Data Science

powering smarter ports with anaytics and AI - rubiscape blog
Data Science

How Rubiscape is Powering Smarter Ports with Business Analytics & AI

In an era where global trade and logistics demand agility, the Ports & Maritime industry is embracing digital transformation to optimize operations, enhance decision-making, and maintain a competitive edge. Rubiscape, an AI, Data Science, and Business Intelligence (BI) platform, is at the forefront of this transformation — helping ports harness their data for faster, smarter decisions. Why Ports Need Advanced Analytics Ports are complex ecosystems with multiple interconnected processes — from cargo handling to financial management. Delays, inefficiencies, and manual reporting slow down operations and create bottlenecks. Business analytics powered by AI/ML can break these barriers, offering real-time insights and predictive intelligence for better resource management, forecasting, and performance tracking. How Rubiscape is Making a Difference A leading Indian port went live with Rubisight BI integrated with SAP S/4HANA within just 5 months — with critical dashboards ready to go live in a few weeks. The platform automated MIS generation, compliance reporting, and live decision-making dashboards, giving leadership teams a single source of truth for faster strategic decisions. Key achievements include: Faster Reporting Cycles: Automated MIS and compliance reports across modules like Finance, HR, and Project Systems. Dynamic Dashboards: Real-time views of KPIs, operational metrics, and budget insights. Seamless SAP Integration: Automated data ingestion and no-code BI reporting. Data-Driven Financial Planning: Easier budgeting and forecasting with live data feeds. Value Points for Ports to Consider Rubiscape Rapid Implementation: Go live in a few months with iterative delivery and quick wins. Unified Data Platform: Consolidate data from SAP and other systems into a single, accessible dashboard. AI/ML-Powered Insights: Use machine learning for predictive maintenance, cargo forecasting, and supply chain optimization. Cost & Time Efficiency: No-code/low-code platform reduces development cycles and IT dependency. Scalability & Flexibility: Scale effortlessly with modular features for evolving business needs. Rubiscape’s Implementation Approach Discovery & Assessment: Understand port-specific challenges and define KPIs. Solution Design: Map data flows, design dashboards, and build integration pipelines. Iterative Delivery: Deliver dashboards and reports in short, impactful sprints. Training & Handover: Empower in-house teams with training and continuous support. Conclusion: Why Rubiscape is the Right Choice Rubiscape is more than a BI tool — it’s a strategic enabler for ports aiming to become smarter, faster, and more resilient. With proven success in integrating with complex systems like SAP and delivering live MIS dashboards, Rubiscape is the perfect partner for ports ready to embrace AI-powered analytics.

Data Science

How Rubiscape is Revolutionizing Banking & Financial Services with Business Analytics

In an increasingly dynamic financial landscape, Indian banks and financial services companies (BFSI) are under constant pressure to enhance customer experiences, ensure regulatory compliance, and manage risks — all while driving growth and profitability. Rubiscape, a Made-in-India AI, ML, and Business Intelligence (BI) platform, is empowering BFSI leaders to transform their core banking operations with data-driven insights and agile innovation. Why Business Analytics is Essential for BFSI Financial institutions handle massive volumes of transactional and customer data, but extracting meaningful insights from that data remains a challenge. By adopting advanced analytics and AI/ML solutions, BFSI organizations can make faster, more accurate decisions, mitigate risks, and deliver hyper-personalized customer services. Key Areas Where Rubiscape Delivers Value Core Banking Analytics: Automate MIS and generate real-time financial reports. Visualize branch-level performance, product penetration, and transaction patterns. Regulatory Reporting & Compliance: Streamline reporting for RBI, SEBI, and other regulatory bodies. Automate compliance audits with built-in rule engines and exception handling. Risk Analytics: Use ML models for credit risk profiling, fraud detection, and portfolio analysis. Implement predictive analytics to assess loan default probabilities and market risks. Customer Experience & Segmentation: Leverage AI to segment customers, personalize offerings, and improve retention. Use sentiment analysis and churn prediction models to understand customer needs. Why BFSI CXOs Should Choose Rubiscape Rapid Implementation: Agile, sprint-based delivery reduces time to value. Seamless Integration: Easily connect with core banking systems, CRMs, and external data sources. Low-Code/No-Code Platform: Empower business users to build dashboards and reports without heavy IT dependence. Scalable & Secure: Designed to handle high-volume financial data with enterprise-grade security. Proven Success: Trusted by industry leaders for complex, high-impact analytics use cases. Rubiscape’s Agile Implementation Approach Discovery & Use Case Prioritization: Identify high-impact areas for quick wins. Solution Design & POC: Map data flows, configure models, and build initial prototypes. Iterative Development: Deliver features in sprints with continuous feedback. Training & Support: Enable teams with knowledge transfer and ongoing platform support. Conclusion: A Smarter Future for BFSI with Rubiscape The future of banking lies in intelligent, data-driven decision-making. Rubiscape helps BFSI institutions turn their data into a strategic asset — enabling faster insights, reduced risk, and elevated customer satisfaction. For CXOs looking to build future-ready financial ecosystems, the time to embrace AI-powered business intelligence is now. Ready to transform your financial services with Rubiscape? Let’s talk.

