Learning management system

About Machine Learning System (M-LMS)

About Machine Learning System (M-LMS)

  What is machine learning? Every person-object-animal scattered around you is following a certain time-to-time pattern. Combining information from the past history of something enriches our experience when you carefully consider what might happen to that thing in the future. Now if we can use this same thing machine/computer to extract a pattern of something with enough past history/data and from there we try to know a possible future outcome this whole thing is called machine learning. Simply put, you feed the machine various historical/past/experienced data -> the machine analyzes it and builds models/finds patterns -> finally predicts the future results from it, that’s machine learning. Usually through programming we give detailed instructions to the computer to work. But that is not done in the field of machine learning. In this case, the data is given to the machine learning model. The machine learning model finds and classifies different patterns in the data. Through which the computer can predict/recognize different things.   Types of Machine Learning: Machine learning is mainly of 2 types. 1) Supervised learning. 2) Unsupervised learning. Supervised Learning: In this case, the machine learning model is trained with labeled data. The data given to the model contains various features and labels. Now an example can be given to understand features and labels. Suppose a child is given an orange and an apple. He is shown the properties of orange and apple and told that this is an orange and this is an apple. Later he can easily recognize which is an orange and which is an apple. In this case orange is a label and features of orange are features. Again apple is a label and features of apple are features. The data used in supervised learning consists of labels and its features. As in the above example, the computer is first recognized/taught. Later, it can recognize itself. That is, it can predict labels based on features. Linear regression, random forest, Support Vector Machine Supervised Machine Learning Algorithms. Unsupervised Learning: In this case, the machine learning model is not trained with labels and its features. The model classifies the data based on the similarity between the data. Suppose a child who does not know oranges and apples is given 10 oranges and 10 apples in a basket. He doesn’t know which is an orange and which is an apple. Now he is asked to put those that are similar together. He must be able to divide the fruits into two, one part of which will be orange (10) and the other part will be apple (10). The child could do the work without knowing whether it is an orange or an apple. Because an orange and an apple have no similarity. Again, there is a complete similarity between two oranges. He is able to divide them into 2 by seeing this similarity and dissimilarity. In case of unsupervised learning, MEDAL works like this. The model separates or classifies the data based on various similarities and differences. Unsupervised Machine Learning Algorithms like k-means clustering, KNN etc. Machine Learning and Deep Learning: Artificial intelligence is a subset of machine learning and deep learning is a subset of machine learning. So we can call deep learning as machine learning. We can thus say that deep learning is unsupervised machine learning where unstructured data is used. The key here is unstructured data. When we take structured data it will be supervised/unsupervised machine learning. But when we take unstructured data, it will become deep learning. In supervised / unsupervised machine learning, raw data is processed into structured data and the model is trained with that structured data. And in deep learning, raw data is directly input. Eg. Neural Networks (Deep Learning) find and classify various features in that data. An example can be given. First let’s say what is features extraction. Suppose a model is given images of fruits such as mango, jam, jackfruit etc. as data and their characteristics are given. In this case the label is mango, jam, jackfruit etc. and its features are features. Here we tell a model that the characteristics of mango, jam, jackfruit etc. These are This work is called features extraction. In general machine learning, features are extracted from the data and fed to the model. But in the case of deep learning, the programmer does not do the job of expression of these features. The programmer creates the neural network which does the job of feature extraction and classification by itself. In this case, the issue is that in the neural network, we give as data the image of mango, it is a picture of a tree etc. But we do not say what will be the features of the mango/jam/tree. The neural network automatically understands what the mango/jam/jam features are and classifies them accordingly. Now the question may come why we should use deep learning. What benefits will we get as a result of deep learning? Facebook stores the data of a Facebook user. What kind of posts he likes. What kind of posts he comments on. What kind of groups he is active in. His geolocation. What kind of people he likes to talk to. And various other data. The data is huge and Different types. In this case, the work of features extraction becomes difficult. In this case, deep learning technique is useful. Again, Google or other search engines also have different types and huge amount of data. In this case, it is never possible to do features extraction. Deep learning is very useful when working with large amount of data. Because in that case feature extraction/structuring the data is difficult or impossible. In this case we use deep learning. Deep learning is used in voice recognition, language translation, object detection, search engines etc. All you need to know to learn machine learning: Must have good understanding of Python/R (R) programming language. Must know about data structures and algorithms. To work with machine learning you need to know the following

