Brain Tumor Detection Based on Watershed Segmentation and Classification Using Deep Learning
Authors:- Shivam Tamrakar, Prof. Mahesh Prasad Parsai
Abstract- The computer-aided diagnostic-based that supports deep learning (DL) algorithms consists of several processing layers, which symbolize data with several stage of construct. In current years, the use of deep learning has increased speedily in almost all areas, especially in the field of medical imaging, medical image investigation or bioinformatics. Therefore, deep learning has effectively untouched or enhanced the methods of recognition, calculation or diagnosis in many medical and health areas such as pathology, brain tumors, lung cancer, stomach, heart or retina. Given wide application of deep learning, the purpose of this paper is to appraise the most important deep learning perception related to tumour analysis detection and classification In recent applications of pre-trained models, normally features are extracted from bottom layers which are different from natural images to medical image. To overcome this difficulty, in the proposed method GLCM feature and Resnet-50 techniques used for feature extraction and watershed based segmentation is used for brain tumour detection and its classification. A significant, practical deep learning model is proposed which uses back propagation neural network feature to predict brain stroke through CT/MRI scan images. The performance and accuracy of the proposed model is evaluated and compared with existing models and it produces high sensitivity, specificity, precision and accuracy.
Study of Factors Affecting to Behavioural Intention on Adopt Mobile Payment
Authors:- P.K.C. Adeesha Rathnasinghe
Abstract- This paper provides an analysis and evaluation of the factors that influence mobile payment adoption in Sri Lanka, as well as an examination of the customer-driven characteristics of mobile payment solutions and their associated value proposition. The convenience feature of mobile payment has replaced interactions with actual currency and shortened transaction times, which better satisfies the convenience needs of modern people. As mobile payments play a major part in mobile business, gaining an understanding of the characteristics that attract consumers to mobile payment will provide mobile businesses with additional chances for growth and substantially increase their output value. Based on the core theoretical framework of the Theory of Acceptance and Use of Technology, this study investigates how to further affect customer behavioural intention in Sri Lanka (UTAUT2). In this investigation, data analysis is conducted to validate the research model and hypotheses. Social influence, facilitating conditions, hedonic motivation, compatibility, innovation, relative benefit, complexity, performance expectations, and observability have been identified as dependent variables that influence customer desire to use mobile payment. One hundred eighty samples will be chosen using a random sampling technique for the investigation. Utilizing statistical analysis and regression analysis, the impact of these nine parameters on mobile payment adoption was confirmed. Perceived danger, perceived cost, perceived advantage, perceived ease of use, perceived usefulness, perceived behaviour, social influence, credibility, and compatibility have a major impact on mobile payment uptake, according to the results of a study.
Detection of Glaucoma by the Use of Convolutional Neural Network
Authors:- M.Tech. Scholar Pankaj Goud, Asst. Prof. Miss Priyanshu Dhameniya
Abstract- Glaucoma is a disease that affects human eyes and makes it difficult for people to see clearly. In recent years, the prevalence of this condition has increased significantly. The result of this illness is a permanent impairment of vision that cannot be reversed once it has taken place. In the past, the diagnosis of glaucoma was carried out with the assistance of a number of different deep learning (DL) algorithms. The results of our research on recognising glaucoma illness are presented in this journal. For the purpose of recognising the ailment, we used a deep learning model known as a Convolutional neural network (CNN). The convolutional neural network provides us with a distinct pattern for both eyes afflicted by glaucoma and eyes that are not impacted by glaucoma. This pattern may be used by us to diagnose glaucoma. When CNN is used, a hierarchical framework is provided for distinguishing between images of glaucoma-affected eyes and photographs of eyes that are not affected by glaucoma. This facilitates more accurate categorization. Using the method that we offer, it is possible to do a review in a total of six phases. The dropout mechanism is used in the study that is advised in order to improve the overall efficiency of the performance. This is done in the context of glaucoma disease detection. In order to carry out an analysis of the work that was intended, this study made use of the datasets provided by SCES and ORIGA. The values acquired for the ORIGA dataset come in at 92.3, while the SCES dataset has values that come in at 94.2.
Load Balancing in Cloud Computing Through Multiple Gateways
Authors:- Research Scholar Rani Danavath, Asst. Prof. Dr. V. B. Narsimha
Abstract- Cloud computing is a structured model that defines computing services, in which data as well as resources are retrieved from cloud service provider via internet through some well formed web-based tool and application. As the numbers of users are increasing on the cloud, the load balancing has become the challenge for the cloud provider. As most of the traffic is oriented towards the Internet and may not be distributed evenly among different IGWs, some IGWs may suffer from bottleneck problem. To solve the IGW bottleneck problem, we propose an efficient scheme to balance the load among different IGWs within a WMN Our proposed load-balancing scheme consists of two parts: a traffic load calculation module and a traffic load migration algorithm. The IGW can judge whether the congestion has occurred or will occur by using a linear smoothing forecasting method. When the IGW detects that the congestion has occurred or will occur, it will firstly select another available IGW that has the lightest traffic load as the secondary IGW and then inform some mesh routers (MPs) which have been selected by using the Knapsack Algorithm to change to the secondary IGW. The MPs can return to their primary IGW by using a regression algorithm.
Blockchain and Its Use in Financial World
Authors:- Lokesh Yadav
Abstract- A Blockchain Is Essentially A Digital Ledger That Is Replicated And Distributed Across A Networkof Computer Systems On The Blockchain. Each Block On The Chain Contains A Set Oftransactions, And Each Time A New Transaction Occurs On The Blockchain, A Record Of Thattransaction Is Added To Each Participant’s Ledger. A Distributed Database Managed By Multipleparticipants Is Called Distributed Ledger Technology (Dlt).
Control Strategy for Bidirectional AC-DC Interlinking Converter in AC-DC Hybrid Microgrid Using PV System
Authors:- Vikram Sirohi, Asst. Prof. Somya Agarwal, Dr. Raghavendra Patidar
Abstract- In this article, a single-stage bidirectional converter that is connected to the grid is suggested. This converter would have a power conversion stage and an unfolding circuit. The power conversion stage would be a two-way DC-DC converter. The goal of this research is to get the most energy out of photovoltaic (PV) energy systems as possible. When the temperature, the amount of sunlight, or the load changes, so does the maximum amount of power that the photovoltaic module can produce. The photovoltaic system uses a maximum power point tracker (MPPT) to keep getting the most power out of the solar panel and send it to the load. This is done so that the system is as efficient as possible. The Maximum Power Point Tracking (MPPT) system is made up of a controller and a DC-DC converter, which are its two main parts. The DC-DC converter is a piece of electronic equipment that changes the voltage of DC energy from one level to another. MPPT uses a tracking algorithm so that it can find the place with the most power and keep working there even when the weather changes. Many different algorithms for MPPT have been made and talked about in published research, but most of these methods have problems with how well they work, how precise they are, and how well they can be changed. Conventional controllers can’t give the best response because the PV module’s current-voltage characteristics don’t behave in a linear way and switching makes the DC-DC converter behave in a non-linear way. This is especially true when the line parameters and transients change in a lot of different ways. The goal of this work is to make a maximum power point tracker and then use it. This will be done by using fuzzy logic control algorithms. When fuzzy logic is used, it is natural that a good controller will be made for nonlinear applications. This method also uses techniques from artificial intelligence, which can make modeling nonlinear systems easier and offer other benefits. Simulink was used to build an MPPT system with solar modules, DC-DC converters, batteries, and fuzzy logic controllers, and to simulate it. This had to be done so that the job could be done well. Characterize the buck, boost, and buck-boost converters to find out which topology is best for the PV system being used. In MATLAB, a model of the PV module, the indicated converter, and the battery were all put together to get the experience needed to build and tune the fuzzy logic controller. The results of the simulation show what happens when the parameters are changed.
Energy Optimization of Underwater WSN by Wolf Based Clustering
Authors:- M.Tech. Scholar Kush Paliwal, Asst. Prof. Sumit Sharma
Abstract- Communication is basic need of any age, although medium and technique is different. In this era wireless communication is common and acceptance of this in various applications is also wide. Out of different field of WSN (Wireless Sensor Network), underwater is highly desirable as study of such area may give new material or learning. This paper has developed a model that works for underwater WSN optimization by clustering and routing. Clustering of nodes were done by Wolf optimization technique, algorithm is able to provide solution dynamic situation. Cluster nodes selection done on the basis of device energy, distance from the base station. Routing of packet is also done from the nodes by means of cluster centers. In order to reduce the load of cluster nodes, shuffling of nodes were done time to time. Experiment was done on different environment of underwater and varying number of nodes. Model was compared with existing technique of underwater WSN network optimization.
An Analytical Study Using Dynamic Analysis on Buildings With and Without Expansion Joints
Authors:- Ashutosh Dabral , Rashmi Sakalle
Abstract- Vibration is effectively dampened by expansion joints, which also serve to keep individual building components together while allowing for their natural movement in response to things like ground settlement and earthquakes. In addition to protecting against moisture and water damage, this facilitates the transportation of live cargo. Expansion joints may be used to completely separate many different construction components, including ceilings, floors, roofs, walls, and facades. Additionally, they may be set up wall to wall, ceiling to ceiling, roof to roof, or roof to wall. They’re versatile enough to do more than one thing at once. These connections separate a frame into individual segments with sufficient breadth to accommodate the building’s thermal expansion and contraction. This thesis presents an experimental software analysis on the expansion joint of a hospital building to find: Displacement, Bending moment, Shear force and Axial force. Two samples were designed on STAAD PRO and a comparative study was made to find the expansion joint design with better performance.
A Comprehensive and Novel Approach to Design of Carbon Reinforced Alloy Wheel with Material Selection
Authors:- Anurag Tiwari, Prof. G.R. Kesheorey
Abstract-Main objective is to selection of material, analyze the reason of failures of the rim. Mainly the cracks on the surface, bending due to impact loading. Vibration and the hold pressure of the tire can damage the rim. The damage such as rust, dents, etc. which results in increased vibration while running, loss of air pressure and even sometimes the complete structural failure. This can damage the rims which could result in failure of the Rim during running conditions. Changes can be made to a rim and visible damage could lead to greater damage which can’t be seen by naked eye, so a repaired rim will never be structurally sound as original rim. There are some more causes of failure, this project will discuss about these failures which can arise in rim. This project is all about the design, analysis and calculation of von-mises stresses and deflections with the help of CATIA and ANOVA method. The part which is under maximum stress as well as respective deformation value can be easily detected.
Mitigating Shear Failure of Flexurally Strengthened Reinforced Concrete Beams Using Carbon Fibre Reinforced Polymer
Authors:- Dr. Muhammad Ashiqur Rahman, Dr. A. B. M. Saiful Islam, Prof. Ir. Dr. Mohd Zamin Bin Jumaat
Abstract- Shear failure is sudden, brittle and catastrophic in nature, which starts without advance warning of any distress. Hence, ensuring shear failure will not happen in reinforced concrete (r.c.) beams must be given due consideration in design. Practically beams can be allowed to take more loads if they are flexurally strengthened. Premature shear failure will occur when the shear reinforcements present can no longer take the increased shear loads due to flexural strengthening. Hence, when a r.c. beam is flexurally strengthened, care must be taken to ensure it does not fail under premature shear. Eight beams were prepared and tested in this research. Technical Report -55 (TR-55) was used to design the carbon fibre reinforced polymer (CFRP) plate for flexural strengthening. According to TR-55, the design strain for flexural plate is 0.006 for preventing intermediate crack (IC) debonding. Experimental data showed that the flexural CFRP plate strain reached 0.0072 without IC debonding. The CFRP strips for shear strengthening were designed using ACI 440-2R, 2008 and fib TG 9.3 2001. The key parameter for designing shear was the effective strain of the CFRP shear strips. Experimentally, CFRP shear strips experienced strain about half of the designed value according to ACI 440-2R, 2008 and fib TG 9.3 2001. The internal stirrups and external CFRP shear strips had almost the same strain values before failure. Overall, the strengthened beam capacity was increased by 160% compared with the control unstrengthened beam by mitigating the shear failure using CFRP.
Energy Optimization of Underwater WSN by Wolf Based Clustering
Authors:- Kushagra Paliwal, Asst. Prof. Sumit Sharma
Abstract- Communication is basic need of any age, although medium and technique is different. In this era wireless communication is common and acceptance of this in various applications is also wide. Out of different field of WSN (Wireless Sensor Network), underwater is highly desirable as study of such area may give new material or learning. This paper has developed a model that works for underwater WSN optimization by clustering and routing. Clustering of nodes were done by Wolf optimization technique, algorithm is able to provide solution dynamic situation. Cluster nodes selection done on the basis of device energy, distance from the base station. Routing of packet is also done from the nodes by means of cluster centers. In order to reduce the load of cluster nodes, shuffling of nodes were done time to time. Experiment was done on different environment of underwater and varying number of nodes. Model was compared with existing technique of underwater WSN network optimization.