future of data science - key trends - rubiscape blog
Data Science

Top Mistakes Made by Data Scientists

Data Science helps businesses gain actionable insights from various sources of structured and unstructured data by applying scientific methods, processes, and systems. It requires a proper understanding of the different techniques used for preparing the data and knowledge about various data models that may be used to finally measure the outcome from the full process. In this entire cycle, there may be numerous factors that may be overlooked even by the most seasoned data scientists. Through this article, we share some of our insights on some of the most common mistakes made by data scientists.   Growing demand for data scientists and their role in the information age According to a recent survey made by KMPG on C-Level executives, 99% of them affirmed that big data would be a core part of their company’s strategy in the coming year. According to Accenture, the world will generate 463 exabytes of data per day in 2025. This is equivalent to 2.5 billion gigabytes or 2.5 quintillion bytes. This will create a greater demand for data scientists with key skills for extracting actionable insights from data. A striking example is that of the popular social networking site LinkedIn where data scientists have played a vital role in boosting business intelligence for the company. LinkedIn relies mainly on the data that is transferred by its 3,80,000 users who have built connections with each other. LinkedIn is utilizing the skills of such professionals to explore the world of Big data. Apart from LinkedIn, other big names such as Google and Facebook are utilizing the role of data scientists to give a better structure to large quantities of formless data to help them establish the significance of its value and bring a standard relationship between the variables. Most of the data architects extract information through large volumes of data and use SQL queries and data analytics for slicing these datasets. On the other hand, data scientists have a larger role to play as they need to have advanced knowledge of machine learning and software engineering to manipulate the data on their own to provide deeper insights. They mainly use advanced statistics along with complex data modeling techniques to come up with their future predictions.   What are the common mistakes made by data scientists? Failure to address the real questions The entire process of data science revolves around addressing the business questions and in most cases, it is the most neglected issue due to lack of communication between the sponsors, end-users, and the data science team. To get the most benefits from the data science initiatives, all the stakeholders need to stay connected and share information and knowledge which can help in defining the real business issues. Beginning with excessive data In many companies, the team members are involved in working on a huge chunk of data which is a waste of valuable time and effort. Instead, it can be more worthwhile for them to choose a subset of specific data to make the process much easier. For example – Is it possible to focus on just a single region or look for data from the last three months? To start with the prototype, random sampling may be taken into consideration. When the initial exploration, cleaning, and preparation are done, a bigger data set may be included in the process. Trying to complicate things Sometimes, even if the current project requires a simpler solution, data scientists often make the mistake of complicating matters by introducing more complicated models into the process. This can jeopardize the chances of completing the project on schedule and make it more difficult to achieve the main purpose. Not validating results The models that are created by the team of data scientists should enable the business to take suitable action. And once an action has been taken, it’s necessary to measure its effectiveness for which the team needs to have a validation plan ready, even before the actual implementation. Only this can help in making the process more efficient and give more meaningful results. More focus on tools than on business problems The major function of any data-driven role is to focus on solving problems through data extraction, but sometimes, the data scientists get overwhelmed and obsessed with using new tools than solving the real issues at hand. They need to understand the problem first and find out the requirements for finding the solution and finally decide on the best tools that may be used to solve the problem. Lack of proper communication There is plenty of communication involved in assessing the business problem and providing constant feedback to the stakeholders. The greatest risk comes when the data scientists do not ask enough questions and make their assumptions, which actually can result in providing a different solution than what is required.   The Key Ingredients of Data Science Data science requires knowledge of Statistics and Applied Maths Data science requires actual application of Statistics along with Applied Maths, which can provide guidance regarding uncertainty in data and allow companies to gather valuable insights from it Data Science involves solid communication A data scientist needs to be an effective team player who helps to initiate, iterate and drive some core decisions in the company. The role of a data scientist involves working along with product managers and the other team members to influence them to take vital business and product-related decisions. Data Science is about using creativity and dealing with people Data scientists need to have a creative approach as they need to understand the needs of the users in the system and convey their findings to the other core members of the team. At the same time, they need to be creative enough to derive insights from the system that generated the data in the first place. In this age of Big data, the biggest challenge will be on collecting data and extracting value from it which will get more demanding in the coming years. Data Scientists will have a key