Academic Learning Management System

Academic Learning Management System

What is Academic Learning System? An academic learning system is an educational institution, generally an educational institution or educational set in which learning, learning and social integration of students are coordinated. The system supports the curriculum, teacher’s instructions, learning materials, and other educational resources for students. The purpose of the academic learning system is to support students’ learning and acquisition of knowledge, which can be accomplished from primary education to higher education and professional education. Academic learning system basically has the following aspects: Educational institutions: This system is used in higher education institutions, such as colleges, universities, schools, and other educational institutions. Academic Curriculum: The institution reviews and determines appropriate curriculum and teacher instruction for students. Teacher-Student Synthesis: In educational institutions, teachers help students develop academically and help students develop socially and academically. Assessment: Appropriate assessment of students is generally adequate by providing tools to monitor academic achievement. Education: Educational institutions provide adequate support to students by determining vocational education and career. Classroom Management: Provides a medium for building student relationships, curriculum management, grading, and other classroom materials. The purpose of the academic learning system is to help students succeed and enhance their education so that they can contribute to society. The academic learning system mainly deals with the administrative and educational questions of the students, which support their overall learning experience and development. Following are some of the key highlights of these topics: Curriculum planning and revision has recently become an important issue in academic learning systems. It can be part of the academic year course of a particular subject institution or educational institution. The system consists of assessment systems to help assess students and generally monitor educational progress. The system allows teachers to build relationships with students and provides tools to help students receive instruction and objectives on a daily or weekly basis. Curriculum provides materials for students, including books, writing materials, graphical materials, software, and other commonly used learning materials. The system generally provides testing and assessment tools to assess educational progress and literacy. Vocational education and career guidance is provided to the students in this system providing adequate support to their vocational education and career career. These significant factors form the fundamental aspects of the academic learning system about student learning. The Current State of Academic Learning Academic learning system is currently an important system related to recent education and educational policy. Especially in the post-pandemic mood, this system has seen several changes and improvements. The following current conditions are commonly observed in academic learning systems: Growth of online education: The first and most important change is the increase in attempts at online education. Students can receive education on various digital platforms, making interaction with experts from around the world common. Collaboration Technology: Especially in primary and secondary education, collaboration technology has become extremely important. Condensation tools, video conferencing platforms, and educational software are recent additions to the learning process. School Management System: Management and examination management support systems have been implemented in educational institutions to provide easy access to information and status of students. Academic Analytics: Data analysis and academic analytics can improve student engagement with students. Military education: Military education offers a variety of technologies to help students use more institutions. During this time, academic learning systems have witnessed tremendous opportunism and growth, and these systems have not been fundamental in the provision of administrative and educational services.   Benefits of Academic Learning Academic learning can offer many benefits, especially for students and educational institutions. This benefit becomes important for overall education and development. Get an idea of the following benefits: Freedom of time and place: Academic learning provides a high degree of freedom as students get the freedom to learn when and where. It helps to feel more supported and independent with literacy and education. Specialization and Engineering Development: Academic learning provides opportunities for students to develop themselves in their own areas of interest and in designated areas of engineering. Collaboration and Support: Academic learning systems foster relationships between students and the teacher, making learning more enjoyable and rewarding. Tools for Excellence: In general, most academic learning systems provide tools and means for excellence that help students pursue their own pace. Personal support: Academic learning systems provide self-support and project architecture, presentations, and other personal literacy enhancements. These advantages make the academic learning system an important educational tool. It helps the institution and its students to foster further development and relationships around the world. Process learning activities Academic learning is an individual or general learning process that is completed in a sequential and cyclical manner. This process follows a specific procedure, which is described below: Pedagogical Review: Academic Learning Pedagogy is an educational process, which enriches the sense of chapter in the administrative and educational process for the students of an educational institution. This pedagogy process is enriched and replicated supports common learning, gives students a clear understanding of the curriculum, and helps reach pedagogic goals. This process improves educational policy marginally and provides an opportunity for every student to have a direct and full right to access their education. Academic learning guides students through the educational process to move toward success toward educational goals, and provides students with independent pathways to growth and development. Student Selection: Student selection is an important step in academic learning institutions, which helps students move towards higher education success. This selection process can enrich educational policy and students’ opportunities and expected goals. The student selection process is carried out at the beginning of the academic year and provides an opportunity to ensure their right to a replica of the educational policy. A student’s choice is supported by the academics of his/her institution and provided with a sound understanding of the educational policy, which helps them to improve the educational policy and achieve the desired goals. Personal information of the student, such as name, father’s name, mother’s name, date of birth, address, etc. is collected in the election and is used to ensure the protection and improvement

Language Learning System

Language Learning System

What is language learning system? Language learning systems are highly developed in modern day. These systems help students improve their language skills while acquiring a new language. Language learning approaches take many forms, be it in simple classroom situations, through online platforms and software applications. In language classes, students receive specific instruction from the teacher that helps students in the language learning process. Online language learning platforms and applications offer students the opportunity to learn languages at their own pace and schedule. A language learning system is a set of steps involved in learning a new language by humans, usually a software or educational system composed of a methodology or process. These systems are used to improve students’ listening skills. Language learning systems can be of various types, such as: Language classes or language schools: Language education, or language school, is the primary and main method of teaching language skills. This learning process is primarily designed to teach students a new language, helping them to grow beyond their modest learning limits. Language schools or classes are usually under the guidance of professional teachers to teach students a new language, depending on the primary or higher education. These classes provide opportunities to teach students about language rules and regulations, social identity through language, and the fundamentals of culture, through which students can improve language skills independently or over time. These schools or classes can be important elements in increasing the language’s influence and prestige in the language learning community, and help fulfill the responsibility of teaching language skills. Online Language Teaching Platform: Online language learning platforms are an important tool to help acquire language skills. These platforms are easily available online and help students learn a new language at their own time and pace. These platforms can improve the teaching process of different classes and types of language, which can be used subject to students’ standard language skills. These platforms facilitate interactive teaching previews and disciplinary disciplinary classes as well as improving listening skills. These platforms provide the necessary pursuit of modern educational technology and provide a pathway towards student improvement through testing language skills. This organization provides formal and informal access to the basic language learning process, and a language learner can get help learning the language at their own time and manner. Language Teaching Software: Listening teaching software is a powerful educational tool, a common means of improving listening skills. These softwares help students learn a new language at their own pace and provide opportunities for preparation. These software are generally interactive, leading to interactive teaching to improve students’ listening skills. These software programs provide disciplinary in-house exercises and practice activities for the process of getting improvement along with basic teaching. This software company provides appropriate tools and opportunities to improve language skills, which help students to improve basic language skills. Language teaching software is any activity or program designed to teach language skills. These softwares help students learn new languages, which can be a long process in basic terms. Language teaching software helps improve disciplinary internal exercises, awareness of language structure, language vocabulary, and speaking and writing skills. These software can help with sentence structure, vocabulary growth, listening comprehension, and relative language application. In addition, some language teaching software may be used subject to recognition of the language’s contribution and adequacy to the student’s institutional society. These software can help structure the curriculum at one’s own pace and provide opportunities for cross-sectional preparation, which helps improve a student’s language skills by improving listening skills. This type of software offers students the opportunity to learn languages at their own pace, such as Duolingo, Rosetta Stone, etc.   Evaluating or tutoring language courses: Some systems test students’ language skills and provide guidance on how to improve them. Language course assessment and tutoring is a very important part of the process of improving language skills. Assessment or validation determines students’ listening proficiency levels and helps guide them toward any necessary corrections or improvements. This can usually be done through basic listening skills tests, literacy tests, speaking skills, reading skills and literacy preparation. Tutoring services provide students with ample opportunities to improve their listening skills at their own place and in their local time, and provide practice and improvement help. These methods facilitate the individual learning process of language learners and guide them in determining and improving their listening skills. These systems help to tailor the learning process at your own pace and provide opportunities to improve listening skills. Language learning tasks Language learning is a process in which a person learns a new language. Teaching listening can be a large and complex process in which the individual’s language growth, application, and adequate level of opportunity are determined. The process of teaching listening guides an individual to improve their language skills, which helps them increase their ability to achieve rewarding language learning. Teaching a language can range from introductory, question-and-answer, individualized help, teacher guidance, programs, online recognition, and larger learning methods. Basic Language Teaching Process In short, the general purpose of acquiring competence in a new language is to develop the conceptual and symbolic competence necessary to teach a little language. Important things to know before learning a language: In order to learn a language, it is necessary to learn about four things. That is speaking, listening, reading and writing. However, it is not right to think that the language is mastered only after learning these four steps. Many people think that to learn a foreign language, you have to enroll in various courses. French, Italian, Japanese, German, Russian… whatever language you want to learn, you have to pay to learn it from a language school or teacher. And many times the language that one wanted to learn initially, later it seems complicated or one does not feel much attraction towards that language. As a result, even after getting admission with a pile of money, one has to face difficulties. Remember, language not only blurs borders with other countries, but also