Grade Recommendation Using Privacy Preserving Mining and Genetic Algorithm
Authors:- M.Tech. Scholar Priyanka Vishwakarma, Asst. Prof. Sumit Sharma
Abstract- Data analysis depends on quality of input data but this increase chance of privacy break of organization or individual or community. So reverse mining process is applied that performs both the data privacy preserving and knowledge extraction. In order to improve education quality student data analysis is more sensitive and needs good set of features for prediction. This paper has proposed a model that extracts features from the different city schools and trains a model for grade prediction. Proposed model has not shared student data to any third party, instead of this random features selected by the genetic algorithm were used for the training of model. These features were taken in form of presence and absence of student activities. Experiment was done on real dataset of Maharashtra Districts School Students. Comparisons result shows that proposed model has improved the prediction accuracy by % as compared to similar models of privacy preserving.
Multi-modal medical image analysis using Wavelet Fusion
Authors:-M.Tech. Scholar Khurshed Akhtar, Prof .Deepak Mishra
Abstract-Techniques for pixel-level image fusion have been the most important for remote sensing data processing and analysis up until this point. Typically based on empirical or heuristic rules, feature based fusion techniques are utilized for this purpose. Multimodal transport image registration and fusion technologies play an important role in routine screening, screening, screening and evaluation of chronic disease radiotherapy, surgical and radiotherapy programmes. Multimedia media algorithms and tools have made great strides in supporting the reliability of clinical decisions on medical imaging and will continue to make great strides. Combining the two types of information and mixing the two images. Image aggregation methods include simple methods (e.g. pixels) and complex methods (such as wavelet transforms). The advantage of using wavelet manipulation is it has a large part of each image. Its main objective is to improve the understanding of medical images through the use of discrete wavelet transformation technology. DWT uses mainly consolidation rules involving average pixels. The discrete wavelet transformation was carried out using fusion techniques designed specifically for integrated medical images. The fusion performance is calculated based on PSNR, MSE and whole progression moment.
Review on Renewable Energy Based Electric Vehicles Charging Technology
Authors:- Kuldeep Gautam, HOD Ravi Hada
Abstract-Many different types of electric vehicle (EV) charging technologies are described in literature and implemented in practical applications. This paper presents an overview of the existing and proposed EV charging technologies in terms of converter topologies, power levels, power flow directions and charging control strategies. An overview of the main charging methods is presented as well, particularly the goal is to highlight an effective and fast charging technique for lithium ions batteries concerning prolonging cell cycle life and retaining high charging efficiency. Once presented the main important aspects of charging technologies and strategies, in the last part of this paper, through the use of genetic algorithm, the optimal size of the charging systems is estimated and, on the base of a sensitive analysis, the possible future trends in this field are finally valued.
Effect of Environmental Factors on the Performance of Savonious Wind Rotor
Authors:- Associate Prof. P. Venkateswara Rao
Abstract- Savonious rotors continue to interest research investigators in view of its many advantageous features. The simple design of the rotor enables the achievement of a low cost and compact wind power device, although its efficiency may not be comparable with other vertical axis machines such as Darraeus rotor. In low wind velocity zones, one can adapt these rotors with success. Different configurations of the Savonious rotor have been proposed to overcome some of the limitations of the earlier Savonious rotors, which have very low tip speed ratios. Design guidelines have been enunciated for the design of the rotors, based on experience with field-installed rotors. Although a few CFD investigations have been reported earlier on the flow analysis of Savonious rotors, there appears to be no serious attempt made for analysis of flow distribution in these rotors at rarified atmospheric conditions to enable a more realistic understanding of the rotor performance. The rarified atmospheric conditions result from the ambient temperature occurring as per seasonal variations. In the present paper, an attempt is made to carry out a detailed two-dimensional CFD analysis of the basic configuration of the Savonious wind rotor with eccentricity to assess the performance at different atmospheric conditions. A parametric analysis is carried out to understand the pressure and velocity distribution of the rotor. The commercially available Fluent has been used extensively in the present analysis.
Analysis of RQD-RMR-GSI Geo-Mechanical Parameters of the Lithology Exposed In the Portion NE-SE of the City of La Paz, B.C.S., Mexico
Authors:- Joel Hirales Rochin
Abstract- Since ancient times, natural rocks have been used to improve the quality of life of populations, as base materials for the construction of infrastructure works in structural elements, cladding materials, as well as aesthetic finishes.Rock mass classification systems are a global communication system for explorers, designers and builders that facilitate the characterization, classification and knowledge of the rock mass properties.The applied methodology was the geotechnical tool of the Geomechanical classification of Bieniawski RMR, RQD Classification, GSI, as well as with the support of GIS (ArcGIS) where data and field information were worked.The objective of this study is to carry out a geo-mechanical characterization of different lithological zones of the city of La Paz, Baja California Sur., Mexico in its NE-SE portion.Geologically, the study area is based on Holocene deposits that correspond to alluvial material and outcrops of volcanic and volcanoclastic rocks (sandstones, volcanoclastic conglomerates, rhyolitic tuffs, andesitic lahars and lava flows) that are part of the Comondu Formation with an age between 30 and 12 Ma. The information will be the basis of a future comprehensive study to determine the quality indices with geotechnical parameters of the outcropping rocky massif and will allow a sustainable urban development of the improvement of the current construction regulations in the excavation and support criteria.
A Review of Load Balancing Technique in Cloud Computing
Authors:- M.Tech. Scholar Ms. Aarti Jaiswal, Assistant Professor Ms.Trapti Sharma
Abstract- Cloud registering shares information and give numerous assets to clients. Clients pay just for those assets as much they utilized. Cloud computing stores the information and disseminated assets in the open condition. The measure of information stockpiling increments rapidly in open condition. Along these lines, stack adjusting is a primary test in cloud condition. Load adjusting is dispersed the dynamic workload over various hubs to guarantee that no single hub is over-burden. It helps in legitimate usage of assets .It additionally enhance the execution of the framework. Many existing calculations give stack adjusting and better asset use. There are different composes stack are conceivable in Cloud computing like memory, CPU and system stack. Load adjusting is the way toward finding over-burden hubs and after that exchanging the additional heap to different hubs.
Robotic Patient Monitoring and Medicine Delivery
Authors:- Syed Mohammed Ali, Mohd Abdul Sattar, Shanila Mahreen
Abstract- In this project, I propose a robot with some functionality of providing medicine as well as to measure the vital parameters (Heart rate,Blood Pressure, Temperature) of the patient. We can attain the locomotion procedure of the robot using the principle of Radio-frequency identification (RFID) that automatically identifies and tracks tags attached to the objects. The movement and finding the path to patient location is done through a line follower and with RFID tag. Line following method is used to identify the path with help of two infrared sensors. The robot will move towards the patient’s room by following a non-reflective line and use RFID cards to identify the patient’s room number. Using the Medicine box, the medicine delivery is made possible to the patients. Relevant box will be open based on the RFID reader. All the measured parameters will be stored to the cloud using the application of the Internet of Thinking (IOT).If the read values varied from threshold, then an alert message will be sent to doctors through GSM Module.
Development of a Microcontroller-Based Water Fountain Control System
Authors:- Engr. Lyndon R. Bermoy, Vendy Von P. Salvan
Abstract- Entertainments are designed to attract or entice individuals. In some cities in the Philippines, there are only a few entertainment venues, making it difficult to attract people’s attention. The introduction of a new form of entertainment, such as a water fountain, can be a positive factor in the tourism industry’s expansion. The opportunity to observe water spurts of varying quantity and velocity at rhythmic intervals may reduce fatigue and aid in relaxation. People, especially children, would prefer the Water Fountain Show as a form of recreation and enjoyment, given that the Water Fountain is unlike any other form of entertainment available in the Philippines. This study’s sole objective is to design and develop an MCU-Based Water Fountain Control System. The system includes a control circuit that regulates the quantity of water released in a tube based on the pressure applied, thereby producing a sequence of water combinations. The project will feature a variety of lighting effects with corresponding colors and music that will make the overall display more colorful and enjoyable.
Performance Analysis of PID Controller for an Automatic Voltage Regulator System Using Simplified Particle Swarm Optimization
Authors:- Saleha, Vinay Pathak
Abstract- This paper presents the design and performance analysis of Proportional Integral Derivate (PID) controller for an Automatic Voltage Regulator (AVR) system using recently proposed simplified Particle Swarm Optimization (PSO) also called Many Optimizing Liaisons (MOL) algorithm. MOL simplifies the original PSO by randomly choosing the particle to update, instead of iterating over the entire swarm thus eliminates the particles best known position and making it easier to tune the behavioral parameters. The design problem of the proposed PID controller is formulated as an optimization problem and MOL algorithm is employed to search for the optimal controller parameters. For the performance analysis, different analysis methods such as transient response analysis, root locus analysis and bode analysis are performed. The superiority of the proposed approach is shown by comparing the results with some recently published modern heuristic optimization algorithms such as Artificial Bee Colony (ABC) algorithm, Particle Swarm Optimization (PSO) algorithm and Differential Evolution (DE) algorithm. Further, robustness analysis of the AVR system tuned by MOL algorithm is performed by varying the time constants of amplifier, exciter, generator and sensor in the range of50% to50% in steps of 25%. The analysis results reveal that the proposed MOL based PID controller for the AVR system performs better than the other similar recently reported population-based optimization algorithms.The tuning performance of this algorithm and its contribution to the robustness of the control system are also extensively and comparatively investigated. In the performance analysis, Particle Swarm Optimization (PSO) algorithm and Differential Evolution (DE) algorithm are used for the purpose of comparison. These analyses are realized by benefiting from different analysis methods such as transient response analysis, root locus analysis, bode analysis and statistically Receiver Operating Characteristic (ROC) analysis. Afterwards, the robustness analysis is applied to the AVR system, which is tuned by ABC algorithm in order to determine its response to changes in the system parameters. At the end of the study, it is shown that the ABC algorithm is successfully applied to the AVR system for improving the performance of the controller and shows a better tuning capability than the other similar population-based optimization algorithms for this control application.To solve these control problems, which are explained above, an Automatic Voltage Regulator (AVR) system is applied to power generation units. The AVR system is a closed loop control system that provides terminal voltage at the desired value. The configuration of this control system will be investigated.
A Review of 5G Architecture with Emphases on Security, Energy and wide Applications
Authors:- Riya Sharma, Professor Dr. Pramod Sharma
Abstract- The eventual goal of the forthcoming 5G wireless networking is to have relatively fast data speeds, incredibly low latency, substantial rises in base station’s efficiency and major changes in expected Quality of Service (QoS) for customers relative to the existing 4G LTE networks. In order to deal with state-of-the art technologies and connectivity in the form of smart cell phones, internet of things (IoT) devices, autonomous vehicles, virtual reality devices and smart homes connectivity, the broadband data use has risen at a fast rate. Further, to meet the latest applications, the bandwidth of the system needs to be increased widely. This development will be accomplished by using a modern spectrum with higher data levels. In particular, the fifth generation (5G) mobile network seeks to resolve the shortcomings of previous telecommunication technologies and to be a possible primary enabler for future IoT applications. This paper briefly discusses the architecture of 5G, following by the security associated with the 5G network, 5G as an energy efficient network, various types of efficient antennas developed for 5G and state of-the-art specifications for IoT applications along with their related communication technologies. We have also outlined the broader usage of 5G and its future impacts on our lives. Furthermore, at the end of each subtopic, the necessary recommendations are given for the future work.
A Review on Collapse Behaviour of Cable Stayed Bridge
Authors:- M. Tech. Scholar Masoud Ahmed Khan, Asst. Prof. Dhanesh Khalotia
Abstract- Cable stayed bridges have good stability, ultimate use of structural materials, aesthetic, tremendously low design and protection costs, and efficient structural traits. Therefore, this kind of bridges are becoming more and more famous and are generally preferred for lengthy span crossings as compared to suspension bridges. A cable-stayed bridge includes more than one tower with cables helping the bridge deck. In phrases of cable arrangements, the most not unusual forms of cable stayed bridges are fan, harp, and semi fan bridges. Because of their big length and nonlinear structural behaviour, the analysis of those kinds of bridges is greater complex than conventional bridges. However in these bridges, the cables are the principle supply of nonlinearity. An optimal design of a cable-stayed bridge with minimum cost with reaching power and serviceability necessities is a challenging project. Therefore a review on collapse behaviour of cable stayed bridge has been done.
Implementation and Utilization of Deep Learning Approach in the Medical Field
Authors:- Research Scholar Vishal Acharya, Associate Prof. & HOD. Dr. Bharti Chourasia
Abstract- The COVID-19 epidemic has brought about an unusually terrible circumstance for the entire planet, terrifyingly stopping life as we know it and taking thousands of lives. Due to the expansion of COVID-19 to 212 countries and territories, as well as the rise in infection cases and fatalities. The public health system continues to be seriously threatened. The deep learning strategy for predicting the severity of the decline in COVID-19-infected patients was proposed in this research and is based on CNN. The suggested model may learn complicated connections between a variety of heterogeneous parameters using this new methodology, including census data, intra-county movement, inter-county mobility, data on social distance, previous infection growth, and more. According to the simulated results, total accuracy is 23.85% higher than prior work, and classification error is 32.86% lower than prior methodology. The prior method yielded precision values of 6.29%, recall values of 78%, and f-measure values of 36.01%. The simulation results demonstrate that the overall enhancement of performance parameters is superior to the current method.
