android application based on the transfer learning approach, where the performance of EfficientNet-B3 and VGG16 were evaluated to select a effective model for accurately diagnosing four stages of Alzheimer’s disease, such as non-demented, very mild demented, mild demented, and moderate demented. The both models were utilized with a dataset of 12800 magnetic resonance imaging images through the transfer learning approach, where the EfficientNet-B3 outperformed VGG16 model and achieved 97.14% accuracy, which indicated its efficiency in diagnosing Alzheimer’s disease. After several evaluations, the EfficientNet-B3 model was integrated with an Android application for making Alzheimer’s disease diagnosis easier and cheaper than the traditional approach. Besides diagnosis, it has several features for enhancing the quality of life of patients with Alzheimer’s disease.
Electromagnetic Transient Modeling and Simulation of Inverter-Based Black Start: A Comprehensive Review of Grid-Forming Control, Current Limiting, and System Restoration Dynamics
Abstract—The accelerating integration of inverter-based re
sources (IBRs)—including battery energy storage systems
(BESS), photovoltaics (PV), and variable-speed wind turbines—
into modern power systems has created a compelling impetus
to re-examine conventional black-start and system restoration
paradigms. Traditional black-start capability has been exclusively
provided by synchronous generator-based power plants, whose
inherent short-circuit current capacity (6–8 p.u.), electromagnetic
inertia, and well-characterised electromechanical dynamics facil
itated robust sequential network energisation. IBRs, by contrast,
present sharply limited overcurrent capability (typically 1.1
1.5 p.u.), possess no physical inertia, and require advanced grid
forming (GFM) control architectures to autonomously establish
and sustain terminal voltage on a de-energised network. This
paper provides a systematic and critical review of electro
magnetic transient (EMT) modelling frameworks, simulation
methodologies, mathematical control formulations, and transient
phenomena pertinent to IBR-driven black start. Key topics
include droop-based GFM control with integrated negative
sequence voltage compensation, phase-by-phase current limiting
in the abc frame, transformer inrush mitigation via voltage-ramp
soft-start, induction motor starting dynamics under constrained
IBR current, collective parallel GFM operation without leader
follower communication, GFL DER cooperative restoration, and
VSC-HVDC black-start control modes.
Index Terms—Black start, electromagnetic transient (EMT)
simulation, grid-forming (GFM) inverter, inverter-based re
sources (IBR), negative-sequence control, phase current limiter,
droop control, VSC-HVDC, transformer inrush, induction motor
starting, system restoration, microgrid.
An Explainable AI-Driven Deep Adaptive Learning Framework for Breast Cancer Classification Using Histopathology Images
A unified pipeline benchmarking three CNN backbones
under Plain and Transfer Learning regimes on BreakHis,
identifying fine-tuned DenseNet121 as the most accurate
configuration.
• Grad-CAM explainability integrated on the best model,
enabling inspection of the tissue regions driving each
prediction.
• An Adaptive Learning Engine that updates the deployed
model incrementally using a replay buffer and a safetyrollback check, avoiding both full retraining and catastrophic forgetting.
• An end-to-end incremental-update case study demonstrating the engine, including its versioning and audit-logging
mechanism, and a comparison against ex
Toward Privacy-Preserving Federated Brain Tumor MRI Classification: A Hybrid CNN – Transformer Framework and Preliminary Evaluation
The main contributions of this study are summarized as
follows:
• Hybrid CNN–Transformer Framework: We propose
HybridNeuro, integrating ResNet50, CBAM, and Trans-
former encoder blocks for four-class brain tumor MRI
classification, with a design intended for federated de-
ployment.
• Privacy-Preserving FL Formulation: We formulate an
FL framework incorporating client-side DP-SGD, keep-
ing MRI data local and providing a basis for subsequent
privacy–utility analysis.
• Preliminary Evaluation and Failure Analysis: We
establish a centralized baseline and analyse class-wise
performance, prediction confidence, and model decision
behaviour using confusion matrices and XAI, with the
findings informing class weighting and stratified parti-
tioning for the planned FL+DP evaluation.
An IoT-Enabled Smart Cold Storage System for Real-Time Environmental Monitoring and Automated Control of Perishable Commodities
The study develops and experimentally validates a low-cost IoT cold storage system that integrates multi-parameter sensing, automated environmental control, spoilage-gas detection, and local/cloud-based alerts. The prototype maintains temperature within ±1°C of the 4°C setpoint, achieves 93% humidity-range compliance, and provides an average 2.8-second alert response, demonstrating its practical potential for resource-constrained cold storage facilities.