Adaptive Learning Management System (A-LMS)

Adaptive Learning Management System (A-LMS)

Adaptive Learning System I have seen a lot of work on ‘adaptive learning software’ in major colleges, some schools and universities around the world in 2019. We have compared it with other ‘Learning Management Systems (LMS)’ and found that its adoption is very good. A major goal of our teachers and learning network designers was how to introduce first-generation school and college students, especially those from lower-middle-class backgrounds, to digital technology in the classroom. The big thing is that its outcome is quite good. After pilot programs in various schools and colleges, teachers and our learning designers have used this ‘adaptive learning software’ in their own way. Here we can discuss some ideas from those case studies. One thing is understood here, ‘one size fits all’ in education may no longer work. Because everyone is different, and everyone’s subjective understanding is different. Bringing all students to the same level at the beginning of a new class As we discussed earlier, there is a lot of variation in student learning due to the knowledge gap when moving from one class to another. In particular, not everyone’s results are close, many come from other schools and join the new school. Such ‘adaptive learning solutions’ work well to bring the knowledge level of all students to the same place before starting a new class. Teachers have got pretty good results at this place to bring everyone together. Let’s say, when going from class V to class VI, all students should be set a ‘unified’ level at the beginning so that students have less problems in the middle of class VI. And that’s why this adaptive learning system can put the students on a common assessment in order to properly weld the subjects that the student is weak in while going from the fifth grade to the sixth grade. At the end of that ‘Assessment’ where the weakness can be updated with this new learning management system. Meanwhile, to reduce the problems of the very good students in the class, it is easier to move forward with the whole class if you bring other students of the same level. If students know their previous knowledge, they can easily advance their current learning Knowing at the beginning of a class whether the students have any previous experience in that subject can help them proceed properly. Here, the teachers said that it is possible to reduce the one-hour class to 20 minutes if the teaching materials are provided in advance by ‘assessing’ the previous knowledge of the students. As a result, other active learning sessions can be taken up with that extra time. Instant feedback from the system In the traditional education system, it takes days and sometimes weeks for a student to submit their assignments and homework to receive feedback. Meanwhile, when the teacher starts with a new concept or chapter, their feedback is not useful anymore. There in this adaptive learning system students get their feedback immediately in the system. If they don’t understand the concept properly then at the beginning of the next lesson the teacher can give other lessons to bring them up to the same level. This is also a good use of this system. Using data to intervene behind every student As teachers get a separate dashboard on each student, they can view the student’s profile in real-time anytime and interact with him/her mid-lesson. In addition to this, teachers can view a separate ‘integrated’ dashboard to get an integrated feedback for each student. If their results fall below one percent, those students can be separated. When a teacher checks the dashboard of his students every day, he can understand which students are not progressing properly. Apart from this, if you see the dashboard of the students separately, you can understand how much they have progressed in those subjects and how much is left. The rest is then straightforward. Bringing them to extra lessons is not such a problem. The most interesting thing is that sometimes the system automatically tells the students before and after an activity what the rating of the system can be? Combining those ratings with students’ self-ratings gives a good idea of who needs help. Teachers can use data from this dashboard to find out if they have other types of problems. This algorithm often gives an idea of the student’s home environment. Interventions with each topic using data If the data dashboard shows that 80% of the students in a class did not understand a concept correctly, is it okay to move them on to the next topic? I don’t think so. This means that students can be taken to the next subject with some extra time on that concept. The opinion of the teachers in this regard is that there is not only adaptive learning system but also ‘adaptive’ teachers are needed. It may take some time to get out of the system the way they traditionally teach, and that’s why this data will help determine how and in what subjects education can be made more effective.   Innovation next semester with data Among the teachers who were already involved with this adaptive learning system, many innovative teachers can take the data from the software and submit a plan to the school management to introduce new innovations in the next semester. Several works have been done in this way. This data can tell students how much time can be allocated to lectures and how much time to lab sessions. Many of the teachers said the data could show some of the ‘misconceptions’ that students have. Then the teacher can take everyone out of the adaptive system for 10 minutes and clear up the mistakes with a short lecture. If students do well in a module with prior knowledge, this dashboard will give you an idea whether that module is required or whether students should be taken directly to the test. Many have done this too. Since this adaptive learning software is initially based on