Digital Image Watermarking by Select ed Feature of Group Search Genetic Algorithm
Authors:- Dilesh Khairwar, Asst. Prof. Sumit Sharma
Abstract- Image is a proof of any instant happened in the universe. Transformation of image from hard to digital brings different flexibility and uses for the analysis and storage. Digital images need security from the intruder for that many communication protocols were developed. For the validity of authentic source watermarking plays an important role. This paper has proposed a model that embedded watermark into the original image by extracting DWT feature from the image. For embedding at Least significant coefficient proposed model has uses Group Search genetic algorithm. Food sources cloning and mutation steps has reduces the iteration count that decreases the embedding process time as well. Experiment was done on real and standard digital images. Result shows that proposed model has maintained the PSNR value of image even after embedding.
A Study on Various Continuous Functions
Authors:- Mrs. K.Kiruthika, Dr. N.Nagaveni
Abstract- In this paper, we present and study a new concepts namely strongly rb-continuous and Perfectly rb-continuous, Contra rb-continuous and Totally rb-continuous. Also examine some of their properties of such functions.
Review on Milli Meter-Wave (mmW) Imaging for Humans Bio-field
Authors:- Mangukiya Hitesh Kumar Bhupatbhai
Abstract- Increasing demands for screening personnel for concealed objects lead to additional research efforts related to suitableimaging systems and their industrial realization. In this context millimeter-wave systems are a promising approach, because the radiation does not present a health hazard to people under surveillance and readily passes through manyoptically opaque materials such as clothing fabrics allowing for the identification of concealed objects. Due to theextent of the human’s body and the resultant required amount of 3D resolution cells with a magnitude of 15mm orless, in principle all existing and proposed systems have to deal with a huge amount of scattering data which have tobe acquired and processed. For a highly resolved image principally as much information as available should be used. Interestingly electromagnetic field is associated with such activities. Psychological perception of one’s environment or a person’sthought process induces characteristic electrical impulses in the brain. These signals travel throughout the central, sympathetic and parasympathetic nervous system, creating the unique electromagnetic field of the organism that can radiate out of the body and is termed ‘Aura’ or ‘Bio-energyfield’. Thus, ‘aura’ gives the signature of the statusof health prior to its manifestation in the physical body.Therefore, human health can be effectively monitored bymeasuring this radiation field.
A Literature Review on Brain Tumor Detection and Segmentation
Authors:- Mithilesh Nandini Malviya , Asst. Prof. Ms. Priya Sen
Abstract- A Brain Tumor is essentially a malformed cell growth that can be cancerous and non-cancerous. The tumor in the Brain is the most dangerous disease and can be diagnosed easily and reliably with the help of detection of the tumor with automated techniques on MRI Images. Several methods of efficient diagnosis and segmentation of brain tumors have been suggested by many researchers for effective tumor detection. Magnetic Resonance Imaging (MRI) images are used by specialists and neurosurgeons for the diagnosis of brain tumors. The accuracy depends on the experience and domain knowledge of these experts, and is also a time consuming and expensive process. To overcome these restrictions, several deep learning algorithms have been proposed for the detection of presence of brain tumors. In this review paper, an extensive and exhaustive guide to the sub-field of Brain Tumor Detection, focusing primarily on its segmentation and classification, has been presented by comparing and summarizing the latest research work done in this domain. For that purpose, it is proposed to review the detection of brain tumor from MRI images by using hybrid computerized approaches. Therefore, brain tumor growth performance and analysis are described to generalize symptoms and guide diagnosis towards a treatment plan. Several approaches for the segmentation process of MRI are discussed from existing papers, the detection of brain tumors can be conclude.
Review on Milli Meter-Wave (mmW) Imaging for Humans Bio-field
Authors:- Mangukiya Hitesh Kumar Bhupatbhai
Abstract- Increasing demands for screening personnel for concealed objects lead to additional research efforts related to suitableimaging systems and their industrial realization. In this context millimeter-wave systems are a promising approach, because the radiation does not present a health hazard to people under surveillance and readily passes through manyoptically opaque materials such as clothing fabrics allowing for the identification of concealed objects. Due to theextent of the human’s body and the resultant required amount of 3D resolution cells with a magnitude of 15mm orless, in principle all existing and proposed systems have to deal with a huge amount of scattering data which have tobe acquired and processed. For a highly resolved image principally as much information as available should be used. Interestingly electromagnetic field is associated with such activities. Psychological perception of one’s environment or a person’sthought process induces characteristic electrical impulses in the brain. These signals travel throughout the central, sympathetic and parasympathetic nervous system, creating the unique electromagnetic field of the organism that can radiate out of the body and is termed ‘Aura’ or ‘Bio-energyfield’. Thus, ‘aura’ gives the signature of the statusof health prior to its manifestation in the physical body.Therefore, human health can be effectively monitored bymeasuring this radiation field.
Review on Robotic Arm Component and Functions
Authors:- M.Tech. Student Siddharth Jaiswal, Asst. Prof. Kriti Srivastava , Asst. Prof. Shweta Mishra
Abstract- Robots are used in a variety of production processes, including monitoring processes, doing pick-and-place tasks, and even carrying out remote surgical procedures. The robotic arm manipulator must be able to perform a variety of duties depending on the application. The robots are designed to carry out responsibilities that need all 6 degrees of freedom (DOF). The present study conducts a literature review on previous studies that have been done on the design, materials, and operation of robots. Studies that have already been conducted have focused on the use of VLSI systems, mechanical systems, and image processing to the operation of robots. Various researchers have also presented their work on the inclusion of new approaches based on artificial intelligence with the goal of boosting the functioning and decision-making capabilities of robots.
A Review on Solar Wind Hybrid Renewable Energy System
Authors:- Twinkle Kumara ,Prof. Neeti Dugaya, Dr. Geetam Richhariya, Dr. Manju Gupta
Abstract- Renewable Energy System comprising of solar and wind energy, is eco-friendly, and cost-effective option for powering the rural areas compared to conventional sources. The drawback of these systems is they are less reliable as the generated power depends on meteorological conditions. A properly designed hybrid renewable energy system (HRES) that combines two or more renewable energy sources like wind turbine and solar system with battery back-up increases the reliability of these systems in standalone modeThis Paper provides a succinct and well-organized overview of different maximum power point tracking (MPPT) algorithms used in photovoltaic (PV) generating systems that may operate in partial shade. To far, a broad range of algorithms, PV modelling methods, PV array designs, and controller topologies have been investigated. However, every method has both benefits and drawbacks; as a consequence, while building a PV generating system (PGS) under partial shade conditions, a thorough literature study is required. The thorough review of MPPT algorithms has been done in this article. The review of MPPT methods has been divided into four major categories. The first group consists of entirely new MPPT optimization algorithms, the second group consists of hybrid MPPT algorithms, the third group consists of novel modelling approaches, and the fourth group consists of different converter topologies. This article offers an accessible reference for doing large-scale research in PV systems under partial shadowing conditions in the near future..
The Covid-19 And Its Impact on Insurance Participation in Indonesia: A Case Study of BPJS Ketenagakerjaan
Authors:- Andri Afrianto, Tony Irawan, Alla Asmara
Abstract-The COVID-19 virus has become a worldwide pandemic, and studies of its impact on insurance are needed. The research is specifically about insurance participants, especially during the pandemic, to ensure the survival of insurance in the long term. However, research linking COVID-19 and insurance is lacking. This paper aims to look at the impact of the COVID-19 pandemic on insurance by using active membership data from BPJS Ketenagakerjaan in Indonesia, which covers 34 provinces. This study uses a time series spanning 2018 to 2021 and across 11 regional offices of BPJS Ketenagakerjaan. Empirical findings suggest that COVID-19 cases are associated with reduced insurance participation. Compared to before the pandemic, COVID-19 caused a decrease in active participation by an average of 0.0577709 per cent. Active participation tends to increase yearly, but in 2020, there was a decline. Based on the results of this study, BPJS Ketenagakerjaan must reduce the risk of future pandemics by maximizing digital transformation in its business services to provide excellent service to formal and informal workers, as well as strengthening collaboration with the government in designing fiscal policies such as relaxation of contributions and direct cash transfers. While for companies, they can transfer socio -economic risks that can occur to their employees by buying insurance such as BPJS Ketenagakerjaan insurance.
Generating Transmitting Codes for MIMO Radar Using Polyphase Codes to Reduce Side-lobe Levels
Authors:- Manzoor Ahmad Wani, Shaveta Bala
Abstract-High side-lobe levels reduction is an exhausting task in Multiple- Input Multiple-Output (MIMO) radar. Transmit sequence design plays a significant role in radar to overwhelm correlation side-lobe levels. In general, side-lobe levels performance of the incoming signals is observed by their cross-correlation function with other transmitted signals. New polyphase codes are projected that shows good auto-correlation and cross-correlation function responses to reduce peak side-lobe levels (PSL) and cross-correlation levels (CCL). Performances of the various poly phase codes are compared and the P4 code is chosen for the design of new poly phase code. The proposed composite poly phase codes (CPC) are produced by adding the left and right shifted versions of P4 code asP4 code is much Doppler accepting to another polyphase codes. Using ambiguity function, the influence of CPC on the delay-Doppler plane is observed. Finally, simulation results validate superiority of the proposed CPC equated to the counterpart techniques.
Pulse Compression Radar Waveform Design Using Classical Orthogonal Polynomials to Mitigate Range Side-Lobes
Authors:- Aamir Hussain Khan, Shaveta Bala
Abstract- Transmitting waveforms plays a significant role in radar system. The benefits of both long and short duration pulses are achieved using pulse compression technique. Radar waveforms performance is observed using matched filter response. Practically, the matched filter response consists of higher range side-lobes which creates accurate detection problem. On the other side, wider bandwidth is much desirable for a better range resolution. Therefore, waveforms are to be designed in such a way that offers mitigation in matched filter side-lobes having wider bandwidth. Using classical orthogonal polynomials, new radar waveforms are designed for transmission purposes. We observed the performance of different order polynomials and finally, choose that polynomial which offers wider bandwidth and significant side-lobes reduction in pulse compression radar. The designed waveform performances are compared with the existing linear frequency modulated (LFM) waveforms.
Machine Learning Algorithm Based Health Care Monitoring System
Authors:- M.Tech. Scholar Sonal Shrivastava , Prof. Rajesh Kumar Boghey
Abstract- The regular measurement of vital signs enables early diagnosis and warning of developing problems. Furthermore, it allows closer monitoring of the effects of medication and lifestyle, making more personalized treatment plans possible. The system contains a patient loop interacting directly with the patient to support the daily treatment. It shows the health development, including treatment adherence and effectiveness. An educated and motivated patient can improve his/her treatment compliance and health. The system also contains a professional loop involving medical professionals (e.g. alerting to revisit the care plan). The patient loop is securely connected with hospital information systems, to ensure optimal personalized care. Big data analytics provides services to various organizations, especially in the healthcare field. The medical field contains a large amount of data and is well suited for data analysis. Medical big data is mainly used for clinical data, and chronic disease monitoring and health monitoring are mainly used to detect changes in patients’ health. First, you must process the data to remove unnecessary data and provide effective prediction results. The second is the data analysis process – this is the process of cleaning, transforming and modeling data for the purpose of discovering useful information. In this process, we propose privacy protection to keep patient information secure. And support vector Machine learning algorithms are mainly used to predict diseases and provide more efficient prediction results. Finally, our system will predict the disease based on the patient’s symptoms and show the treatment to the patient.
Conditions Total Factor Productivity (TFP), Competitiveness, Democracy and Oligarchy in ASEAN
Authors:- Maulin Kusuma Wardani, Didin S. Damanhuri, Widyastutik
Abstract- The purpose of this study is to analyze the condition of Total Factor Productivity (TFP), competitiveness, democracy and oligarchy in ASEAN. This study uses secondary data sources in the period 2010-2019 and five (5) selected countries, namely Indonesia, Malaysia, the Philippines, Thailand and Singapore. The TFP variable is measured by TFP Growth, competitiveness is measured by The Global Competitiveness Index, the level of democracy is measured by the Democracy Index and oligarchy is measured by calculating the Material Power Index. The results of the descriptive qualitative analysis method show the differences in the conditions of each country in terms of TFP, competitiveness, democracy and oligarchy even though they are in the same region.
Review Of Pv Generation And Power Transmission Analysis Using Power Flow Controllers
Authors:- Dipak Borse, Assistant Professor Lovkesh Patidar
Abstract- Energy security is one of the most crucial factor in the development of any nation. Inter-Connections among different power system networks are made to lower the overall price of power generation as well as enhance the reliability and the security of electric power supply. Different types of interconnection technologies are employed, such as AC interconnections, DC interconnections, synchronous interconnections, and asynchronous interconnections. It is necessary to control the power flow between the interconnected electric power networks. The power flow controllers are used to (i) enhance the operational flexibility and controllability of the electric power system networks, (ii) improve the system stability and (iii) accomplish better utilization of existing power transmission systems. These controllers can be built using power electronic devices, electromechanical devices or the hybrid of these devices. In this paper, control techniques for power system networks are discussed. It includes both centralized and decentralized control techniques for power system networks.
Power System Transient Analysis For Wind And Solar Based Hybrid System
Authors:- Garima Jain, Prof. Rajeev Chouhan
Abstract- Energy is critical to the economic growth and social development of any country. Indigenous energy resources need to be developed to the optimum level to minimize dependence on imported fuels, subject to resolving economic, environmental and social constraints. This led to an increase in research and development as well as investments in the renewable energy industry in search of ways to meet the energy demand and to reduce the dependency on fossil fuels. Wind and solar energy are becoming popular owing to the abundance, availability and ease of harnessing the energy for electrical power generation. This paper focuses on an integrated hybrid renewable energy system consisting of wind and solar energies. Many parts of Libya have the potential for the development of economic power generation, so maps locations were used to identify where both wind and solar potentials are high. The focal point of this paper is to describe and evaluate a wind-solar hybrid power generation system for a selected location. Grid-tied power generation systems make use of solar PV or wind turbines to produce electricity and supply the load by connecting to the grid.