Noise-Aware Magnetic-Valve-Based Voltage Transformer Design for Reliable Voltage Measurement
Voltage transformers are essential components in power systems, as they are used to measure voltage for monitoring, control, and protection. However, traditional electromagnetic voltage transformers often suffer from core saturation, especially under high voltage or fault conditions, which leads to inaccurate measurements and limits their operating range. Magnetic-valve-based voltage transformers (MVPTs) offer an improved solution by introducing a controlled flux leakage mechanism using a non-uniform core structure.
In this study, a detailed magnetostatic analysis of a magnetic-valve-based voltage transformer is presented, focusing on how magnetic flux is redistributed in the presence of a partial air gap during saturation. The working principle is explained using fundamental electromagnetic concepts, and analytical expressions are used to describe the behavior of leakage flux with respect to valve geometry.
In addition to saturation effects, practical challenges such as sensor noise and environmental variations, including temperature changes and electromagnetic interference, are also considered. These factors can affect the accuracy of the measurement and the effectiveness of the compensation process. To address this, a noise-aware compensation model is introduced to improve system reliability.
Furthermore, key design parameters such as air-gap length and valve height ratio are analyzed to enhance the linear measurement range and reduce voltage error. The results show that the proposed approach not only improves measurement accuracy but also provides stable performance under non-ideal operating conditions. Overall, this work offers practical design insights for developing robust and reliable voltage transformers for modern power systems.
Association Rule Mining in Picture Fuzzy Data Mining
In the light of picture fuzzy set, the Apriori algorithm and Frequent Pattern growth algorithm have been used to generate the picture fuzzy rules and FP Tree and applied in market basket analysis with illustrations.
SINDUK: EMPOWERING SENIOR CITIZENS THROUGH MOBILE TECHNOLOGY IN A RAPIDLY DIGITIZING WORLD
This study’s primary contribution is the design and empirical evaluation of SINDUK, an integrated mobile application for Bangladeshi senior citizens. Unlike existing single-purpose elder-care apps, SINDUK bridges the digital divide by uniquely combining centralized medical records, one-touch emergency security, social connectivity, and personal-legacy archiving into a single, family-inclusive platform grounded in the UTAUT2 model and gerontechnology theory.
TEST DELETE – security audit dummy PDF
Dummy one-page PDF uploaded only to test whether file submit works. Please delete.
Picture Fuzzy Controller with Artificial Intelligent
Decision making of Two-Inputs Single-Output(TISO) type problem with picture fuzzy logic controller system which is an artificial Intelligent framework.
Picture Fuzzy Inference with Artificial Intelligent
Decision making of Single-Input Single-Output(SISO) type problem with picture fuzzy logic inference system which is an artificial Intelligent framework.
Evaluating YOLOv8 and YOLOv11 photovoltaic panels detection performance in large scale solar power plants
The principal contributions of this work can be summarized as follows:
-An analysis of frequently used YOLO architectures (v8 and v11) for the detection of photovoltaic (PV) panels, comparing precision and computational performance. Considering large and small parameters implementation for each of the YOLO versions.
-Creating a mixed dataset combining single-frame and orthomosaic images. Two different UAV systems and two geographic locations were chosen for providing variability to the image dataset.
-Adding transformations to the images captured by the UAV system for extending the variability of the dataset.
Energy management in small and medium sized hotels on Mauritius Island
This paper sumarises several case studies on an energy audit in small and medium hotels in the island of Mauritius
Road Sign Detection Using YOLO’s Latest Releases: An Evaluation Study of v8, v10, and v11
This paper presents a
comparative analysis of three recent YOLO variants—YOLOv8,
YOLOv10, and YOLOv11—evaluated on a traffic sign detection
task under variable real-world visual conditions. The nano
variant of each model was evaluated in terms of precision, recall,
mean average precision (mAP), training efficiency, F1-confidence,
and runtime speed. This study offers practical insights for
deploying object detection models in intelligent transportation systems, aiming to balance real-time performance with detection accuracy. The results indicated that YOLOv8 achieved the highest mAP (0.92), followed by YOLOv11 (0.908) and YOLOv10 (0.873). In terms of runtime performance, YOLOv8 and YOLOv11 demonstrated comparable speeds on the test data, whereas YOLOv10 required more time to complete the inference process
Modelling Moisture Recycling in the Sudd Wetland Using WAM-2layers for Sustainable Water Resource Management and Climate Resilience
This research provides the first detailed quantification of atmospheric moisture recycling in the Sudd Wetland, a globally significant yet understudied hydrological system. By integrating ERA5 reanalysis with the WAM-2layers model, it reveals the wetland’s substantial role in sustaining regional precipitation and its vulnerability to climate and land-use changes. The methodology offers a transferable framework for assessing land-atmosphere feedbacks in data-scarce regions, directly supporting sustainable water management, climate resilience planning, and transboundary governance in the Nile Basin and beyond.