python for data science - rubiscape blogs
Data Modelling, Data Science

Why Does Python Rule the World of Data Science?

  As of 2020, GitHub and Google Trends rank Python as the most popular programming language, surpassing longstanding Java and JavaScript in popularity. Python is a general-purpose and high-level dynamic programming language that focuses on code readability. After being founded in the year 1991 by Guido Van Rossum, Python has only soared in popularity. Its syntax allows programmers to write codes in fewer steps as compared to Java or C++. Some of the other reasons behind Python’s popularity include its versatility, effectiveness, ease of understanding, and robust libraries. Python’s high-level data structures and dynamic binding make it a popular choice for rapid application development. Data scientists usually prefer Python over other programming languages. But what exactly makes Python suitable for data science? Why do data scientists prefer working with Python? Let’s find out – The Benefits of Python A big reason why Python is widely preferred is because of the benefits it offers. Some of the major benefits of Python are – Ease of learning: Python has always been known as a simple programming language in terms of syntax. It focuses on readability and offers uncluttered simple-to-learn syntax. Moreover, the style guide for Python, PEP 8, provides a set of rules to facilitate code formatting. Availability of support libraries: Python offers extensive support for libraries including those for web development, game development, or machine learning. It also provides a large standard library that includes areas like web services tools, internet protocols, and string operations. Moreover, many high-use programming tasks are pre-scripted into the standard library. This significantly reduces the length of the code that needs to be written. Free and open-source: Python can be downloaded for free and one can then start writing code in a matter of minutes. It has an OSI-approved open-source license. This makes Python free to use and distribute. Being open-source, Python can also be used for commercial purposes. A vibrant community: Another benefit of being an open-source language is the availability of a vibrant community that keeps actively working on making the language more user-friendly and stable. Its community is one of the best in the world and contributes extensively to the support forums. Productivity – The object-oriented design of Python provides improved process control capabilities. This, along with strong integration and text processing capabilities, contribute to increased productivity and speed. Python can be a great option for developing complex multi-protocol network applications. Easy integration – Python makes it easy to develop web services by invoking COM or COBRA components, thanks to enterprise application integration. It possesses XML and other markup languages that make Python capable of running on all modern operating systems through the same byte code. The presence of third-party modules also makes Python capable of interacting with other languages and platforms. Characteristic features – Python has created a mark for itself because of some characteristic features. It is interactive, interpretable, modular, dynamic, object-oriented, portable, high-level, and extensible in C++ & C. Why Python is Ideal for Data Science Functions Data science is about extrapolating useful information from large datasets. These large datasets are unsorted and difficult to correlate unless one uses machine learning to make connections between different data points. The process requires serious computation and power to make sense of this data. Python can very well fulfill this need. Being a general programming language, it allows one to create CSV output for easy data interpretation in a spreadsheet. Python is not only multi-functional but also lightweight and efficient at executing code. It can support object-oriented, structural, and functional programming styles and thus can be used anywhere. Python also offers many libraries specific to data science, for example, the pandas library. So, irrespective of the application, data scientists can use Python for a variety of powerful functions including casual analytics and predictive analytics. Popular Data Science Libraries in Python As discussed above, a key reason for using Python for data science is because Python offers access to numerous data science libraries. Some popular data science libraries are – Pandas – It is one of the most popular Python libraries and is ideal for data manipulation and analysis. It provides useful functions for manipulating large volumes of structured data. Pandas is also a perfect tool for data wrangling. Series and DataFrame are two data structures in the Pandas library. NumPy – Numpy or Numerical Python is a Python library that offers mathematical functions to handle large dimension arrays. NumPy offers vectorization of mathematical operations on the NumPy array type. This makes it ideal for working with large multi-dimensional arrays and matrices. SciPy – It is also a popular Python library for data science and scientific computing. It provides great functionality to scientific mathematics and computing programming. It contains submodules for integration, linear algebra, optimization, special functions, etc. Matplotlib – Matplotlib is a comprehensive library for creating static, animated, and interactive visualizations in Python. It is a useful Python library for data visualization. Matplotib provides various ways of visualizing data in an effective way and enables quickly making line graphs, pie charts, and histograms, etc. scikit-learn – It is a Python library focused on machine learning. scikit-learn provides easy tools for data mining and data analysis. It provides common machine learning algorithms and helps to quickly implement popular algorithms on datasets and solve real-world problems. Conclusion Python is an important tool for data analysts. The reason for its huge popularity among data scientists is the slew of features it offers along with a wide range of data-science-specific libraries that it has. Moreover, Python is tailor-made for carrying out repetitive tasks and data manipulation. Anyone who has worked with a large amount of data would be aware of how often repetition happens. Python can be thus be used to quickly and easily automate the grunt work while freeing up the data scientists to work on more interesting parts of the job. If you’d like some help with leveraging the power of data, then you can get in touch with us at www.rubiscape.com