Internal Factor of Return-To-Work (RTW) Program for Work Injured Laborer in Indonesia
Authors:- Dwi Aprianto, Dedi Budiman Hakim, Sahara
Abstract- Workplace accidents can define the level of safety in the workplace, which helps to drive national economic development. Annual GDP losses from occupational injuries are projected to be 3.94%. There were 374 million non-fatal work accidents worldwide, and 2.78 million individuals died as a result of work injuries. With 1.1 million fatalities, the Asia Pacific area has the greatest rate of occupational injury compared to other regions globally. South-East Asia generates the most work injuries to this area. Indonesia had the highest number of fatal injuries, with 15.973 fatal accidents per 100,000 employees (20.9%). It is critical to revive work-injured individuals in order for them to be productive. The purpose of this study is to identified the internal factors that determine the the RTW Program for workers who have been injured on the job. Data were acquired from BPJS Ketenagakerjaan from 2020 to 2021, with 195 people participating in this program as a result of fatal workplace injuries. This is cross-sectional research. As a consequence, 75.90% of participants were able to work after completing this program. Younger age (18-29 years), lower working years (0-5 years), male (86%), and upper limb amputation (55%) dominated the participation in RTW program. Several groups require further attention by delivering information about the workplace and road dangers. This data may be used to develop the RTW program in order to increase help to high-risk patients who are unable to work following the RTW program.
Problems Formulation and Observation Of Repairing Damaged Floor Laid Expansive Soil
Authors:-Ritu Mewade
Abstract-Engineering structures constructed on expansive soils detrimental behavior of such soils, leading to their damage and cracking. The structure which can not resist the heave pressure of soil and undergo temporary or permanent deformation is known as light structure. Less lightly loaded structures like, house, canal banks and linings, cross drainage works, have been damaged and cracked due to these soil. The damage occurs, due to the swelling and shrinking behavior of such soils. Since the structures built on such soils get lifted up during rainy season due to the heave of the foundation soil and settle down during summer season due to the shrinkage of the foundation soil, there is a need to adopt remedial measures so as to prevent lifting and sinking of the structures.
The Tendency of Unemployment with Several Elements in Labour Market Institutions
Authors:- Gleys Kasih Deborah Simanjuntak, Yeti Lis Purnamadewi, Dedi Budiman Hakim
Abstract- Labour market institutions facilitate the arrangement of employment quality and working conditions that can influence the trend in employment and unemployment, thus, the elements regulated in labour market institutions are often contentious in public policy areas. Since unemployment can be jeopardised, the arrangement of effective and efficient policies in labour market institutions should prevent its growth. Hence, it is necessary to analyse the tendency of unemployment by the existence of several elements of labour market institutions such as the unemployment benefits system, collective bargaining, employment protection, and minimum wages. This takes into account whether there is a different tendency when comparing emerging and advanced economies. Moreover, the study also includes some factors outside labour market institutions to complement the analysis known as non-institutional factors consisting of macroeconomic variables such as GDP growth, exchange rates, and inflation and other relevant factors such as corporate tax and population growth. The study is analysed descriptively using cross-tabulation from thirty-two countries. The findings indicate that countries that have more generous unemployment benefits, higher collective bargaining coverage rates, minimum wage, inflation rates, corporate tax, and population growth tend to have higher unemployment rates. Meanwhile, countries tend to hold a lower unemployment rate with stricter employment protection legislation, a weak exchange rate of domestic currency, and higher GDP growth. Meanwhile, there are no different trends based on country economy comparison except for collective bargaining, employment protection legislation, and inflation.
Design of Electronic Device To Prevent On-Road Wheeling For Two-Wheelers
Authors:- Asst. Prof. Jaya Shubha J , Spoorthi P Shetty, Subhashini D, Vadde Sneha
Abstract- Driving has become difficult in the presence of bikers, who resort to dangerous stunts on busy roads despite the ban on the practice of the same. It is evident through enough cases where reckless youngsters risk their lives and perform dangerous stunts, one is wheeling. Recent years have seen an alarming rise in this dangerous trend amongst the youth. However, the police have miserably failed to curb this fatal practice amongst which has claimed several lives in the past. The project aims at developing an electromechanical device to prevent the wheeling of two wheelers on road. The need of such device is necessary for our society. These daredevils are often seen driving their motorcycles during the day and night on the back wheel, driving inversely and doing other dangerous tricks. So here is an electronic mechanical equipment which avoids the same. The bike consists of inbuilt sensor which sends a signal to the arduino board and stops the vehicle. It also sends a message to the police control room about the vehicle number and its location. The increasing trend of one-wheeling and bike-racing continues on roads, creating troubles for traffic. Therefore here comes a small effort of us for curbing the same. The usage of this device can save many lives and prevent such injuries that could not be repaired and cured by surgery as it would be a complicated task and minimize the chances of survival.
Image and Video Datasets for Yoga Pose Estimation: A Review
Authors:- Hukam Chand Saini, Dr.Renu Bagoria, and Dr. Praveen Arora
Abstract- Research and experimentation in various technical and scientific fields are based on benchmark datasets. Specifically in the field of deep learning, finding a high-quality dataset is a must for developing the model of any AI application. Dataset is an integral part of the field of deep learning as learning of the model depends on the quantity, quality, and relevancy of the dataset. In this paper, we present the literature review and summarized comparison of the different existing Yoga Pose datasets available publically for research and experiment. The purpose of this study is to help researchers to identify and select an appropriate yoga posture dataset for yoga pose recognition under human pose estimation using deep learning and machine learning technology.
Optimizing Task Scheduling in Cloud Computing Environments using hybrid approach MM-MM
Authors:- Assistant Professor Renu Tiwari
Abstract- In today’s era of rapid development in information and computing technologies, cloud computing has emerged as a highly scalable and widely used technology worldwide. It operates on the pay-per-use, remote access, Internet-based and on-demand concepts, providing customers with a shared pool of configurable resources. However, as the number of user requests continues to increase, efficient task scheduling and resource allocation have become major requirements for effective load balancing of workloads among cloud resources, thereby enhancing the overall cloud system performance. To address this issue, various types of task scheduling algorithms have been introduced. Heuristic task scheduling algorithms such as MET, MCT, Min-Min, and Max-Min play an essential role in solving the task scheduling problem. In this paper, a novel hybrid algorithm is proposed for the cloud computing environment based on two heuristic algorithms: Min-Min and Max-Min algorithms. To evaluate the effectiveness of this algorithm, the Cloudsim simulator is used with different optimization parameters such as average waiting time and total response time between small and large tasks. The results demonstrate that the proposed algorithm optimized the resource allocation and outperforms both the Min-Min and Max-Min algorithms for these parameters.
Automated Product Recognition for Retail Shopping from Video Imaging Using Machine Learning
Authors:- Sanghita Datta, Ankita Sah, Upamita Das, Debmitra Ghosh, Aman Malhotra
Abstract- The key factor to increase the profit in grocery stores now-a-days is the availability of items on the shelf. The growing market of computer vision has made it possible for the grocery stores to grow in various aspects. To tackle is growing market of on shelf detector, our model has been designed where the products kept on the shelf would be scanned and their recognition would be done in the computer screen using machine learning for the training of data onto the model. This study examines the creation of a real-time, video-based action recognition system for removing items from shelves and putting them back. In order to prevent the two classification components from operating continually, the system also includes a detector component. The action classification component of the system is evaluated to have an accuracy of 80 percent, and the object identification component of the system to have an accuracy of 70 percent.
Facial Image Data Preparation for Early Detection of Autism
Authors:- Debmitra Ghosh
Abstract- ADHD starts to appear in childhood and continues to keep going on into adolescence and adulthood. Propelled by the rise in the use of machine learning techniques in the research dimensions of medical diagnosis, this paper there is an attempt to explore the possibility to use VGG16, Mobilenet v2, Densenet-121, Resnet-51, Inceptionv3, and Convolution Neural Network for predicting A novel data-set is created with ADHD individuals of a toddler, adolescent, and adult agegroups to evaluate the model. The first data set related to ADHD screeningin children has 292 instances and 21 attributes. Second data-set related to ADHD screening. Adult subjects contain a total of 704 instances and 21 attributes. The third data-set related toADHD screening in Adolescentsubjects comprises 104 instances and 21 attributes. ACGAN is applied to increase the data set as there is an imbalance of data between healthy individuals and healthy individuals. After applying various deep learning architectures results strongly suggest that CNN-based prediction models work better on increased data sets with higher accuracy of 99.53, 98.30, and 96.88 % in Data for Adults, Children, and Adolescents respectively.
A Review on online learning and Emergency remote teaching in Music Education courses
Authors:- Urja Joshi
Abstract- This paper considers review of changes to music industry education in the digital era and evaluates the current level of technology use within the music industry curriculum as a result of a survey on student perception. Since analysis of the collected data revealed a need to enhance the curriculum with computing and information technology competences, thesepropose and discuss novel courses that would facilitate students’ acquisition of digital knowledge and skills. Theseadditionally provide comments on the possible enrichment of existing courses with material on digital technologies applications. The information in this study is aimed not only at music industry educators but also at instructors in other disciplines willing to make their students aware of the latest technological trends.
Review on Novel Approach to observation of Brain Image Anomaly
Authors:- Ronit Dey
Abstract- – An early diagnosis of brain anomaly plays a pivotal role in better prognosis, treatment outcomes and higher patient survival rate. Manually evaluating the numerous magnetic resonance imaging (MRI) images produced routinely in the clinic is a difficult process. Thus, there is a crucial need for computer-aided methods with better accuracy for early anomalydiagnosis. Computer-aided brain anomaly diagnosis from MRI images consists of tumor detection, segmentation, and classification processes. Over the past few years, many studies have focused on traditional or classical machine learning techniques for brain tumor diagnosis. Recently, interest has developed in using deep learning techniques for diagnosing brain tumors with better accuracy and robustness. This study presents a comprehensive review of traditional machine learning techniques and evolving deep learning techniques for brain tumor diagnosis. This review paper identifies the key achievements reflected in the performance measurement metrics of the applied algorithms in the three diagnosis processes. In addition, this study discusses the key findings and draws attention to the lessons learned as a roadmap for future research.
Unlocking Success: Integrating AI in Traditional Banking Operations
Authors:- Kinil Doshi
Abstract- – This article reviews the practical application of Artificial Intelligence in the framework of traditional banking, focusing on three major vectors – efficiency increase, customer service and compliance strengthening. Acknowledges that AI is an opportunity for banks to keep up with the times and improve business processes, adapt services to users, optimize workflow and ensure the purity of the market and adherence to procedures. In particular, the work considers options for using AI, identifies the benefits of its application and the challenges that must be addressed, taking into account the regulatory framework and the need for impeccable data governance. Thus, the provision of strategies for successful introduction and reflection on the experience of successful banks creates a fundamental basis for banks that still need to gamify their business in terms of AI.
DOI: 10.61137/ijsret.vol.8.issue6.537

Facial Sentiment Analysis Using CNN Models: Applications of IoT Integration across Various Fields
Authors:- Arin Saxena, Disha Rathi
Abstract- – Facial sentiment analysis is an increasingly important area of research, with applications ranging from healthcare to marketing, education, and security. The rise of Internet of Things (IoT) devices has allowed for the seamless integration of sentiment analysis into real-world applications by enabling real-time data collection and processing. Convolutional Neural Networks (CNNs) have proven to be highly effective in the task of facial sentiment analysis due to their ability to automatically extract features from images, making them a popular choice for various IoT-integrated applications. This paper reviews existing research before 2022, focusing on the use of CNNs for facial sentiment analysis and their integration with IoT systems across different fields. We explore the methodology behind CNN-based facial recognition, key applications in healthcare, education, security, and customer engagement, as well as challenges such as data privacy, model scalability, and deployment constraints in IoT environments.
Blockchain-Based Framework for Secure OTA Updates in Autonomous Vehicles
Authors:- Siranjeevi Srinivasa Raghavan
Abstract- – This paper presents a blockchain-based framework designed to enhance the security of Over-the-Air (OTA) updates in autonomous vehicles. By leveraging the decentralized, immutable, and transparent nature of blockchain technology, the framework ensures the authenticity and integrity of software updates. A smart contract-driven approval mechanism prevents unauthorized modifications while addressing critical challenges such as latency, scalability, and energy efficiency. The study evaluates the trade-offs in blockchain adoption for vehicular systems, offering a detailed analysis of its impact on operational performance. Results demonstrate that the proposed framework significantly improves OTA update security without compromising real-time requirements or resource constraints, making it a viable solution for secure vehicular ecosystems.
DOI: 10.61137/ijsret.vol.8.issue6.426

A Comparative Study on the Estimation of Protein Content in 3 Leguminous Seeds:Vigna Unguiculata, Cicer Arietinum and Glycine Max
Authors:- Dr.Jyothi Kanchan A.S.
