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Experienced Technology Leader and Innovator with a proven track record of driving innovation, delivering scalable technology solutions, and building high-performing teams. Specialized in developing industry-specific cloud platforms, no-code solutions, and machine learning applications for sectors including automotive, IoT, and retail. Known for optimizing operations, accelerating revenue growth, and enabling digital transformation.
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Cricket
Emerging Technology Research
Technical Skills: Cloud Computing (AWS, Azure, GCP), Developed no-code platforms for enterprise applications, Developed IoT Gateway for devices & Sensors, Product Strategy & Market Research, Product and Platform Roadmap, Customer Relationship Management, Microservices Architecture platform with workflow fabric to support horizontal scaling, Data Migration Framework, Observability-improve traceability and reduce support cost AI/ML-integrated Data pipeline for model training Leadership Skills: Strategic Visioning, Team Building, Customer Engagement, Digital Transformation, Building Business channels, Tools & Platforms: NGINX, Kubernetes, Docker, Jenkins, JIRA, Kafka, MiniO, Trinio, Nifi, Pinot, SQL Server, PostgreSQL, Mongo, Cassandra, Redis, Workflows, C/C, Java, Oracle
Building a product from an initial concept to full deployment is a journey filled with challenges, opportunities, and learnings. For me, this journey began with a deep realization: infrastructure costs were unsustainable, customer demand for scalability was increasing, onboarding time needed significant improvement, and the nature of our business demanded a long-term, strategic approach. Additionally, transforming a brownfield business and reshaping organizational culture were critical to ensuring success. This is the story of how these factors shaped my approach to building a scalable and future-proof product.
The Catalyst: Costs, Demand, and ScaleLike many companies in the enterprise space, we faced rising infrastructure costs. Our existing setup was not optimized for scalability, and every incremental growth in customers added disproportionate overhead. Customers were demanding faster onboarding and seamless scaling. The realization hit: we needed a new approach.
Key Questions We Asked:
Extensive market research and competitive analysis revealed that business processes and priorities change continuously. Understanding competitor strategies and customer pain points became instrumental in refining our approach.
Findings from Market Research:
This research validated our need to prioritize adaptability, seamless onboarding, and observability while designing our solution.
Pivoting to a No-Code PlatformRecognizing the need for faster turnaround times and improved issue resolution, we pivoted to build a no-code platform. This approach enables customers to configure and deploy solutions with minimal technical expertise, reducing dependency on engineering teams and expediting time-to-value.
Benefits of the No-Code Approach:
By shifting towards a no-code paradigm, we ensured that enterprises could build, modify, and scale solutions without being slowed by traditional development cycles.
Driving Evolution with Persona-Based DesignAs the product evolved, we changed our approach by integrating user stories for each persona who would be using the application. This strategy significantly helped in consolidating functionality and led to the creation of dedicated applications for different user groups:
This shift improved the usability and adoption of the platform while optimizing business workflows, API architecture, and security considerations for these applications, ensuring robust and seamless interactions across all integrated systems.
Customer-Centric Approach: A Core PrincipleA customer-centric approach is critical while building any platform or solution. Without prioritizing customer feedback, real insights into usability, adoption barriers, and feature effectiveness remain elusive. We involved customers at every step of our journey to gather feedback, conduct field trials, validate solutions, and optimize them based on real-world use cases. By embedding continuous feedback loops and fostering open dialogue with users, we refined features, enhanced user experiences, and drove overall product success.
Scalability Considerations for Customer DemandCustomer demand for scale varies based on multiple factors, including:
These factors led us to design a workflow fabric architecture that supports dynamic scaling. Additionally, we introduced a no-code API design studio, reinforcing an API-first approach. This ensures:
The next stage in our product journey involves moving the workflow fabric to AI-driven agents within a no-code development studio. This transition will:
Additionally, we are building a process designer studio to enhance workflow creation flexibility and efficiency. We will also release our application design studio to enable rapid prototyping and deployment of customer and business applications.
To expand the platform's capabilities, we are launching a connector factory platform that will facilitate seamless integrations with third-party services, enterprise systems, and ecosystem partners. Driving this initiative forward requires an aggressive focus on partnerships, ensuring that our platform is well-integrated into the broader enterprise software landscape.