Data Science

The Power of HR Analytics: How to Use Data Science to Enhance Employee Performance and Retention

Back in 2019, a Deloitte report outlined how an impressive 70% of businesses had embraced the potency of HR analytics to enhance their overall performance. This was in line with a 2018 CIPD-Workday study. It revealed that 65% of individuals from organizations that pursued a people analytics culture expressed that their companies exhibited superior performance compared to their competitors. Contrarily, only 32% of the employees from organizations with a weak analytics culture affirmed the same. Considering the rising prominence of data analytics solutions and the overall democratization of data analytics functions across enterprise departments, it won’t be an exaggeration to assume that this number would be even higher today. The growing significance of HR analytics can be attributed to companies’ need to become more data-driven in their decision-making processes. After all, the ability to critically analyze the data available across organizational functions and systems has become imperative for business success. Indeed, there seems to be a strong correlation between an efficient HR analytics function and overall employee performance and retention. HR Analytics – A Primer HR analytics, also known as people analytics or workforce analytics, works to apply data analysis to gather invaluable insights about human resources and subsequently make informed business decisions. At its core, HR analytics involves collecting and analyzing data related to employee performance, engagement, recruitment, retention, training, and other HR functions. Why? To gain a better understanding of people-facing processes To improve employee engagement To enhance the recruiting process To streamline workforce planning To improve measures targeted at talent retention All these efforts aim to keep the business competitive and successful by creating loyal, productive employees who add measurable value to the bottom line. How Does Data Science Power HR Analytics for Improved Employee Performance and Retention Utilizing data science means paving the way for a systematic approach that integrates data-driven insights into your organization’s HR strategies. Once you follow a structured data science methodology, you can leverage its power to enhance employee performance, retention, and overall workforce management. In that light, here’s a rundown of the six essential steps that outline how to effectively leverage data science-enabled HR analytics: 1. Define Your HR Analytics Objectives Take the time to clearly outline your HR analytics goals, ensuring they are in harmony with your organization’s overarching strategic objectives and individual employee performance plans. Also, pinpoint the specific dimensions of employee performance and retention that you intend to enhance — whether it’s curbing turnover rates or amplifying productivity. Notably, this definition step plays a vital role in shaping how you harness the power of HR analytics to effectively pursue and accomplish the targeted goals. 2. Collect Relevant Data Initiate the process by aggregating data from a range of sources, including employee surveys, performance evaluations, and attendance records. The wealth of data enables HR professionals to: Measure and analyze the impact of their human resource activities Measure specific traits of an individual, such as job satisfaction or turnover Monitor changes in the company’s workforce The resulting data analysis results in a structured, standardized report that provides information about employee demographics, compensation structure, training needs, and spending. 