Abstract- – A comparative study was conducted to find out the protein content in three leguminous seeds: Vigna unguiculata (cowpea), Cicer arietinum (chickpea), and Glycine max (soybean). The study was conducted in these seeds with and without the seed coat using the Lowry method. Seed extracts were prepared by grinding, centrifuging, and treating with trichloro-acetic acid (TCA) and sodium hydroxide (NaOH). A standard graph for protein estimation was prepared using Bovine serum albumin (BSA). The optical density of the extracts was measured at 650 nm, and the protein content was determined using the standard graph. Results showed protein content in micrograms for seeds with and without the seed coat was 44 and 38 for cowpea, 64 and 26 for chickpea, and 48 and 38 for soybean. Chickpea seeds with the seed coat had the highest protein content. The presence of the seed coat contributed to higher protein content in all cases. The findings support earlier reports on protein content variation among pulses and the influence of factors such as location, nutrition availability, climatic conditions, and germination. The study highlights legumes as a rich protein source and potential interference of compounds with the Lowry’s method for protein estimation.
Entrepreneurship in the Digital Age: New Ventures and Innovative Business Models
Authors:- Lakshmi Kalyani Chinthala
Abstract- – The landscape of entrepreneurship is being reshaped by the rapid advancements in technology, changing consumer preferences, and the rise of digital platforms. This paper explores how digital transformation is influencing entrepreneurship, with a focus on the development of new ventures and innovative business models. It highlights the role of technology in creating opportunities for entrepreneurs to scale their businesses, disrupt traditional industries, and reach global markets. The paper delves into key trends, such as the gig economy, digital platforms, and the rise of e-commerce, and examines how these trends are shaping the entrepreneurial ecosystem. It also discusses the challenges and opportunities presented by digital tools, including the need for entrepreneurs to adapt to new technologies and navigate complex regulatory environments. Furthermore, the paper explores the role of venture capital, funding options, and the growing importance of digital marketing and customer acquisition strategies. By analyzing these trends and challenges, the paper provides insights into how aspiring entrepreneurs can leverage digital tools and innovative business models to succeed in the digital age.
DOI: 10.61137/ijsret.vol.8.issue6.542

Investigation Of Progressive Encryption Methods For Enrichment In Safety Of Big Data In Cloud Computing_686
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DOI: http://doi.org/
Harnessing AI For The Design Of Nanocarriers In Targeted Drug Delivery
Authors: Tando Kulesi
Abstract: Targeted drug delivery represents a transformative approach in modern therapeutics, aiming to precisely deliver pharmaceutical agents to specific tissues, cells, or intracellular compartments. This approach significantly improves therapeutic efficacy while minimizing off-target side effects commonly associated with conventional systemic drug administration. Nanocarriers—engineered nanoscale vehicles such as liposomes, polymeric nanoparticles, dendrimers, and metallic nanostructures—have become central to targeted drug delivery due to their tunable physicochemical properties and ability to navigate complex biological environments. Despite their promise, designing nanocarriers that achieve optimal targeting, stability, and controlled release remains a challenging task involving multifaceted biological and physicochemical interactions. Artificial Intelligence (AI), especially through machine learning and deep learning, is revolutionizing this design process by enabling the analysis and interpretation of complex datasets, predicting nanocarrier behavior in biological systems, and optimizing their design parameters for improved performance. This paper thoroughly reviews the current advances in applying AI for the design of nanocarriers, explores successful case studies, discusses inherent challenges, and envisions future directions that could dramatically accelerate nanomedicine development and personalized healthcare.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.544
Machine Learning Approaches To Predict Nanoparticle-Cell Interactions
Authors: Dr. Halifu Zenbe
Abstract: Nanoparticles play a pivotal role in modern biomedical applications, particularly in targeted drug delivery, imaging, and diagnostics. Understanding the complex interactions between nanoparticles and cellular systems is crucial to ensure efficacy, minimize toxicity, and enhance the overall performance of nanomedicine. However, the multifaceted nature of nanoparticle-cell interactions, influenced by numerous physicochemical parameters and cellular heterogeneity, poses a significant challenge for traditional experimental approaches. Machine learning (ML), a subset of artificial intelligence, provides powerful tools for analyzing complex datasets and predicting biological responses to nanoparticles. This paper explores various machine learning methodologies applied to predict nanoparticle-cell interactions, discusses key applications and case studies, addresses the challenges in data acquisition and model validation, and outlines future perspectives to improve predictive accuracy and accelerate nanomedicine development.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.545
Artificial Intelligence In The Development Of Smart Nanosensors For Early Disease Detection
Authors: Dr. Zirika Temba
Abstract: Early detection of diseases significantly improves patient outcomes by enabling timely intervention and effective treatment. Smart nanosensors, leveraging advances in nanotechnology, offer remarkable sensitivity and specificity in detecting biomarkers associated with various diseases at their earliest stages. However, the complexity of the signals generated by these sensors and the vast amount of data involved require advanced computational techniques for accurate interpretation. Artificial intelligence (AI), particularly machine learning and deep learning, plays an increasingly vital role in processing nanosensor data, identifying patterns, and enhancing diagnostic accuracy. This paper reviews the integration of AI with nanosensor technology for early disease detection, discusses key design considerations, presents notable applications, and explores the challenges and future opportunities in this interdisciplinary field.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.546
Integrating Deep Learning With Nanotechnology For Personalized Medicine
Authors: Dr. Zimora Kaldu
Abstract: Personalized medicine, also known as precision medicine, seeks to tailor medical treatment to the individual characteristics of each patient, including their genetic makeup, lifestyle, and environment. Nanotechnology provides innovative tools such as nanocarriers, nanosensors, and nanorobots that enable targeted drug delivery, sensitive diagnostics, and real-time monitoring. Deep learning, a subset of artificial intelligence, has demonstrated remarkable success in analyzing complex biomedical data and extracting meaningful insights. The integration of deep learning with nanotechnology holds great promise for advancing personalized medicine by optimizing therapeutic strategies, enhancing diagnostic accuracy, and improving patient outcomes. This paper explores the convergence of these fields, reviewing current applications, challenges, and future prospects in developing personalized healthcare solutions.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.547
AI-Driven Optimization Of Nanoparticle Synthesis For Biomedical Applications
Authors: Dr. Enobi Qwama
Abstract: Nanoparticles have become a cornerstone in the field of biomedicine due to their unique physicochemical properties and ability to interact at the cellular and molecular levels. Efficient synthesis of nanoparticles with precise control over size, shape, and surface characteristics is critical for their successful application in drug delivery, imaging, and therapeutic interventions. Artificial intelligence (AI), particularly machine learning and deep learning techniques, has emerged as a powerful tool to optimize nanoparticle synthesis processes by analyzing complex experimental data and predicting ideal synthesis parameters. This paper explores how AI-driven methodologies enhance nanoparticle synthesis, discusses current applications in biomedicine, and addresses challenges and future perspectives for integrating AI into nanomanufacturing workflows.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.548
Exploring The Role Of AI In Nanorobotics For Minimally Invasive Surgery
Authors: Dr. Hafizul Ramzee
Abstract: Nanorobotics, a cutting-edge field at the crossroads of nanotechnology and robotics, is poised to revolutionize minimally invasive surgery by enabling interventions at a scale previously unimaginable. The integration of artificial intelligence (AI) with nanorobotics significantly enhances the capability of these tiny machines to navigate complex biological environments, perform precise therapeutic actions, and adapt to dynamic physiological conditions. This paper provides a comprehensive exploration of how AI supports the development, control, and application of nanorobots for minimally invasive surgical procedures. It discusses current state-of-the-art technologies, specific biomedical applications, inherent challenges, ethical considerations, and future research directions. The convergence of AI and nanorobotics represents a paradigm shift towards highly personalized, safer, and more effective surgical techniques, potentially transforming patient care and outcomes in the years to come.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.549
Predictive Modeling Of Nanomaterial Toxicity Using Machine Learning
Authors: Dr. Nazrin Hidayat
Abstract: The rapid advancement of nanotechnology has led to the widespread development and application of nanomaterials in diverse fields, including medicine, electronics, and environmental science. Despite their numerous benefits, nanomaterials pose potential risks to human health and the environment due to their unique physicochemical properties. Accurate assessment of nanomaterial toxicity is therefore crucial to ensure safe usage and regulatory compliance. Machine learning (ML), a subset of artificial intelligence, offers powerful predictive modeling techniques that can analyze complex datasets to forecast nanomaterial toxicity effectively. This paper explores the role of machine learning in predicting the toxicological effects of nanomaterials, reviews common ML algorithms employed, discusses data challenges, and highlights future prospects for integrating ML-driven toxicity prediction into nanomaterial safety assessment frameworks.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.550
AI-Powered Nanodevices For Real-Time Monitoring Of Physiological Parameters
Authors: Dr. Shafiq Ruslan
Abstract: The integration of artificial intelligence (AI) with nanotechnology has led to the emergence of AI-powered nanodevices capable of real-time monitoring of physiological parameters. These innovative devices offer unprecedented sensitivity, accuracy, and miniaturization, enabling continuous health monitoring at the molecular and cellular levels. This paper explores the development, functioning, and biomedical applications of AI-enabled nanodevices designed to monitor vital physiological signals in real time. It further discusses the challenges, recent advancements, and future directions in the field, emphasizing the transformative potential of these technologies in personalized healthcare and disease management.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.551
The Synergy Of AI And Nanotechnology In Developing Responsive Drug Delivery Systems
Authors: Prabhu Prasad
Abstract: The integration of artificial intelligence (AI) with nanotechnology is rapidly transforming the landscape of drug delivery systems, enabling the creation of smart, responsive platforms capable of adapting to dynamic biological environments. Responsive drug delivery systems use nanocarriers that can detect specific physiological cues and release therapeutic agents accordingly, improving efficacy and minimizing side effects. This paper delves into the role of AI in designing and optimizing these nanocarriers, discussing machine learning models for predicting carrier behavior, AI-driven synthesis, and personalized drug release strategies. It also examines biomedical applications, challenges, ethical considerations, and future directions, highlighting how this synergy paves the way for precision medicine tailored to individual patients' needs.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.552
Leveraging Machine Learning To Enhance The Efficacy Of Nanomedicine Therapies
Authors: Manoj Sekhar
Abstract: Nanomedicine has revolutionized therapeutic strategies by enabling targeted drug delivery, controlled release, and improved bioavailability. However, the complexity of biological systems and variability among patients often limits the efficacy of nanomedicine therapies. Machine learning (ML), a subset of artificial intelligence, offers powerful tools for analyzing large datasets, predicting therapeutic outcomes, and optimizing nanomedicine design and administration protocols. This paper explores how machine learning techniques can enhance the efficacy of nanomedicine therapies by improving nanoparticle design, personalizing treatment regimens, predicting patient responses, and monitoring treatment progress in real time. It discusses recent advances, challenges, ethical considerations, and future prospects, emphasizing the critical role of ML in transforming nanomedicine from a one-size-fits-all approach to precision medicine.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.553
Machine Learning Techniques For Early Diagnosis Of Neurodegenerative Diseases
Authors: Priya Deshmukh
Abstract: Neurodegenerative diseases (NDs), such as Alzheimer’s disease (AD), Parkinson’s disease (PD), and amyotrophic lateral sclerosis (ALS), impose a significant burden on public health worldwide. These diseases typically develop insidiously over years, with symptoms becoming apparent only after substantial neuronal loss has occurred. Early and accurate diagnosis is paramount to implementing interventions that could delay progression, improve patient quality of life, and optimize healthcare resources. In recent years, machine learning (ML) has emerged as a revolutionary approach for processing complex biomedical data to assist in early diagnosis and prognosis of neurodegenerative conditions. This paper comprehensively explores the diverse machine learning methodologies applied to early ND diagnosis, emphasizing the role of neuroimaging, molecular biomarkers, genetic data, and clinical assessments. It discusses the entire diagnostic pipeline from data acquisition to model deployment, addresses challenges such as data heterogeneity and interpretability, and outlines future directions to integrate ML-based systems into clinical practice effectively.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.554
AI In Genomic Data Analysis: Unlocking Insights Into Complex Diseases
Authors: Satish Swamy
Abstract: The advent of high-throughput sequencing technologies has revolutionized genomics by generating massive volumes of data, uncovering the genetic basis of complex diseases. However, the sheer complexity and dimensionality of genomic data pose substantial challenges for traditional analytical methods. Artificial intelligence (AI), particularly machine learning and deep learning, provides powerful tools to analyze, interpret, and integrate genomic data to unravel the intricate genetic architecture of complex diseases. This paper explores AI methodologies applied in genomic data analysis, focusing on variant calling, functional annotation, gene-gene interactions, and disease risk prediction. It examines current applications, challenges such as data heterogeneity and model interpretability, and discusses future perspectives in advancing precision medicine.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.555
Predictive Analytics In Personalized Medicine: A Machine Learning Perspective
Authors: Tabassum Begum
Abstract: Personalized medicine, which aims to tailor healthcare interventions to individual patients, is revolutionizing modern healthcare. Predictive analytics, powered by machine learning algorithms, plays a pivotal role in this transformation by extracting valuable insights from vast and heterogeneous healthcare data. This paper explores the application of predictive analytics in personalized medicine, focusing on the machine learning methodologies that enable disease prognosis, patient stratification, and treatment optimization. We discuss the types of healthcare data utilized, challenges such as data quality and interpretability, and highlight case studies across various disease domains. Finally, we examine future prospects for integrating predictive analytics into routine clinical workflows to enhance patient outcomes.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.556