Data Entry Learning

Everyone needs to know what data entry is. Yes friends, what is data entry will be discussed today. Data entry is the process of entering or transmitting information from one form or another into a computer system, spreadsheet, database, or web application. This generally refers to paper documents, handwritten notes, printed forms and electronic files, encoded or entered into an electronic device. What is data entry? Data entry refers to a variety of tasks and occupations, including: Data entry is often used in administrative tasks, such as entering information such as customer information, invoices, and orders into company databases and records systems. Online retailers often need to enter data to update product listings, inventory and customer orders on their e-commerce platforms. Healthcare organizations use data entry to enter patient records, insurance claims and billing information into electronic health record (EHR) systems. Financial institutions and accounting firms use data entry to record financial transactions, process invoices and maintain financial records. Market research firms collect data from surveys, questionnaires and interviews and enter it into databases for analysis. Data entry, data cleaning and quality control are also important, including reviewing, correcting and updating existing data to ensure accuracy. Data entry tasks require great attention to detail and accuracy and are often repetitive. As technology advances, data entry tasks are becoming automated using optical character recognition (OCR) software, machine learning algorithms and data extraction tools, which help reduce errors and improve efficiency. Data entry job If you are looking for websites to find data entry jobs, there are many reputable websites to consider. Fiverr (fiverr.com) Upwork (upwork.com) Freelancer(freelancer.com) PeoplePerHour (peopleperhour.com) Indeed (indeed.com) Flexjobs (flexjobs.com) Linkedin (linkedin.com) If you use these websites, you need to create a professional profile, link the application to the job offer and promote it. Data entry operator A data entry operator is a professional who enters, updates and manages data in various databases and digital systems. Their primary role is to ensure data accuracy and integrity by carefully entering text, images, and other related data into databases, spreadsheets, or applications. Data entry operators typically perform the following tasks: Enter data into a computer system or database from a variety of sources, including paper documents, files, and electronic forms. Double-checks data entry to reduce errors and ensure data integrity. Identifies and corrects any inconsistencies, typographical errors or inaccuracies in the information. Organizes and formats data according to specific guidelines, such as: dates, names and numbers. Data entry operators update and maintain databases by adding, correcting and deleting records as needed. Retrieves and extracts specific information from databases or spreadsheets as needed. Follows established security protocols and measures to ensure security and confidentiality of sensitive information. Completes data entry tasks efficiently within specified deadlines. Data entry operators perform quality checks to verify data accuracy and completeness. Optionally generate reports or summaries based on imported data. Data entry operators often work in a variety of industries, including healthcare, finance, e-commerce, and government. They play a key role in maintaining accurate and up-to-date documentation required for decision making and business conduct. A skilled data entry specialist is detail-oriented, has excellent writing skills, and is proficient in using data entry software and tools. What is data entry work? Data entry is the process of entering, updating and managing various types of information and data in computer systems and databases. This activity involves converting handwritten documents, printed forms and electronic records into digital formats. This allows data to be easily accessed, stored and edited. Data entry tasks can include a variety of tasks, such as: Entering text, numbers, or other data from source documents into a computer program or database. This is usually done with the keyboard, but sometimes special software is required. Duplicating information from a digital source using copy and paste can be a quick method. Ensuring accuracy and completeness of collected data by linking to source material or checking validity. Identifying and correcting errors or inconsistencies in information, such as: spelling errors, missing information, or formatting problems. Organizing data in a particular way to make it more accessible or representative, such as creating tables, lists, or reports. Data entry work includes adding new records, updating and managing existing databases by modifying existing databases or deleting obsolete information. Import data from online sources such as web forms, email and cloud-based applications. Focusing on digital data such as financial records, invoices and survey responses. Data entry operators use specialized scanning software to convert handwritten or printed text from documents or images into digital text. Data collection is essential in finance, healthcare, retail and various industries, as it helps businesses maintain accurate records, make informed decisions and optimize operations. What are the types of data entry? Data entry is the process of entering information or data into a computer system or database. There are different types of data entry, each task tailored to specific requirements. There are many types of data entry. Below are some common ones: 1. Online data entry 2. Manual data entry 3. Product data entry 4. Logistics data entry 5. Database data entry 6. Accounting data entry 7. Insurance claim data entry 1. Online data entry Online data entry is a modern method of data entry. which enters data directly into the digital system through a web interface or software application. Online data entry involves entering or uploading data into forms, databases, spreadsheets, etc. online or on other digital platforms. This technique is widely used for data collection, customer information management, e-commerce and various purposes. It has become an essential part of the digital age. Companies and organizations use online data entry to efficiently process data and analyze, make decisions and keep records. 2. Manual data entry Manual data entry is the manual entry of information into a computer or database system. This important task involves accurately transferring data from paper forms or handwritten documents to a digital format. Manual data entry requires accuracy and attention to detail, to ensure that information is entered correctly. This method is widely used