3. Analyze Trends and Patterns Engage in the process of reading patterns by executing rigorous statistical checks to unveil prevailing traits. Upon completing this analytical phase, HR professionals can extract valuable insights. These insights then grow to be the bedrock upon which knowledgeable choices are made. Such choices or decisions are instrumental in unraveling the intricate composition of employees and imparting a deep knowledge of the workforce’s dynamics, strengths, and areas for improvement. All in all, this analytical undertaking empowers HR professionals to navigate the area of human assets with heightened clarity and strategic acumen. Also Read: A CXO’s Guide to Collaboration Between Citizen Data Scientists and Data Science Teams 4. Conduct Predictive Analysis Leverage the prowess of predictive analytics to predict forthcoming scenarios rooted in historical data. Utilize this predictive capacity to anticipate potential areas of concern, such as identifying employees who might be at risk of departure or pinpointing avenues for performance enhancement. This way, HRs can proactively address potential challenges on the horizon. With the foresight to anticipate future issues, the HR department is armed with the ability to swiftly provide strategic solutions, thus fostering a more agile and adaptive work environment. 5. Implement Pertinent Strategies The formulation of targeted strategies, informed by the wealth of insights gleaned from data analysis, serves as a catalyst for optimizing the efficacy of the HR function within any organizational framework. For example, insights pertaining to development and skills training can help unearth the areas where training and development initiatives need to be implemented. This can play out particularly well for increasing employee retention. Research has previously revealed that 92% of employees believe that employee training programs positively influence engagement. 45% even stay longer at companies when they see their organization investing in learning and development initiatives. At the end of the day, insights gleaned from analytics initiatives can help HRs acknowledge cultural sensitivities and tailor their approach to resonate more deeply with their workforce, thereby fostering a more inclusive and harmonious environment. The Employee Performance Front Now that HR professionals have a wealth of data at their disposal, they can use it to understand the performance of their employees. For example, they can: Measure employee performance in real-time and leverage it for greater accountability, more accurate performance management, and driving innovation opportunities. Use the data to provide valuable insight into the drivers of workforce productivity and be better positioned to attract, retain, and develop top talent. Identify employee trends, ranging from turnover rates and performance metrics to diversity and inclusion insights, to make actionable, data-driven decisions that lead to greater business results. Gain granular insights into the working patterns, benchmark performances, and make better decisions that drive long-term growth. What’s the Way Forward? While the notion of steering HR decisions through data might initially seem a bit foreign to enterprises that aren’t yet data-driven, embracing this analytical perspective can usher in a

Data Science

Innovation Explosion: Possible Through Collaboration Between Students, Researchers, and Innovators on Open Data