Deep Learning Applications In Histopathological Image Analysis
Authors: Shalini Nair
Abstract: Histopathological image analysis is a critical process in diagnosing a wide range of diseases, particularly cancers. Traditionally, it relies heavily on the expertise of pathologists to interpret tissue samples under a microscope. However, this manual approach is time-consuming, subject to inter-observer variability, and limited by human fatigue. Deep learning (DL), a subset of artificial intelligence, offers transformative potential in histopathology by automating image interpretation with high accuracy and consistency. This paper explores the applications of deep learning in histopathological image analysis, focusing on convolutional neural networks (CNNs), segmentation techniques, classification models, and recent advances in digital pathology. Challenges, such as data heterogeneity, annotation bottlenecks, and model interpretability, are discussed alongside future prospects for integrating DL into routine clinical workflows to improve diagnostic precision and patient outcomes.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.557
Utilizing AI For Drug Repurposing In Rare Diseases
Authors: Prabhu Nagrajan
Abstract: Rare diseases, affecting a small percentage of the population, present significant challenges in drug development due to limited patient numbers and scarce resources. Drug repurposing, which identifies new therapeutic uses for existing drugs, offers a promising approach to accelerate treatment availability and reduce costs. Artificial intelligence (AI), with its ability to analyze vast biomedical datasets and uncover hidden patterns, is transforming drug repurposing efforts. This paper explores how AI techniques such as machine learning, natural language processing, and network analysis are utilized to identify repurposing candidates for rare diseases. We discuss data sources, computational strategies, successful case studies, challenges in implementation, and the future outlook of AI-driven drug repurposing to enhance rare disease therapy development.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.558
Machine Learning Models For Predicting Patient Responses To Immunotherapy
Authors: Ritu Jain
Abstract: Immunotherapy has revolutionized cancer treatment by harnessing the immune system to recognize and eliminate malignant cells. However, despite its promising outcomes, patient responses to immunotherapy are highly heterogeneous, with many experiencing minimal benefits or adverse reactions. Accurately predicting which patients will respond positively is a critical challenge for clinicians aiming to tailor treatments effectively. Machine learning (ML), a branch of artificial intelligence capable of analyzing complex, high-dimensional datasets, has emerged as a powerful tool to develop predictive models that can forecast patient responses to immunotherapy. This paper explores the diverse ML techniques applied to immunotherapy response prediction, the integration of multi-omics and clinical data, the challenges faced in clinical translation, and future opportunities for advancing personalized cancer therapy through ML-driven insights.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.559
AI-Driven Approaches To Understanding The Human Microbiome
Authors: Nisha Prabhakar
Abstract: The human microbiome, consisting of trillions of microorganisms inhabiting various body sites, plays a critical role in health and disease. Recent advances in high-throughput sequencing and metagenomics have generated vast datasets characterizing the complex microbial communities and their functional capabilities. However, the intricate interactions between microbiota, host physiology, and environmental factors pose significant challenges to data interpretation and the extraction of actionable insights. Artificial intelligence (AI), particularly machine learning, offers powerful computational tools to analyze complex, high-dimensional microbiome data, identify novel patterns, predict disease associations, and inform personalized therapeutic strategies. This paper explores AI-driven approaches to deciphering the human microbiome, including data integration techniques, predictive modeling, challenges in microbiome research, and future perspectives for leveraging AI to transform microbiome science and precision medicine.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.560
Integrating Electronic Health Records With Machine Learning For Predictive Healthcare
Authors: Shruthi Singh
Abstract: Electronic Health Records (EHRs) have revolutionized healthcare by digitizing patient information, enabling comprehensive data capture across clinical settings. The integration of machine learning (ML) techniques with EHR data holds immense potential for predictive healthcare, facilitating early diagnosis, risk stratification, personalized treatment, and improved patient outcomes. This paper explores how machine learning algorithms applied to EHR datasets can transform healthcare delivery by enabling predictive analytics, clinical decision support, and population health management. Key challenges such as data quality, interoperability, privacy, and model interpretability are discussed alongside emerging solutions. The future of predictive healthcare lies in harnessing the synergy of EHRs and AI to advance precision medicine, reduce costs, and enhance healthcare accessibility.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.561
The Role Of AI In Accelerating Vaccine Development
Authors: Shalini Bhandar
Abstract: The traditional process of vaccine development is often lengthy, costly, and complex, involving multiple stages from antigen discovery to clinical trials. The integration of artificial intelligence (AI) in vaccine research has the potential to revolutionize this field by accelerating the design, testing, and production of vaccines. AI-powered tools and machine learning algorithms facilitate rapid antigen identification, prediction of immune responses, optimization of vaccine candidates, and streamlined clinical trial management. This paper explores how AI is transforming vaccine development by reducing timelines, enhancing precision, and improving safety and efficacy. Challenges such as data availability, model reliability, and ethical considerations are discussed, alongside future perspectives on AI-driven vaccine innovation, especially highlighted by the COVID-19 pandemic.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.562
Machine Learning In The Identification Of Novel Biomarkers For Chronic Diseases
Authors: Selva Murugan
Abstract: Chronic diseases such as diabetes, cardiovascular disorders, cancer, and neurodegenerative conditions represent a major global health burden. Early diagnosis and personalized treatment strategies significantly improve patient outcomes, and the identification of reliable biomarkers is central to these efforts. Machine learning (ML), a subset of artificial intelligence, has emerged as a powerful tool to analyze complex biomedical data and discover novel biomarkers that traditional statistical methods may overlook. This paper explores the application of machine learning techniques in identifying novel biomarkers for chronic diseases by integrating multi-omics data, clinical records, and imaging datasets. It discusses various ML algorithms, challenges in data preprocessing and interpretation, and the translational potential of ML-driven biomarker discovery for precision medicine.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.563
Strategic Implementation Of AI In Biotech Startups: Opportunities And Challenges
Authors: Hemanth Kumar, Madhu Gowda
Abstract: Artificial intelligence (AI) is rapidly transforming the biotechnology sector by enabling startups to accelerate research and development, optimize clinical trials, and develop personalized medicine approaches. This paper explores the strategic implementation of AI in biotech startups, examining both the remarkable opportunities AI offers and the significant challenges these emerging companies face in adopting such advanced technologies. We discuss the role of AI in drug discovery, diagnostics, and therapeutic innovation, while highlighting barriers related to data management, regulatory compliance, funding, and talent acquisition. The paper concludes by providing insights into overcoming these challenges through interdisciplinary collaboration, ethical practices, and strategic partnerships. Ultimately, successful AI integration is poised to revolutionize healthcare by enabling biotech startups to deliver groundbreaking treatments and improve patient outcomes.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.564
The Impact Of AI On Drug Development Pipelines: A Business Perspective
Authors: Naresh Kumar
Abstract: Artificial intelligence (AI) is reshaping drug development pipelines across the pharmaceutical industry, driving innovation, reducing costs, and shortening time-to-market for new therapies. This paper analyzes the impact of AI from a business perspective, focusing on how pharmaceutical companies and biotech startups leverage AI technologies to optimize discovery, preclinical research, clinical trials, and regulatory processes. The integration of AI not only enhances scientific outcomes but also transforms business models, investment strategies, and competitive dynamics. Challenges such as data governance, regulatory compliance, and workforce adaptation are discussed alongside strategic recommendations for successful AI adoption. This comprehensive analysis highlights how AI-enabled drug development can provide sustainable business value, foster industry disruption, and ultimately improve patient care worldwide.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.565
Economic Evaluation Of AI-Driven Diagnostic Tools In Healthcare
Authors: Sumanth Sai Krishna
Abstract: Artificial intelligence (AI) has revolutionized healthcare diagnostics by enabling faster, more accurate, and often less invasive disease detection. As AI-driven diagnostic tools become increasingly prevalent, assessing their economic impact is essential for healthcare providers, payers, and policymakers. This paper provides a comprehensive economic evaluation of AI diagnostic technologies, focusing on cost-effectiveness, budget impact, and value-based healthcare implications. It examines how AI tools influence healthcare costs, patient outcomes, workflow efficiencies, and access to care. Methodological approaches for economic evaluations, challenges in data collection and analysis, and case studies of successful AI diagnostic implementations are discussed. The paper also explores the broader systemic effects of AI diagnostics on healthcare delivery models, reimbursement strategies, and long-term sustainability. Ultimately, this evaluation underscores the potential for AI-driven diagnostics to deliver economic value while improving clinical outcomes and patient experiences.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.566
Business Models For AI-Enabled Personalized Medicine
Authors: Shailesh Yadav
Abstract: Personalized medicine, which tailors medical treatment to individual patient characteristics, has been significantly enhanced by advances in artificial intelligence (AI). AI enables the integration and analysis of vast amounts of patient data, facilitating precise diagnostics and personalized therapeutic interventions. The adoption of AI in personalized medicine is reshaping traditional healthcare business models by introducing new value creation mechanisms, revenue streams, and stakeholder dynamics. This paper explores the evolving business models that support AI-enabled personalized medicine, focusing on value propositions, revenue generation, partnerships, and challenges in commercialization. The analysis highlights how innovative business frameworks are essential to translating AI technologies into sustainable healthcare solutions that improve patient outcomes and deliver economic value. Strategic implications for startups, established healthcare providers, and payers are discussed, alongside considerations for regulatory environments and ethical dimensions. The paper concludes by outlining future trends and opportunities for business innovation in AI-driven personalized healthcare.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.567
The Role Of AI In Streamlining Clinical Trials: Cost And Time Implications
Authors: Nagendra Kumar, Manjesh Gowda
Abstract: Clinical trials are fundamental to the development of new drugs and therapies, but they are also notoriously time-consuming, expensive, and complex. With traditional processes often taking more than a decade and costing billions, there is a growing need for innovation to make clinical trials more efficient and cost-effective. Artificial Intelligence (AI) offers transformative solutions by automating data analysis, optimizing patient recruitment, improving trial design, and enabling real-time monitoring. This paper explores how AI is revolutionizing clinical trial processes, significantly reducing time and cost while improving accuracy and patient outcomes. It also examines challenges in implementation, regulatory concerns, and future prospects. By integrating AI into the clinical trial lifecycle, pharmaceutical companies, contract research organizations (CROs), and healthcare providers can accelerate drug development and deliver safer, more effective therapies to market.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.568
Harnessing Environmental Microbes for Green Nanomaterial Fabrication
Authors: Karthekia Mahesh
Abstract: In the era of sustainable development, the need for eco-friendly and cost-effective methods for synthesizing nanomaterials has gained significant momentum. Traditional physical and chemical approaches for nanoparticle synthesis are often energy-intensive, environmentally hazardous, and economically burdensome. In contrast, the use of environmental microbes for green nanomaterial fabrication offers a promising and sustainable alternative. These microbes possess remarkable biochemical versatility and are capable of synthesizing various metallic and metal oxide nanoparticles under mild conditions. This review explores the vast potential of environmental microbes—such as bacteria, fungi, actinomycetes, and algae—in the biosynthesis of nanomaterials. It outlines the mechanisms underlying microbial nanomaterial synthesis, including intracellular and extracellular pathways, and highlights their ecological significance and functional properties. Moreover, it discusses current and emerging applications of biogenic nanoparticles in medicine, agriculture, and environmental remediation. Challenges in large-scale production, standardization, and regulatory compliance are also addressed. By integrating microbial biotechnology with nanoscience, researchers are paving the way for innovative, sustainable solutions across multiple sectors while promoting environmental integrity.
The Microbiome-Nanoparticle Nexus: Ecological and Biomedical Dimensions
Authors: Manjunatha S Aradhya
Abstract: The human and environmental microbiomes constitute complex microbial ecosystems that play vital roles in maintaining ecological balance and promoting health. With the rapid advancement of nanotechnology, engineered nanoparticles (ENPs) are increasingly entering natural and clinical environments, raising concerns and opportunities regarding their interaction with microbial communities. The emerging interface between nanoparticles and the microbiome, termed the microbiome-nanoparticle nexus, represents a multidisciplinary frontier with significant implications for ecology and biomedicine. This review explores the dynamic interactions between various types of nanoparticles and the microbiome across environmental and host-associated settings. It examines how nanoparticles influence microbial diversity, metabolic functions, and resilience, while also evaluating microbial roles in nanoparticle transformation, detoxification, and biosynthesis. The biomedical potential of microbiome-engineered nanomaterials for drug delivery, diagnostics, and immunomodulation is critically discussed. Challenges related to nanoparticle toxicity, resistance evolution, and regulatory gaps are addressed. The review emphasizes the need for integrative approaches combining microbiology, nanoscience, and systems biology to fully understand and harness the microbiome-nanoparticle nexus for ecological sustainability and human health.