Corporate LMS - Advantages & Potential of Corporate E-learning

Corporate LMS – Advantages & Potential of Corporate E-learning

Education based on electronic technology is e-learning. E-learning is the method of conducting educational activities in mutual interaction between teachers and students without being present in the conventional classroom using electronic technology such as computer or mobile, internet and e-mail, video conferencing, instant messaging etc. E-learning system makes it possible to ensure availability of knowledge or learning material anytime anywhere. Currently, various types of e-learning portals have been launched for education. Through these students can study the subject of their choice at home. E-learning is commonly used to teach specific degree courses or programs online. Various universities around the world also offer their courses online for a fixed fee. As a result, foreign university degrees can be obtained at home.   Advantages and potential of corporate e-learning A revolution of e-learning is being observed in developed countries in the last ten years! Organizations like Coursera, edX, Udemy, Lynda have made online courses very popular among people. Although initially started with academic courses, slowly its popularity started to increase in the corporate world as well. Most of the Fortune 500 companies are currently working on some kind of eLearning program. However, the one thing that prevents most companies from implementing an online training strategy alongside offline training is the cost! Is online training really effective? Are the benefits of online training so great that a large portion of the HR budget can be spent on it? HR managers who are thinking about such questions; Or trying to find out the real benefits of online training; Here are some points for them: Reduced cost of training One of the biggest advantages of corporate online training is that it actually cuts down on costs. The cost of re-arrangement, logistics, trainer fee, printed material etc. for offline training of the same subject is reduced a lot in online training. Costs come down a lot as everything a subject needs is always open to everyone on the online platform. Yes, in the beginning some tasks like e-learning platform (LMS), content development etc. require some initial investment and cooperation of e-learning experts. However, considering the operational cost of running training on a continuous basis, online training is more cost-effective than offline training. Online training is available right when needed When an employee may need reference on a particular subject, or learning material, or any important information. With online training or e-learning, that information or material can be accessed instantly – exactly when needed. Let’s say, an employee got confused about something while providing refund service to a customer or wanted to confirm the information. If there was online training, he could easily access that information from an online course on customer service by logging into his account. In this way, you can easily keep your employees informed and knowledgable about any information or work procedures of the organization – thereby increasing the overall customer satisfaction and work practices of the organization! Employees can learn on their own time With the facility of online training modules, employees can go through them according to their time and convenience. He can learn from online courses at his own pace, at his own pace, while managing his office work at convenient times of the day or week, without having to adjust to what is being taught in the corporate training classroom, or what other employees are learning. In offline classroom training there is often a pressure to keep up with the trainer. Online training doesn’t have that pressure; In this case, you can go to the next lesson or module at your own convenience after mastering what is being taught! Dependence on corporate trainers is reduced The most significant advantage of online training is – dependence on corporate trainers is greatly reduced. Online training eliminates the hassle of repeatedly managing corporate trainers to train the same or different groups on a specific subject. So after creating online training materials for the first time, there will be no need for a trainer. On the one hand, the cost is reduced; On the other hand, trainers and staff do not have to waste valuable office hours behind classroom training!   The productivity and quality of work of the employees as well as the organization increases According to a report by IBM, one of the world’s largest computer manufacturers, companies that use e-learning strategies and tools have the potential to increase their overall productivity by up to 50%. It is estimated that for every $1 spent on eLearning, a company can gain about $30 worth of productivity. Employees who are well trained, who are more informed about the company’s services or products or work areas and procedures, will be able to provide better support to customers and colleagues. This will increase the efficiency of the staff as well as the entire organization! And through offline classrooms at the time and at the cost you can give this training to as many workers as you can; Online training can increase the skills of many employees in the same time and at the same cost. Starting from ten-twenty-fifty workers, hundreds, even thousands of workers can be trained together at low cost online! Can be useful in recruiting qualified new staff The practice of using corporate e-learning in employee onboarding, or pre-onboarding programs has begun in various organizations! How does it work? Suppose that after hiring new employees, or at the time of hiring, they were given access to various online modules! The modules contain information on the history of the organization, work style, culture, day to day life, service or product, code of conduct, ethics, compliance, etc. These modules will then make new and talented employees interested in joining the organization. Moreover, when potential employees or common people know about these e-learning programs of the organization, they will see them as Employment Benefit! The organization’s employee turnover rate decreases It is estimated that 25% of employees who leave an organization do so solely because the company did not provide adequate training and learning opportunities!

Android App Security

Android App Security

  With the rapid growth of mobile application development, especially for Android devices, ensuring the security of mobile applications has become increasingly important. Android app security includes various techniques and best practices to protect applications from threats and vulnerabilities while protecting users’ sensitive data from unauthorized access or disclosure. The objective is to make our apps robust, reliable and efficient in protecting user data against potential cyber-attacks. Android app security includes several important aspects, such as safe coding practices, protecting sensitive data, securing API communications, implementing access controls and authentication, security testing, vulnerability assessments, and adhering to common best practices. This guide will dive into a comprehensive discussion of each aspect, focusing specifically on secure coding practices for Android and protecting sensitive data in Android applications.   Secure Coding Practices for Android Implementing secure coding practices when developing Android apps is crucial to prevent security vulnerabilities, mitigate potential risks, and maintain app integrity. Below are some important secure coding practices to consider during the Android application development process: Validate input data: Input validation helps prevent security vulnerabilities resulting from untrusted user input. Ensure that user input data is thoroughly validated by checking data types, formats, allowable ranges, and appropriate values. This prevents potential attacks such as SQL injection. Use the latest security features: Ensure your app leverages the latest security features provided by the Android platform by targeting the latest Android API level and promptly applying security patches. This enables you to benefit from the latest security enhancements and bug fixes Regularly reviewing Android security bulletins is a good practice to stay aware of emerging threats and vulnerabilities. Encrypt sensitive data: Encrypt sensitive data in your app using algorithms like AES, RSA or SALSA20. This includes all data transmitted over the network & this data stored on the device. Make sure to use strong encryption keys and rotate them periodically for added security Avoid storing sensitive data in SharedPreferences: Android’s SharedPreferences feature is an easy way to store common key-value pairs in an application. However, it should never be used to store sensitive information such as passwords or API keys. Instead, consider using encrypted storage solutions like the Android KeyStore system or the Jetpack Security Library to securely store sensitive data. Avoid using insecure communication protocols: Network communication in Android apps should be through secure protocols such as HTTPS and WSS. You need to Avoid using HTTP or insecure websocket connections, as they are susceptible to interception & man-in-the-middle attacks. Follow the policy of least privilege: Limit your app to the minimum permissions required to function properly. Avoid requesting additional or unnecessary permissions, as this may expose additional attack surfaces and raise privacy concerns for users.   Protecting sensitive data in Android apps A primary aspect of Android app security is protecting sensitive data from unauthorized access or leakage. This includes both data stored on the device and data transmitted over the network. By implementing the following techniques and best practices, developers can significantly improve the security of sensitive data in their Android applications:   IP layer protection Secure your app’s network communications by implementing IP layer protection through Internet Protocol Security (IPSec) and Virtual Private Network (VPN). It adds a layer of security by encrypting and authenticating every IP packet in a communication session, preventing data interception and tampering.   Data encryption Use strong encryption algorithms like AES, RSA / SALSA20, to encrypt sensitive data stored on the device & data transmitted over the network. Also you can practice secure key management and regularly rotate encryption keys to further strengthen the security of your app’s data.   Secure storage solution Avoid storing sensitive data in Shared Preferences or external storage. Instead, use secure storage solutions like the Android KeyStore system or the Jetpack Security Library, which provide encrypted data storage and key management capabilities. These solutions help protect sensitive information from unauthorized access or disclosure.   User authentication and access control Implement strong user authentication and access control mechanisms to ensure that only authorized users can access sensitive data within your application. Options include two-factor authentication (2FA), biometric authentication, or using Android Account Manager to securely manage user credentials.   Data obfuscation and anti-tamper techniques Use data obfuscation and anti-tamper techniques such as code obfuscation, resource encryption, and runtime integrity checks to protect your app from reverse engineering, tampering, and data extraction by malicious actors. Tools like ProGuard and DexGuard can be used. Secure coding practices and protecting sensitive data in Android apps are important aspects of Android app security. By following these practices and strategies, developers can significantly increase the security and reliability of their applications, protecting user data against potential threats and cyber-attacks.   Securing API communication for Android APIs form the backbone of communication between Android apps and their server components, enabling data exchange, user authentication, and other important functionality. As such, ensuring the security of API communications is an important aspect of Android app security.   Use HTTPS for secure connections Always use HTTPS (Hypertext Transfer Protocol Secure) for all API communications, ensuring secure data transmission between your app and server by encrypting data in transit. HTTPS uses TLS (Transport Layer Security) to provide confidentiality, integrity and authentication, protecting your app’s sensitive data from being hidden and tampered with.   Verify the API response Validate API responses to ensure they match the expected data structure and format, preventing potential security issues arising from untrusted or corrupted data. You can avoid common vulnerabilities like injection attacks or malformed data processing by implementing input validation tests in your app’s logic.   Implement API authentication API authentication ensures that only authorized users and devices can access your app’s server resources Implementing an authentication mechanism such as OAuth 2.0 or JSON Web Token (JWT) helps establish secure API communication while reducing the risk of unauthorized access or data breach.   Apply the policy of least privilege Limit the permissions and access granted to each user or device based on their specific role or function in using your app.