Ecofiji Explorer: An App to Promote Eco-Tourism and Local Culture Through Digitalization
The paper contributes both theoretically (by linking ICT with sustainable tourism in a Pacific Island context) and practically (by developing and testing a real app prototype that empowers local communities and promotes eco-tourism).
Bula Patrol: A Comprehensive Monitoring System for Addressing Taxi Driver Vulnerabilities in Fiji
The research clearly presents the critical issues faced by taxi drivers in Fiji, outlines the proposed solution (the Smart Taxi Monitoring System), and highlights the potential benefits of implementing this system. It succinctly conveys the urgency of the problem and the innovative approach taken to address it, making it relevant to stakeholders in transportation safety, technology, and public policy.
Additionally, the emphasis on real-time monitoring and predictive analytics demonstrates a forward-thinking solution that aligns with current trends in technology and safety management. This combination of practical implications and technological advancement makes the content suitable for a broader audience interested in industry improvements and public safety.
An AI-Enabled Centralized Monitoring System to Predict SME Inventory Level
I. To utilize the historical data, and predict market needs in a dynamic environment to maintain inventory level. (To develop a data-driven inventory management system)
II. To observe, track, and learn about product movement by implementing an AI-powered system. (To implement an AI-powered product movement tracking system).
III. To optimize the accuracy of prediction for market demand forecasting. (To improve and refine the prediction model).
Deployment of AI Models and a TDA Mapper Algorithm to Enhance Clinical Decision-Making
This research presents a novel Clinical Decision Support System (CDSS) that integrates advanced AI technologies, including a hybrid model for COVID-19 diagnosis and a custom GPT Assistant, into a scalable, real-world tool for resource-limited healthcare settings. The CDSS enhances the quality of care by providing accurate, timely diagnostics and decision support, while also improving response efficiency through real-time monitoring and predictive analytics. The system’s adaptability, supported by open-source platforms like R Shiny, and its potential for wide adoption, particularly after a planned pilot and impact evaluation, highlight its significance in advancing healthcare delivery where resources are scarce. The deployment of this AI-driven CDSS has the potential to transform clinical decision-making, improve healthcare delivery, and enhance the overall response to public health emergencies. The structured pilot and impact evaluation will provide critical insights into the system’s effectiveness in real-world settings, paving the way for broader adoption and sustained improvements in healthcare quality and efficiency.
Topological Machine Learning: Integrating Topological Data Analysis with Machine Learning to Enhance Breast Cancer Classification
Novel TML Approach: Introduces Topological Machine Learning (TML), integrating Topological Data Analysis (TDA) with Machine Learning (ML) to enhance breast cancer classification.
Improved Accuracy: Demonstrates that TML significantly improves classification accuracy on the Wisconsin Breast Cancer (WBCD) dataset compared to traditional methods and standalone ML techniques.
Feature Evaluation: Provides a detailed assessment of topological features such as cluster means, node features, and link features, highlighting their impact on model performance.
Practical Insights: Offers valuable insights into the integration of topological features for better diagnostic accuracy, with implications for improving breast cancer classification and patient outcomes.
Is Benford’s Law Based Detectors Effective for GAI Generated Images?
Benford’s Law is used in image forensics. We tested GAI generated images to see whether BL is able to detect artificially generated images. The experiments show that only about 60\% of the images can be detected using a simple similarity threshold.
ActJOLO: Action Recognition Guided by Actionlets Using Joint Lightweight Optical Flow Information
In this study, we propose a novel method, named ActJOLO, which builds upon the existing JOLO model by incorporating an advanced self-supervised learning technique as an upstream guide for posture recognition. Our approach emphasizes the analysis of high-intensity motion features within the human body, thereby enhancing the efficiency of action modeling.