What is Open Data? Open data is the information collected or produced by public bodies and made freely available to everybody through portals in a machine-readable format. It could contain vital information on the economy, health, infrastructure, environment, and other areas that could impact the citizens’ socio-economic conditions. Open data can be used for various purposes: Governments can use this data to draft evidence-based public policies and deliver smooth services to citizens. They can also use it to create new jobs and boost the economy. Citizens can access government-backed information to ensure transparency and hold the government accountable. For example, Nigerian citizens use a website called Follow the Money to check if public funds are used to implement policies promised to the citizens. Initiatives like these can help build trust between the government and its citizens. Similarly, India has developed a mobile app called Teeka that enables citizens to track children’s vaccinations and women’s pregnancies. Innovators and private companies can use open data to build innovative products that benefit citizens. For example, startups in India can use the Indian Driving Dataset (IDD) to improve road safety. This unique dataset consists of over 10,000 images of 182 drive sequences on Indian roads that startups can use to build an AI model that can identify potholes in the streets and create road safety solutions. According to a McKinsey report, open data can accelerate innovation, transform the economy, and create $3 trillion worth of economic value for a country. However, to unlock the full potential of open data, the government must encourage students, researchers, and innovators to collaborate and use this data to bring positive changes in the country. Why Should Students, Researchers, and Innovators Collaborate to Innovate? Access to open data empowers students, researchers, and innovators to draw from their strengths and develop unique solutions to solve larger issues. Students Students can use open data to gain practical experience in solving real-world problems using a data-driven approach. They can use the datasets to draw insights and make recommendations to solve problems faced by citizens. Institutes can invest in training students to develop their problem-solving skills and create breakthrough solutions. Researchers Researchers can use the vast dataset as a source of information for research. This can help them present a more comprehensive and in-depth thesis on a topic. For example, an epidemiologist can use open data on public health to study infectious diseases and present solutions to the government and healthcare companies to eradicate them. They can also use open data to validate their experiments and increase the credibility of their research. Innovators Innovators are inherent problem-solvers. They can use open data to identify gaps and find solutions to bridge them. Each of them has specific strengths that they can use together to improve the research and propose better solutions to solve problems. To improve collaboration between students, researchers, and innovators, here are a few steps government, institutions, and companies must take: Define a common goal, i.e., what all stakeholders intend to do with the open data. This will help them plan a strategy and stay focused on achieving the same goal. Next, all stakeholders must be granted authorized access to open data and trained on using it responsibly. Every stakeholder must be assigned a role to ensure smooth operation. For example: Students can collect and standardize data. Researchers can validate and analyze the data and suggest recommendations based on their domain knowledge. Innovators can build solutions to solve the problem. Frequent communication between the stakeholders will thwart all chances of disruptions and facilitate easy data exchange. Monitor the impact of the research and experiments on society and share the findings and recommendations with the government and publications to pave the way for future innovations. Best Practices to Reap Full Benefits of Open Data According to a KPMG report on India’s open data initiatives, there are a few best practices that all stakeholders must follow to reap the full benefits of open data. These include: Standardizing the open data and using uniform terminologies to save time and maintain data quality Training the government authorities on using open data to streamline their work Establishing governance to ensure no confidential data is shared with the public Ensuring the data is updated regularly to maintain data quality and security to prevent breaches India’s Stride Towards Innovation with Open Data India’s public bodies have a treasure trove of open data, which they can use and share with innovators and institutions to innovate and improve the citizens’ lives. A decade ago, India started working in this direction by launching the Open Government Data (OGD) portal. This portal provides millions of people access to government data, which they can use to build new applications and services. Several innovators have also started training the Artificial Intelligence (AI) models to make accurate predictions and data-driven decisions. However, there’s an urgent need to prepare the youth to become AI-ready and develop an innovator’s mindset, especially since India has the largest pool of young demography. The Ministry of Electronics and Information Technology (MEITY) has launched the National Program on Artificial Intelligence (NPAI) initiative to build a pool of skilled, AI-ready youth. It will also focus on promoting AI research and providing access to quality datasets they can use for research and building innovative solutions. With skilling initiatives like these and access to open data, students, researchers, and innovators can collaborate more meaningfully and make combined efforts to design and implement innovative solutions that resolve people’s issues. Linkedin X-twitter Facebook

Data Science

Innovation Explosion: Possible Through Collaboration Between Students, Researchers, and Innovators on Open Data