Best 10 Database Security Practice

Database security is critical to protecting an organization’s sensitive data from unauthorized access, alteration, or destruction. Databases store valuable information such as customer data, financial records and intellectual property, making them prime targets for cybercriminals and malicious insiders. Consequently, maintaining strong database security is essential to preserve data integrity, comply with data protection regulations, and gain the trust of customers and stakeholders. These practices apply to a variety of database technologies – from traditional relational databases to NoSQL and cloud-based systems. Be proactive with patch management Patch management is an essential practice for maintaining the security of your database. Regularly updating your database software with the latest patches not only ensures that you benefit from new features and bug fixes, but also addresses security vulnerabilities that cybercriminals can use to infiltrate and compromise your system.  Subscribe to vendor security notifications to receive vulnerability disclosure and patch release alerts. Establish a reliable patch management process to identify security vulnerabilities, assess risk, test and deploy patches, and verify that patches are successfully applied. Regularly audit your database software to verify that all applied patches are up-to-date and conform to vendor recommendations. Consider implementing to0ols & solutions to automate patch management tasks and streamline your security maintenance processes. Implement strong authentication and authorization controls Using authentication and authorization controls is critical to securing access to your database and protecting sensitive data. Use strong, unique passwords for all database user accounts. Encourage the use of multi-factor authentication (MFA) or single sign-on (SSO) to further improve security. Implement role-based access control (RBAC) to assign permissions based on user roles within the organization. It limits each user’s access and privileges according to their specific job function, reducing the risk of unauthorized data access or manipulation. Define and enforce password policies, such as minimum length, complexity requirements, and expiration intervals, to ensure that passwords adequately protect access to user accounts. Regularly review and update user permissions to ensure they are consistent with organizational policies and individual job requirements. Monitor the user account activity to detect & also respond to any suspicious actions or unauthorized access attempts. By implementing strong controls and proactive measures, you can secure access to your database and significantly reduce the risk of unauthorized data breaches and cyber attacks.   Your database connection is secure To ensure high security and data protection, it is essential to secure all database connections. Maintaining secure communication channels helps prevent unauthorized access, data leaks or man-in-the-middle attacks that could compromise sensitive information. Here are some key steps to help secure your database connection: Use encrypted communication protocols: Always encrypt network traffic between your application server and database. Use secure protocols such as Transport Layer Security (TLS) to protect data in transit, keeping sensitive information private. Deploy secure VPNs and private networks: To further improve security, consider using a virtual private network (VPN) or private cloud network for database connectivity. By separating and encrypting your communications, these technologies reduce the likelihood of unauthorized access or data breaches Enforce connection security policies: Establish policies and configuration settings that only allow secure connections to your database Reject encrypted communications using firewall rules to block connections that don’t meet your security requirements Implement strict access controls: Ensure that only authorized users, applications and servers can connect to your database. Use IP whitelisting and authentication methods to limit access to only trusted entities. Regularly review and update connection configuration: Regularly audits your database connection settings to identify and address potential vulnerabilities. Continuously stay abreast of new threats and best practices to maintain high-security standards. Monitor and monitor database activities regularly Continuous monitoring and auditing of your database activity is an important component of a strong security strategy. By closely monitoring database interactions, you can identify suspicious activity, remediate vulnerabilities, and ensure compliance with regulatory requirements. Here are some best practices for monitoring and auditing database activity: Create and maintain an audit trail: Establish a detailed audit trail of all database activity, including user actions, data changes, schema changes, and security events. This documentation helps you identify anomalies, investigate problems, and comply with regulations that mandate comprehensive record keeping. Implement real-time monitoring and alerts: Use real-time monitoring tools to keep track of database events, generate alerts for suspicious activity or policy violations. Instant notifications allow you to respond quickly to potential threats or security breaches, minimizing potential damage. Employ advanced analytics: Use analytics tools and machine learning to automate the detection of unusual patterns or anomalies in your database activity. These technologies can help you identify potential threats, assess risks, and improve your security posture. Regularly review and adjust monitoring settings: To ensure effective monitoring coverage, periodically review and update your monitoring configuration and alert thresholds. Adapt your monitoring strategy to reflect changes in the database infrastructure & risk assessment and data sensitivity also. Conduct periodic audits and assessments: Conduct security and vulnerability assessments to assess the security of your database, identify weak spots, and implement necessary improvements. This practice will help you avoid potential threats and maintain high-security standards.   Encrypt sensitive data Encrypting sensitive data is important to protect your organization from unauthorized access, cyber threats and data breaches. Encrypting data ensures that it remains unreadable and confidential, even if an attacker gains access to your database. Implement the following encryption practices to protect your sensitive information: Encrypt data at rest: Use encryption methods such as Transparent Data Encryption (TDE), file-system-level encryption, or disk-based encryption to protect your stored data. Encrypting data at rest prevents unauthorized users from accessing sensitive files and reduces the risk of a data breach. Encrypt data in transit: Use secure communication protocols such as TLS to encrypt data sent between your application server and database. Thats practice ensures that is like sensitive information remains private, even if intercepted during transmission. Implement encryption key management: this key management strategy to maintain the confidentiality and integrity of your encryption keys. Define a key lifecycle, rotate keys regularly, and store and manage keys securely to prevent unauthorized access. Use