Nanotechnology-Assisted Microbial Biosensors For Ecological Monitoring
Authors: Tejas Naidu
Abstract: The integration of nanotechnology with microbial biosensing systems has opened new avenues for precise, real-time ecological monitoring. Conventional environmental assessment techniques often fall short in terms of sensitivity, specificity, and speed, necessitating the development of more responsive and cost-effective alternatives. Microbial biosensors—living biological systems capable of detecting environmental pollutants—have emerged as promising tools due to their specificity, adaptability, and self-replicating nature. The incorporation of nanomaterials into these biosensors enhances their functional properties, including signal transduction, stability, and miniaturization. This review explores the synergy between nanotechnology and microbial biosensing, focusing on the design, mechanisms, and applications of nanotechnology-assisted microbial biosensors in ecological monitoring. Key developments in nanomaterials such as carbon nanotubes, quantum dots, metal nanoparticles, and nanocomposites are discussed in the context of their role in improving biosensor performance. The review also highlights the environmental pollutants targeted by these biosensors—ranging from heavy metals and pesticides to endocrine disruptors and greenhouse gases—and evaluates their deployment in field settings. Challenges related to biosafety, scalability, and regulatory frameworks are analyzed alongside future research directions. By merging microbial intelligence with nanotechnological precision, this emerging technology offers transformative potential in promoting environmental sustainability and public health.
Microbial Consortia and Nanoparticles for Integrated Ecosystem Services
Authors: Nanda Prajesh
Abstract: The convergence of microbial consortia and nanotechnology offers unprecedented opportunities for enhancing integrated ecosystem services, including bioremediation, soil fertility, nutrient cycling, climate regulation, and pollution mitigation. Microbial consortia—carefully selected or engineered communities of interacting microorganisms—are naturally adept at adapting to diverse environmental conditions, collaborating metabolically, and driving complex biogeochemical processes. When coupled with the unique catalytic, adsorptive, and reactive properties of nanoparticles, these consortia form powerful bio-nano systems that extend the capabilities of traditional environmental management practices. This review explores the emerging field of microbial consortia-nanoparticle integration for ecosystem services. It examines their synergistic functions, mechanisms of interaction, applications in various environmental domains, and the ecological and regulatory challenges they pose. The article also highlights the role of synthetic biology, systems ecology, and green nanotechnology in designing robust, sustainable consortia-nano platforms. Understanding and harnessing these synergistic relationships hold the key to solving complex environmental challenges and advancing the goals of ecosystem resilience and sustainability.
Microbial Nanotechnology in the Mitigation of Industrial Pollution
Authors: Rajesh Gowda
Abstract: The global escalation in industrial activities has led to an alarming surge in environmental pollution, affecting ecosystems and public health. Industrial effluents, laden with toxic heavy metals, organic dyes, hydrocarbons, and gaseous pollutants, have outpaced the efficacy of traditional remediation techniques. In this context, microbial nanotechnology—a multidisciplinary approach combining microbiology and nanoscience—has emerged as a promising and sustainable strategy for pollution control. This review explores the green synthesis of nanoparticles by environmental microbes and their potential applications in mitigating industrial pollution. The discussion spans the mechanisms of pollutant degradation, the advantages of microbial-nanoparticle hybrids, and their performance in real-world settings such as wastewater treatment, air purification, and soil remediation. The review further evaluates the ecological implications, challenges in scale-up, and prospects of integrating microbial nanotechnology in industrial decontamination frameworks. By leveraging the synergistic capabilities of microbes and nanomaterials, this innovative field offers scalable and eco-friendly solutions to pressing environmental challenges.
Nanobioremediation: Microbe-Nano Solutions To Environmental Contaminants
Authors: Sakshi Nadig
Abstract: Environmental contamination by heavy metals, organic pollutants, and synthetic chemicals represents a growing threat to ecosystems and human health. Traditional remediation methods, while often effective, can be costly, non-specific, or environmentally invasive. The integration of nanotechnology with microbial biotechnology—termed nanobioremediation—offers a promising, eco-friendly solution to environmental detoxification. This review explores the synergistic potential of microbes and nanomaterials in addressing a broad range of environmental contaminants. It discusses the mechanisms by which microorganisms interact with engineered nanomaterials, leading to enhanced biodegradation, metal sequestration, and pollutant transformation. The synthesis of nanoparticles by microbes (biogenic nanoparticles) and their application in situ for pollutant degradation is also addressed. Furthermore, the article highlights case studies demonstrating successful nanobioremediation strategies in soil, water, and wastewater systems. Finally, potential ecological risks, regulatory considerations, and future research directions are outlined, underscoring the role of nanobioremediation in advancing sustainable environmental management.
Bioinspired Nanomaterials from Soil Microbiomes: Ecological Functions and Applications
Authors: Nagesh Sukla
Abstract: The soil microbiome, a complex ecosystem teeming with diverse microorganisms, plays a pivotal role in maintaining terrestrial ecosystem balance. Recent advances in nanoscience have revealed that soil microbes can mediate the biosynthesis of nanomaterials, leading to the emergence of bioinspired nanomaterials (BINMs) that emulate natural design principles. These microbial nanomaterials exhibit unique physicochemical properties and biocompatibility, making them highly desirable for sustainable technological applications. This review explores the ecological functions of microbial nanomaterials derived from soil microbiomes, focusing on their roles in biogeochemical cycles, plant-microbe interactions, and environmental stress modulation. Additionally, it delves into their promising applications in agriculture, environmental remediation, and nanomedicine. The article also discusses the molecular mechanisms of microbial nanomaterial synthesis, their structural diversity, and challenges in harnessing them for real-world applications. With growing interest in green nanotechnology, the integration of microbial ecology with materials science provides a novel and sustainable route for the development of multifunctional nanomaterials.
Symbiotic Relationships between Microorganisms and Nanomaterials in Natural Systems
Authors: Surendra Sharma
Abstract: The intersection of nanotechnology and microbiology has unveiled a dynamic frontier where microorganisms and nanomaterials engage in complex interactions that mirror symbiotic relationships in natural systems. These interactions encompass mutualism, commensalism, and even parasitism, influencing ecological balance, biogeochemical cycling, and environmental resilience. This review explores the multifaceted and often synergistic relationships between microorganisms and nanomaterials in terrestrial and aquatic ecosystems. It discusses microbial influence on the synthesis, transformation, and mobility of nanomaterials, and conversely, how nanomaterials affect microbial metabolism, diversity, and ecological functions. Emphasis is placed on biogenic nanoparticles, microbial nanocomposites, and the role of environmental conditions in shaping nano-microbe symbiosis. These natural and engineered partnerships have significant implications for environmental remediation, nutrient cycling, plant growth promotion, and climate-responsive ecosystem management. The article also highlights the dual-edged role of nanomaterials as both facilitators and stressors for microbial communities, underscoring the need for a nuanced understanding of their ecological interplay to safely harness their potential in environmental applications.
Eco-Nano Interfaces: Exploring the Role of Microbes in Nanoparticle Mobility and Toxicity
Authors: Tejaswini Gowda
Abstract: The advent of nanotechnology has revolutionized various sectors, including environmental sciences, with engineered nanoparticles (ENPs) being increasingly deployed in remediation, agriculture, and industrial applications. However, their unintentional release into ecosystems raises concerns regarding their environmental fate, mobility, and toxicity. At the core of these processes lie the dynamic interactions between ENPs and microbial communities within soil and aquatic ecosystems. Microorganisms are not passive players but active agents influencing the transformation, transport, and bioavailability of nanoparticles (NPs). Simultaneously, ENPs exert selective pressures on microbial diversity, functionality, and metabolic pathways. This review explores the complex eco-nano interface, focusing on how microbes modulate the mobility and toxicity of nanoparticles in natural habitats. It discusses the physicochemical factors affecting microbe-nanoparticle interactions, the role of extracellular polymeric substances (EPS), biofilms, redox conditions, and enzymatic activity in shaping NP behavior. Additionally, the bidirectional impact of NPs on microbial communities and ecosystem services is critically evaluated. A better understanding of these interfaces is essential for predicting long-term environmental risks and for developing sustainable applications of nanotechnology that align with ecological integrity.
DOI: http://doi.org/10.61137/ijsret.vol.8.issue6.577
Biogeochemical Cycling Mediated By Nanoparticle-Producing Microorganisms
Authors: Vandana Prasad
Abstract: Microorganisms are pivotal drivers of Earth's biogeochemical cycles, mediating transformations of essential elements such as carbon, nitrogen, sulfur, and metals. In recent years, attention has increasingly turned to the capacity of certain microbes to synthesize nanoparticles either as byproducts of metabolism or through controlled biological processes. These nanoparticle-producing microorganisms (NPMs) exert significant influence on the fate, transformation, and mobility of both organic and inorganic compounds in the environment. This review explores the role of NPMs in biogeochemical cycling, focusing on how microbially synthesized nanoparticles modulate redox reactions, element sequestration, nutrient availability, and ecosystem feedback loops. Emphasis is placed on the interface between microbial metabolism and nanomaterial formation, including mechanisms such as enzymatic reduction, biomineralization, and biosorption. We also examine the ecological implications of these microbial-nanoparticle interactions for soil and aquatic environments, including their influence on pollutant transformation, metal immobilization, and carbon sequestration. Finally, we highlight the biotechnological potential of leveraging these processes for sustainable environmental management and propose future research directions for understanding nanoparticle-mediated geochemical transformations.
Enhanced Cosmic Ray Detection Using an Improved Cloud Chamber, Magnetic Deflection, and Altitude-Based Statistical Analysis
Authors: Jaza Anwar Sayyed, Ansari Novman Nabeel, Ansari Ammara Firdaus
Abstract: Cosmic rays are high-energy particles originating from space that interact with Earth's atmosphere, producing secondary particles such as muons, electrons, and positrons. Detecting these particles provides insights into high-energy astrophysics, fundamental physics, and atmospheric interactions. The cloud chamber, a classical particle detector, is widely used for visualizing cosmic ray interactions; however, it has limitations in charge differentiation, track resolution, and statistical validation. This study presents an improved cloud chamber setup with enhanced cooling, optimized lighting, and high-speed imaging for better track visibility. A magnetic field is implemented to distinguish electrons from positrons based on curvature. Additionally, cosmic ray flux measurements are conducted at varying altitudes (0m–2000m) to analyze atmospheric interactions. Advanced statistical modeling, including Pearson correlation, Poisson distributions, and exponential regression, is applied to validate the data. Results confirm that muon flux increases exponentially with altitude, while the magnetic field effectively differentiates between electrons and positrons. This study establishes a cost-effective, scalable framework for cosmic ray research, making it suitable for both laboratory and field experiments.
Data Privacy And Security Challenges In IoT Healthcare
Authors: Nithin Nanchari
Abstract: The Internet of Things in healthcare provides healthcare with its delivery of patient care from real-time data monitoring, remote diagnostics, and personalized treatment. However, due to this advancement, there are data privacy and security issues like data breaches, cyber threats, and unauthorized access. The paper contributes by identifying the potential key security issues and vulnerabilities in IoT healthcare and how data has been routed through vulnerabilities, ensuring the security of the healthcare system.
DOI: http://doi.org/10.5281/zenodo.15796381
Prompt Engineering Techniques For Einstein Copilot Bot Efficiency
Authors: Andriy Petrenko
Abstract: Prompt engineering stands as a cornerstone for maximizing the efficiency and effectiveness of AI-driven assistants like Salesforce Einstein Copilot. This article explores the advanced techniques and best practices for prompt engineering that enable organizations to extract the highest value from their AI investments. By focusing on clarity, specificity, and contextual relevance, prompt engineering ensures that Einstein Copilot delivers accurate, actionable, and personalized responses across a wide range of business processes. The article delves into the integration of prompt engineering within Salesforce’s ecosystem, emphasizing how custom prompts, iterative testing, and ethical considerations contribute to seamless user experiences and robust automation. Through practical examples and expert insights, the article demonstrates how prompt engineering not only streamlines workflows but also enhances decision-making, productivity, and scalability. The discussion is grounded in real-world applications, highlighting the role of prompt engineering in automating routine tasks, supporting complex decision-making, and maintaining consistency as organizational needs evolve. Ultimately, this article serves as a comprehensive guide for Salesforce administrators, developers, and business leaders seeking to harness the full potential of Einstein Copilot through strategic prompt engineering.
DOI:
AI-Augmented Case Management With Salesforce Omnichannel Routing
Authors: Suranga Jayawardene
Abstract: As customer expectations for rapid, personalized, and seamless support continue to rise, organizations are increasingly turning to advanced technologies to transform their customer service operations. AI-augmented case management, when integrated with Salesforce Omnichannel Routing, represents a paradigm shift in how businesses handle customer inquiries and support tickets. This integration leverages artificial intelligence to automate, prioritize, and intelligently route cases across multiple channels—such as email, chat, phone, and social media—ensuring that each customer interaction is handled by the most suitable agent or automated system. The result is a dramatic improvement in both operational efficiency and customer satisfaction. AI-driven tools within Salesforce analyze incoming cases based on urgency, sentiment, past resolutions, and agent skill sets to make real-time routing decisions. This automation not only reduces manual workload but also minimizes wait times and increases first-contact resolution rates. Furthermore, AI-powered chatbots and knowledge base integrations offer instant answers to common queries, deflecting a significant portion of cases before they reach human agents. Predictive analytics help identify cases at risk of escalation, enabling proactive intervention. The Omnichannel Routing feature of Salesforce provides a unified platform for managing work items from all customer touchpoints, allowing agents to work across channels without switching systems. This flexibility, combined with AI’s analytical capabilities, ensures that agents are always assigned work they are best equipped to handle, maximizing productivity and job satisfaction. The convergence of AI and omnichannel routing in Salesforce not only streamlines case management but also equips organizations with actionable insights to continuously refine their support processes. In summary, AI-augmented case management with Salesforce Omnichannel Routing empowers businesses to deliver faster, more accurate, and personalized customer service. By automating routine tasks, optimizing agent assignments, and leveraging predictive insights, organizations can address the challenges of growing support volumes and complex customer needs, ultimately driving higher customer loyalty and operational excellence.