Open data is the information collected or produced by public bodies and made freely available to everybody through portals in a machine-readable format. It could contain vital information on the economy, health, infrastructure, environment, and other areas that could impact the citizens’ socio-economic conditions. Open data can be used for various purposes: Governments, for example, can use this data to draft evidence-based public policies and deliver smooth services to citizens. They can also use it to create new jobs and boost the economy.  Citizens can access government-backed information to ensure transparency and hold the government accountable.  For example, Nigerian citizens use a website called Follow the Money to check if public funds are used to implement policies promised to the citizens.  Initiatives like these can help build trust between the government and its citizens. Similarly, India has developed a mobile app called Teeka that enables citizens to track children’s vaccinations and women’s pregnancies.  Innovators and private companies can use open data to build innovative products that benefit citizens.  For example, startups in India can use the Indian Driving Dataset (IDD) to improve road safety. This unique dataset consists of over 10,000 images of 182 drive sequences on Indian roads that startups can use to build an AI model that can identify potholes in the streets and create road safety solutions. According to a McKinsey report, open data can accelerate innovation, transform the economy, and create $3 trillion worth of economic value for a country. However, to unlock the full potential of open data, the government must encourage students, researchers, and innovators to collaborate and use this data to bring positive changes in the country.  Let’s find out how this collaboration can be built and what India is doing to make it a reality. Why Should Students, Researchers, and Innovators Collaborate to Innovate Access to open data empowers students, researchers, and innovators to draw from their strengths and develop unique solutions to solve larger issues.  Students Students can use open data to gain practical experience in solving real-world problems using a data-driven approach. They can use the datasets to draw insights and make recommendations to solve problems faced by citizens.  Institutes can invest in training students to develop their problem-solving skills and create breakthrough solutions. Researchers Researchers can use the vast dataset as a source of information for research. This can help them present a more comprehensive and in-depth thesis on a topic.  For example, an epidemiologist can use open data on public health to study infectious diseases and present solutions to the government and healthcare companies to eradicate them. They can also use open data to validate their experiments and increase the credibility of their research. Innovators Innovators are inherent problem-solvers. They can use open data to identify gaps and find solutions to bridge them.  Each of them has specific strengths that they can use together to improve the research and propose better solutions to solve problems. To improve collaboration between students, researchers, and innovators, here are a few steps government, institutions, and companies must take: Define a common goal, i.e., what all stakeholders intend to do with the open data. This will help them plan a strategy and stay focused on achieving the same goal. Next, all stakeholders must be granted authorized access to open data and trained on using it responsibly. Every stakeholder must be assigned a role to ensure smooth operation. For example: Students can collect and standardize data. Researchers can validate and analyze the data and suggest recommendations based on their domain knowledge. Innovators can build solutions to solve the problem.  Frequent communication between the stakeholders will thwart all chances of disruptions and facilitate easy data exchange. Monitor the impact of the research and experiments on society and share the findings and recommendations with the government and publications to pave the way for future innovations. Best Practices to Reap Full Benefits of Open Data According to a KPMG report on India’s open data initiatives, there are a few best practices that all stakeholders must follow to reap the full benefits of open data. These include: Standardizing the open data and using uniform terminologies to save time and maintain data quality Training the government authorities on using open data to streamline their work Establishing governance to ensure no confidential data is shared with the public Ensuring the data is updated regularly to maintain data quality and security to prevent breaches India’s Stride Towards Innovation with Open Data India’s public bodies have a treasure trove of open data, which they can use and share with innovators and institutions to innovate and improve the citizens’ lives.  A decade ago, India started working in this direction by launching the Open Government Data (OGD) portal. This portal provides millions of people access to government data, which they can use to build new applications and services. Several innovators have also started training the Artificial Intelligence (AI) models to make accurate predictions and data-driven decisions. However, there’s an urgent need to prepare the youth to become AI-ready and develop an innovator’s mindset, especially since India has the largest pool of young demography.  The Ministry of Electronics and Information Technology (MEITY) has launched the National Program on Artificial Intelligence (NPAI) initiative to build a pool of skilled, AI-ready youth. It will also focus on promoting AI research and providing access to quality datasets they can use for research and building innovative solutions. With skilling initiatives like these and access to open data, students, researchers, and innovators can collaborate more meaningfully and make combined efforts to design and implement innovative solutions that resolve people’s issues. 

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