Experimental results on the NTU RGB+D dataset demonstrate that our framework improves processing speed compared to the original model, while maintaining high ccuracy. This work offers a new perspective on skeleton-based human action recognition and highlights its potential for deployment on low-performance processors.
Retrofitting Legacy CNC Machines with a Focus on Energy Consumption
We are outlining the detailed process of retrofitting a legacy CNC machine to add connectivity and integrate it into the Industry 4.0 framework. This work offers significant benefits, especially for small and medium-sized companies. The outcome has the potential to enhance sustainability in industrial processes by focusing on the machine’s energy consumption.
A Digital Twin Framework in Manufacturing Systems with a Focus on Energy Consumption
We have developed a framework for integrating digital twins into older CNC machines, focusing on monitoring their electrical energy consumption. The digital twin’s virtual component utilizes discrete event simulation software in a digital manufacturing environment. Our goal with this proposal is to promote greater sustainability in manufacturing systems.
Spatial Characteristics of CA: A Narrative into San Francisco
This study delves into the spatial characteristics of housing prices within California, with a specific focus on San Francisco. We explore various models to predict housing prices based on different feature sets, including coordinate and non-coordinate attributes. Through extensive analysis, we find that incorporating geographic coordinates significantly enhances the predictive accuracy of housing prices. Utilizing a neural network model, we achieve nearly 100% accuracy in predicting the quartile of median housing prices, underscoring the complexity and influence of location-specific features. Finally, we utilized i-SLFN algorithm for developing a precise price prediction model and describing communities characteristics.
An Interpretable Transformer-Based Approach to Classify Malaria From Blood Cell Images
Malaria is a disease that can be fatal, and it is spread through the bite of the female Anopheles mosquito. The life of the sufferer is put in jeopardy as a result of the presence of numerous plasmodium parasites, which spread throughout their blood cells. Malaria can potentially be fatal if it is not treated within the first few stages of the disease. A well-known method for diagnosing malaria, microscopy involves taking blood samples from the patient, calculating the number of parasites, and counting the victim’s red blood cells. Nevertheless, the procedure of microscopy takes a lot of time, and, in certain circumstances, it can produce an incorrect result. When compared to the more conventional approach of microscopic examination, the recent successes of deep learning (DL) in the field of medical diagnosis make it quite conceivable to reduce the expenses associated with the diagnosis while simultaneously improving overall detection accuracy. This study proposes a transformer-based DL technique for diagnosing the malaria parasite using blood cell images. An explainable AI technique called Grad-CAM was applied in order to determine which aspects of an image the proposed model paid significantly more attention to in comparison to the other aspects of the image through saliency mapping. This was done in order to demonstrate the usefulness of the models. According to the findings of this research, the performance of the vision transformer and the VGG16 are identical. Both models have reached an accuracy score of approximately 96%, which is very impressive.
Converting Remote Islanded Communities into a 100% Renewable Energy Based Grid Incorporating Solar Photovoltaic and Battery Energy Storage
Requirement for 100% energy from renewable resources in remote power systems with high levels of irradiation resource available. Also, not totally reliant on variable renewable energy sources alone for all energy supply.
Steganalysis For Still Images With LSB Steganography Using Machine Learning Algorithms
This paper investigated the application of machine learning for steganalysis using a feature-based dataset extracted from still images with the Least Significant Bit (LSB) steganography. We evaluated several models and found that Artificial Neural Networks (ANNs) achieve the highest classification accuracy within practical training times. The accuracy, however, is limited to 93% due to constraints within the dataset. To overcome this barrier, more comprehensive datasets and/or models should be examined in future.
A Mobile App for OpenStack-based Clouds
This is the first mobile application for managing large scale Cloud infrastructures based on the openStack technology. This underpins the national Cloud of Australia.
CMS: A Consortium Management Solution for Decentralized Identifier Resolution
In summary, To address the challenges present in the unified resolution process of existing DIDs, the primary contribution of this paper is the proposal of a consortium management scheme for DID universal resolvers, employing blockchain smart contracts and IPFS decentralized storage technologies. This approach aims to decentralize management and enhance the robustness and security of the resolution process.
An Effective Method for Classifying Japanese Honorific
Japanese Keigo known as honorific, is a way to reflect social status, intimacy, and the relationships among speakers, listeners, and other participants in a conversation. It is a very special and important language phenomenon that conveys respect and politeness based on the social status of the speaker and listener and their relationships. Unlike many other languages, Japanese has various forms of honorific expressions, and these honorific forms change depending on social group relations and occasion fields.