About Database Management System!

About Database Management System!

Database management is the process of creating, maintaining, organizing and controlling access to a database – essentially ensuring that the information stored is accurate, secure and accessible. As businesses increasingly rely on data to make decisions, effective database management has become critical to their operations. This article will detail the evolution of database management systems (DBMS), discuss the different types of DBMS, and show you how modern tools are expanding database management capabilities. Evolution of database management systems Database management systems have evolved significantly over the years to adapt to business changes and technological advancements. Below is a brief description of the main steps in the evolution of DBMS: Flat-file systems: In the early days of computing, data was stored in flat-file systems, which consisted of plain text files containing records separated by a delimiter such as a comma or tab. Although easy to use, flat-file systems were limited in terms of data retrieval and manipulation, and they often resulted in data redundancy. Hierarchical and network models: The hierarchical model developed in the 1960s represented data as a tree-like structure in which each data element had a single parent and zero or more children. This model provides greater data control and organization capabilities than flat-file systems. The network model was an extension of the hierarchical model, where each data element could have multiple parent nodes, which further enhanced the relational aspect of stored data & addressed some number of the limitations of the hierarchical model. Relational Databases: First introduced by Edgar Codd in the 1970s, the relational model revolutionized the world of database management. This model represents data in tables (relationships) and uses Structured Query Language (SQL) to define, search and manipulate data. Relational databases can be adapted to a variety of business needs and are widely used in modern database management systems. Object-Oriented Database: Emerging in the 1980s and 1990s to address the need for complex data type management in applications, object-oriented databases integrated programming languages and database management concepts. This approach allows developers to seamlessly store and manage programming objects in the DBMS, eliminating the need for object-relational mapping. NoSQL Databases: With the rise of Big Data and the need for horizontal scalability, NoSQL (not just SQL) databases emerged in the late 2000s. These databases are designed to handle unstructured or semi-structured data, offer distributed architectures, and provide simple models for data manipulation. Common types of NoSQL databases include key-value, column-family, document-oriented, and graph databases. They are particularly useful for handling large amounts of data and may perform better than traditional relational databases in certain situations. NewSQL Databases: As a recent development, NewSQL databases aim to provide the best of both worlds — combining the robust compatibility of relational systems with the scalability and flexibility of NoSQL databases and the ability to perform familiar SQL queries. Types of database management systems Based on the above advances in database technology, here are the main types of database management systems: Hierarchical DBMS: These systems use a tree-like structure where data elements are linked by parent-child relationships. Popular examples include IBM’s Information Management System (IMS) and the Windows Registry. Network DBMS: With the primary feature of allowing multiple parent-child relationships for data elements, network DBMS enable more flexibility in connecting relevant data. Here Examples: include Integrated Data Store (IDS) and (RDM) Raima Database Manager. Relational DBMS (RDBMS): RDBMS is the most widely used type of database management system. They store data in tables (relationships) and use SQL for data definition, manipulation and querying.  Object-Oriented DBMS (OODBMS): Combining database and programming concepts, object-oriented databases enable seamless storage and management of programming objects. OODBMS is particularly useful for managing complex data types such as multimedia and geographic information systems (GIS). Examples of OODBMS include ObjectStore and Gemstone/S. NoSQL DBMS: These are non-relational databasess were developed to handle unstructured / semi-structured data, typically featuring horizontal scalability and simple methods for data manipulation. NoSQL databases can be further classified into key-value, column-family, document-based, and graph databases. Popular examples are Couchbase, Cassandra, MongoDB, and Neo4j. NewSQL DBMS: NewSQL databases attempt to combine the advantages of both relational and NoSQL databases, aiming to provide strong compatibility with SQL-based querying capabilities and the scalability and flexibility offered by NoSQL databases. Like – NewSQL databases include CockroachDB, VoltDB & MemSQL also. As businesses continue to expand and refine their data management needs, the evolution of database management systems will undoubtedly continue, offering increasingly sophisticated and user-friendly technologies to work with.   Basic components of a database management system A database management system (DBMS) is designed to facilitate efficient interaction between users, applications, and databases. To achieve this, DBMSs are built with various interrelated components that work together to ensure a secure and well-organized environment for managing data. Here are some key components of a typical DBMS: Database Engine : At the core of any DBMS is the database engine, responsible for storing, retrieving and updating data in the database. The engine ensures that data is stored consistently and securely and enforces certain rules in the database schema. Data Definition : This component focuses on creating, modifying and removing database objects like tables, views and indexes. Its primary role is to create or modify the structure of a database. Data Manipulation : The data manipulation component of a DBMS provides tools and techniques for interacting with the data stored in the database. It includes operations required for data input, updating, deletion and retrieval. Database Schema : The database schema is the blueprint of the database structure and defines the tables and their relationships to each other. This metadata allows the DBMS to understand how to properly store and manipulate data within the system. Storage Manager : Responsible for managing the database’s storage and memory resources, the storage manager allocates disk space, ensures data integrity, and implements database backup and recovery procedures. Query Processor: Query processors interpret and optimize SQL queries and other database requests from users and applications. It then sends optimized queries to the database engine to efficiently