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Building SLO-Centric Observability with Splunk, Dynatrace, and Stackdriver in Microservices Environments
Authors: Harish Govinda Gowda
Abstract: In modern microservices-driven architectures, ensuring system reliability and user satisfaction demands a shift from traditional infrastructure monitoring to a Service Level Objective (SLO)-centric observability model. This paper explores how enterprises can leverage powerful platforms—Splunk, Dynatrace, and Google Stackdriver—to define, track, and enforce SLOs that align closely with real user experiences. It discusses the theoretical underpinnings of SLO-based monitoring, contrasts it with older paradigms like system uptime and generic thresholds, and outlines the integration challenges and architectural considerations of implementing observability at scale. Drawing from real-world case studies across finance, telecom, and e-commerce, the paper showcases successful applications of SLO frameworks in reducing alert fatigue, improving mean time to resolution, and enhancing cross-team accountability. It also presents a set of best practices and actionable recommendations for organizations at various stages of their observability journey.
Translating Business Logic Into Technical Design: Mockup-to-Metadata Model For BI Projects
Authors: Ajay Kumar Kota
Abstract: In successful Business Intelligence (BI) projects, the transition from business requirements to technical implementation is often the most critical—and misunderstood—phase. This article introduces a structured approach for translating business logic into robust technical design through a "Mockup-to-Metadata" model. It explores how initial user mockups and conceptual dashboards can be methodically mapped to metadata layers, data models, and technical specifications. Emphasis is placed on identifying KPIs, filter logic, hierarchies, and aggregations early in the design process to avoid ambiguity and ensure alignment. By standardizing the translation process, BI teams can bridge the gap between non-technical business users and data architects, reduce project rework, and deliver consistent, scalable, and validated analytics solutions. Through practical frameworks, step-by-step mapping strategies, and a pharma-based case study, the article demonstrates how to build metadata-driven BI systems that are agile, auditable, and stakeholder-centric. This approach empowers organizations to foster collaboration, maintain governance, and accelerate delivery in complex BI environments.
DOI: https://doi.org/10.5281/zenodo.16022434
Unlocking Business Growth Using AI-Powered Automation, Predictive Insights, And Scalable Tools
Authors: Suresh Gollapudi
Abstract: – This article explores how businesses can drive sustainable growth by leveraging artificial intelligence (AI) across three core dimensions: AI-powered automation, predictive insights, and scalable tools. As markets grow increasingly complex and customer expectations evolve, traditional approaches to scaling are no longer sufficient. AI-powered automation helps reduce operational costs and boost efficiency by handling repetitive tasks. Predictive insights transform decision-making by forecasting outcomes and guiding strategic action, while scalable AI tools ensure that growth does not come at the expense of agility or manageability. The article presents real-world use cases and best practices, demonstrating how organizations—from startups to enterprises—can integrate AI into core functions, break down departmental silos, and build adaptive, future-ready business models. With a forward-looking view on ethical AI use and emerging trends such as generative AI and real-time analytics, the article provides a roadmap for unlocking business growth in a digitally-driven economy.
DOI: https://doi.org/10.5281/zenodo.16742282
Using AI To Combat Burnout: Smarter Tools For Managing Stress In Fast-Paced Work Environments
Authors: Bhavani Uyyala
Abstract: Workplace burnout is an escalating challenge in today’s high-speed, always-connected professional environments. Traditional stress management solutions often lack personalization, timeliness, and scalability, leaving many employees without effective support. Artificial Intelligence (AI) presents a powerful new avenue for identifying, preventing, and managing burnout through real-time insights and smart automation. By analyzing behavioral, biometric, and communication patterns, AI systems can detect early signs of stress, offer personalized recommendations, and automate routine tasks to reduce cognitive overload. From AI-powered wellness platforms and wearables to intelligent scheduling and sentiment analysis tools, these innovations enable proactive intervention before burnout escalates. However, the ethical use of such technology is critical—ensuring privacy, transparency, and consent remain central to implementation. This article explores how AI-driven tools are reshaping workplace wellness, helping individuals take control of their mental health while empowering organizations to create more sustainable, human-centered work cultures. As we look ahead, AI will not replace human care—it will enhance it, making resilience part of everyday work design.
DOI: https://doi.org/10.5281/zenodo.16742259
Using AI To Drive Innovation In Nutrition, Supplements, And Preventative Health Products
Authors: Vignesh Arumugam
Abstract: – The intersection of artificial intelligence (AI) and preventative health is transforming how nutrition and wellness products are developed, delivered, and personalized. As consumer demand shifts toward proactive and personalized healthcare, AI enables the creation of smarter formulations, data-driven recommendations, and adaptive supplement protocols tailored to individual biology. From analyzing biomarker and microbiome data to predicting nutrient deficiencies in real time, AI tools are redefining the speed and accuracy of innovation in the wellness industry. This article explores how AI is revolutionizing product development, scaling personalization, optimizing supply chains, and reshaping business models within the health and nutrition sector. It also addresses the ethical and regulatory challenges of AI-driven health solutions, offering real-world case studies and future projections. Ultimately, the integration of AI is enabling a shift from generalized wellness offerings to continuous, personalized health optimization—unlocking new opportunities for entrepreneurs, clinicians, and consumers alike.
DOI: https://doi.org/10.5281/zenodo.16742377
The Lean AI Startup: Building High-Impact Ventures With Fewer Resources And Smarter Tech
Authors: Shanthi Eshwaran
Abstract: The Lean AI Startup represents a powerful evolution in how ventures are launched and scaled—combining the speed and frugality of lean startup principles with the intelligence and efficiency of Artificial Intelligence. This article explores how founders can validate ideas, build smart MVPs, automate business functions, and grow sustainably using AI from day one. By integrating accessible tools like no-code AI platforms, predictive analytics, and intelligent automation, startups can operate with minimal resources while delivering maximum value. The piece highlights how AI accelerates product development, improves decision-making, personalizes user experiences, and enables rapid iteration without large teams or inflated budgets. It also addresses potential pitfalls such as ethical concerns, over-reliance on automation, and data privacy. Featuring real-world examples, this guide illustrates that the future of entrepreneurship lies in building lean, data-driven, and highly scalable ventures. With the right approach, any founder can leverage AI to create efficient, impactful startups that thrive in a competitive digital economy.
DOI: https://doi.org/10.5281/zenodo.16742455
Implementing Omni-Channel Automation In Salesforce While Maintaining System Resilience In Unix Hybrid Cloud Architectures
Authors: Kuldeep Mann
Abstract: Hybrid enterprise environments that combine legacy Unix systems with Salesforce CRM platforms face unique challenges in maintaining operational continuity, data consistency, and system resilience. This review examines strategies for implementing omni-channel automation in Salesforce while ensuring backend Unix systems remain reliable and scalable. Key topics include workflow orchestration, real-time data synchronization, AI-assisted monitoring, and predictive anomaly detection. Integration strategies using APIs and middleware are explored, along with security, compliance, and access control measures. Case studies from financial services and healthcare illustrate practical applications and highlight best practices for seamless automation and resilient hybrid cloud operations. Emerging trends, such as cloud-native resilience tools, AI-driven workflow optimization, and autonomous system management, are analyzed to provide future-ready guidance. The review concludes that combining omni-channel automation with robust hybrid Unix architectures enables enterprises to deliver efficient, secure, and uninterrupted CRM services, optimizing operational efficiency while enhancing customer experience and organizational agility.
Modernizing CRM With Einstein Copilot While Preserving Compliance On AIX, Solaris, And Hybrid Infrastructure Environments
Authors: Harjit Sekhon
Abstract: Enterprises seeking to modernize CRM operations face the challenge of integrating AI-driven tools with legacy Unix systems while maintaining compliance, security, and operational resilience. This review examines strategies for implementing Salesforce Einstein Copilot in hybrid environments comprising AIX, Solaris, and cloud platforms. Key topics include AI-assisted automation, predictive analytics, workflow orchestration, middleware and API integration, and monitoring for real-time synchronization. The study explores compliance and security requirements, highlighting access control, encryption, auditability, and regulatory adherence. Case studies from financial services, healthcare, and life sciences demonstrate practical applications, emphasizing best practices in system integration, high availability, and fault tolerance. Emerging trends such as cloud-native infrastructures, autonomous system management, and predictive analytics are discussed to provide a roadmap for future-ready CRM operations. The review concludes that combining AI-powered automation with resilient legacy infrastructure enables enterprises to achieve operational efficiency, secure and compliant workflows, and enhanced customer engagement.
The impact of AI-driven observability on application performance monitoring
Authors: Aarav Menon
Abstract: -driven observability is revolutionizing the landscape of application performance monitoring (APM). Traditional methods reliant on manual analysis and static threshold alerts are increasingly insufficient to cope with the complexity and dynamic nature of modern digital applications. AI-enabled observability leverages advanced machine learning, anomaly detection, and automated root cause analysis to provide real-time, actionable insights into application health, user experience, and infrastructure performance. This paradigm shift enables organizations to swiftly identify and mitigate performance bottlenecks, reduce downtime, and optimize resource utilization. By integrating telemetry data from logs, metrics, and traces, AI-driven solutions synthesize vast amounts of heterogeneous data into meaningful patterns that empower proactive decision-making. This article explores the transformative impact of AI-driven observability on APM, detailing its core mechanisms, benefits, key technologies, practical applications, challenges, and future trends. The integration of AI not only enhances detection accuracy but also enables predictive analytics, thereby preventing issues before they affect end users. Through this comprehensive examination, readers will gain insight into how organizations can harness AI-driven observability to achieve superior application reliability, operational efficiency, and business agility in an increasingly digital economy.
The impact of autonomous incident response systems on reducing downtime
Authors: Kavya Sunder
Abstract: Autonomous incident response systems are rapidly transforming how organizations manage IT operations and cybersecurity events. These systems leverage advanced technologies such as artificial intelligence (AI), machine learning (ML), and automation to detect, analyze, and respond to incidents without requiring manual intervention. By enabling faster and more accurate identification of threats and operational anomalies, autonomous incident response systems substantially reduce downtime and improve overall business continuity. This article explores the mechanisms through which these systems operate, their impact on reducing downtime, and the advantages they provide over traditional, manual incident management approaches. With the increasing complexity of IT infrastructure and the rising frequency of cyber-attacks, traditional incident response methods often fall short in speed and efficiency. Human-led responses are constrained by limited capacity, prone to errors, and unable to keep pace with modern threats. Autonomous systems address these challenges by continuously monitoring environments, correlating data from diverse sources, and executing predefined or adaptive response strategies swiftly. This results in minimized disruption, faster recovery, and better alignment with organizational objectives.This article also discusses various case studies and real-world applications where autonomous incident response systems have significantly decreased downtime and optimized operational resilience. Challenges associated with implementing these systems, such as integration complexity and trust in automated decisions, are analyzed alongside future trends, emphasizing the growing importance of AI-driven incident response in digital transformation strategies. Ultimately, autonomous incident response systems empower organizations to proactively manage incidents, thus preserving service availability and enhancing stakeholder confidence.
DOI: https://doi.org/10.5281/zenodo.17707593
Design Patterns in Modern Java Enterprise Applications and its future
Authors: Vinod Kumar Jangala
Abstract: Design patterns play a pivotal role in addressing recurring design challenges in modern Java Enterprise applications by providing reusable, proven solutions that enhance maintainability, scalability, and architectural consistency. As enterprise systems evolve toward distributed, cloud-native, and microservices-based architectures, the effective application of design patterns has become increasingly critical for managing system complexity, supporting modular development, and ensuring long-term adaptability. This paper presents a comprehensive review of design patterns in modern Java Enterprise environments, examining their relevance, practical applications, and limitations within contemporary development frameworks such as Spring, Jakarta EE, and MicroProfile. The study systematically categorizes patterns into creational, structural, behavioral, and enterprise integration patterns, analyzing how each category addresses specific challenges related to object creation, component composition, interaction management, and inter-service communication. Particular emphasis is placed on the integration of classical Gang of Four (GoF) patterns with enterprise-specific and cloud-native patterns, including Dependency Injection, Facade, Observer, Strategy, and Enterprise Integration Patterns, within microservices, reactive systems, and containerized deployments. The paper further evaluates framework-level support for pattern implementation, highlighting how inversion of control, aspect-oriented programming, messaging frameworks, and service orchestration platforms simplify pattern adoption while introducing considerations related to performance, abstraction overhead, and vendor dependency. Performance implications, scalability concerns, and common pitfalls such as overengineering and improper pattern selection are critically discussed. Additionally, emerging trends, including cloud-native design patterns, event-driven architectures, and AI-assisted architectural optimization, are explored as future directions for pattern-driven enterprise design. By synthesizing existing literature and practical insights, this review provides a holistic reference for developers, architects, and researchers seeking to apply design patterns effectively in modern Java Enterprise applications, ensuring robust, scalable, and maintainable software systems in rapidly evolving technological landscapes.
DOI: https://doi.org/10.5281/zenodo.18465049