Software Development Process

Software Development Process

  Welcome to our in-depth exploration of the software development process, presented as a step-by-step guide for both new and experienced developers. This comprehensive article will take an in-depth look at software development, examining the most effective methods, best practices, and tools required to deliver high-quality software solutions. As the digital landscape continues to evolve, mastering the process of software development has become essential for professionals in various industries. We’ll demystify the intricacies of particularly popular methodologies such as Waterfall, Agile, Scrum, and Kanban while providing insight into key principles such as requirements analysis, implementation, testing, design, deployment, and maintenance. Our goal is to equip you with a solid foundation in software development, enabling you to make informed decisions, optimize your project workflow, and ultimately create exceptional software products. So, whether you’re a beginner looking to start your journey or an experienced developer looking to expand your skills, this article promises to be a valuable resource for mastering your software development. What is the software development process? The software development process, called the Software Development Life Cycle (SDLC), is a structured and systematic approach to creating, maintaining, and improving software systems. It encompasses a series of phases including requirements analysis, design, implementation, testing, deployment and maintenance to deliver high-quality, reliable, scalable software solutions that meet user needs and business objectives. This iterative process, customized and adapted through different methodologies such as agile, waterfall, or DevOps, encourages collaboration, communication, and continuous improvement among stakeholders, including developers, project managers, and end users. For example, adopting agile methods fosters an environment of incremental development, regular feedback and rapid response to change, adaptability and innovation. Ultimately, the software development process provides a framework for translating abstract ideas and user requirements into functional and efficient software applications, which drive success in today’s competitive and ever-evolving digital industry. Software Development Process: Agile vs. Waterfall Agile and waterfall methodologies reflect two different paradigms in software development processes, each with distinct merits and constraints. Agile, an exceptionally adaptable and iterative approach, underscores the importance of collaboration, flexibility and customer-oriented development. This approach breaks the development process into small, digestible chunks known as sprints, typically two to four weeks in duration. Such a framework allows developers to constantly fine-tune and modify their work considering customer feedback and evolving requirements. For example, Scrum, a widely adopted agile technique, promotes self-organizing teams and a transparent process, collaboration and efficiency. In contrast, waterfall embodies a more linear and regimented approach, deeply embedded in successive phases that include requirements analysis, design, implementation, testing, and deployment. Each phase must reach completion before progressing to the next phase, culminating in a clear and predictable project timeline. Yet, this flexibility can make it difficult to integrate changes in requirements or deal with unexpected challenges. Waterfall is particularly suitable for projects characterized by well-defined requirements and a stable scope, such as developing a basic web application or an embedded system. The decision between agile and waterfall is dependent on project scope, requirements, team size and organizational culture. By carefully evaluating these elements, organizations can make informed decisions about the most appropriate approach to take, ensuring winning project outcomes and optimizing software quality. Software development process steps Software development is a structured, iterative process that involves multiple steps to create a well-functioning, user-friendly application. The following steps are important to ensure a successful software development project: Prepare the required collection The first step in the software development process is requirements gathering. It involves gathering and documenting the functional and non-functional requirements of the project. It is crucial to consult stakeholders including end-users, business analysts and domain experts to ensure that the project meets their expectations and meets their needs.   UI/UX design The UI/UX design phase is an important phase of the software development process, as it lays the foundation for the overall look, feel, and user interaction with the application. The main objective oof this phase is to create an intuitive & visually appealing user interface (UI) while ensuring a seamless and enjoyable user experience (UX). This step typically encompassess several sub-processes & involves close collaboration between designers, developers & stakeholders. Research & Analysis : Before starting tthe design process, its essential to understand the target audience, their preferences & their pain points. This information can be collected through user interviews, surveys and analysis of competitors’ products. The insights gained will inform design decisions and help create an application that effectively addresses users’ needs. Information Architecture : This step involves organizing the content and structure of the application ensuring easy navigation. Designers create sitemaps and flowcharts to visualize the overall hierarchy and relationships between different screens or sections of the application. Wireframing : Wireframes are low-fidelity, simplified visual representations of an application’s layout. They help designers and stakeholders understand how content and interface elements will be arranged on each screen. Wireframes also serve as a blueprint for developers, making it easier to implement the design during the coding phase. Mockups : Unlike wireframes, mockups are high-fidelity, static designs that show the visual appearance of the application, including colors, typography, and images. Mockups provide a more accurate representation of the final product, enabling designers and stakeholders to assess aesthetics and make necessary revisions before moving forward. Prototyping : Prototypes are interactive models of applications that allow users to navigate and interact with UI elements. This step helps designers identify usability issues, validate design choices, and gather feedback from stakeholders and end users. The feedback is then used to refine the design before proceeding to the development stage. Design Handoff : Once the UI/UX design is finalized, designers create a comprehensive design system that includes style guides, UI elements, and documentation to ensure a smooth transition to the development team. Example: For a mobile banking app, researching user preferences and expectations in the UI/UX design process, organizing the app structure to enable easy access to account details, transactions and other features, creating wireframes and mockups that prioritize easy navigation, and clean up Creating a prototype for presentation of

Scroll to Top