Final ThoughtsBuilding a product is more than just engineering—it’s about aligning vision, strategy, and execution. For anyone embarking on a similar journey, my advice is simple: stay agile, listen to your customers, and embrace the challenges that come with scaling a business. The rewards of seeing an idea materialize into a successful product are well worth the effort.
Are you facing similar challenges in your product journey? Let’s connect and exchange insights!
Patent : SYSTEM AND METHOD FOR CONFIGURING IOT DEVICES | https://patents.justia.com/inventor/pravin-wadekar
Introduction
Building a robust platform architecture to support large-scale, data-intensive applications requires careful planning, meticulous design, and a deep understanding of both current and emerging technologies. This blog explores the technical decisions that helped create a scalable, no-code, microservices-based platform, incorporating advanced observability, real-time analytics, and a flexible connector ecosystem. By leveraging cutting-edge tools and proven architectural patterns, this platform not only streamlined operational efficiency but also delivered business-critical insights and enhanced customer experiences.
Microservices and No-Code: A Dual-Pronged Approach
At the core of the architecture lies a distributed microservices framework designed for horizontal scalability and fault isolation. Each service was independently containerized using Kubernetes, enabling rolling updates, rapid scaling of individual components, and seamless failover handling. To ensure high availability, we implemented a multi-region deployment strategy, leveraging managed services like Amazon EKS, backed by autoscaling groups and load balancers to handle unpredictable traffic spikes.
The no-code layer introduced a business-friendly abstraction over the microservices. It was built using a custom low-code engine underpinned by a rule-based orchestration framework. This allowed non-technical stakeholders to define workflows, event triggers, and decision trees, all of which compiled down to optimized microservices calls. The result was not just reduced implementation time, but also a significant decrease in maintenance overhead since workflows could be updated on-the-fly without redeploying any core services.
Observability: A Proactive Support Paradigm
Traditional observability tools often focus on application performance metrics, but we went beyond the standard telemetry stack. By integrating Prometheus for real-time metrics aggregation, Grafana for dynamic visualization, and distributed tracing with Jaeger, we created a system where every request could be traced across microservices. This setup provided detailed visibility into latency hotspots, service-to-service dependencies, and contention points.
More importantly, we leveraged this observability framework to build predictive analytics for the support team. Using a combination of machine learning models deployed on AWS SageMaker and data pipelines orchestrated by Apache Airflow, we could forecast potential system bottlenecks and predict user-facing issues. Alerts were sent to our incident response system (integrated with PagerDuty), enabling support engineers to preemptively address problems before they impacted end users.
Building a No-Code Data Pipeline
To support real-time and batch data workflows, we constructed a no-code data pipeline using a Lakehouse architecture. Data was ingested through Apache Kafka, ensuring scalable and fault-tolerant streaming. Once ingested, data was stored in MinIO, a high-performance object store compatible with the S3 API. Metadata management and schema evolution were handled by Apache Hive, which provided a flexible interface for querying and cataloging data.
For distributed query execution, we integrated Trino, enabling SQL-based analytics on top of the Lakehouse. This approach allowed us to maintain a single source of truth while supporting both ad-hoc queries and pre-defined transformations. To enhance the no-code experience, we developed a pipeline builder UI that leveraged these technologies under the hood, allowing users to drag-and-drop components, configure streaming transforms, and deploy workflows without writing code. The result was a scalable ETL solution capable of handling everything from continuous streams to high-volume batch jobs.
Driving Business-Specific Insights
Data pipelines became the backbone for business-specific machine learning and AI models. Models were trained on historical data stored in the Lakehouse and deployed as inference endpoints using Kubernetes-based model servers. Examples included:
By leveraging these data-driven insights, the platform transformed into a decision-making engine, enabling customers to optimize operations, reduce waste, and increase profitability.
Connector Ecosystem and Seamless Integration
A modern platform cannot exist in isolation. We designed a connector factory framework to simplify integration with a wide range of external systems. Using a modular adapter pattern, connectors were built for:
The connector factory was augmented by a built-in schema registry and a data migration framework. This made onboarding new customers straightforward by automating schema alignment, data transformation, and initial data loading processes. Combined with continuous integration and continuous delivery (CI/CD) pipelines, the entire ecosystem could evolve without downtime, ensuring high availability and reliability.
Conclusion
Building a scalable, high-performance platform architecture requires more than just picking the right tools—it demands careful orchestration of technologies, robust design principles, and a forward-thinking approach. By combining microservices with a no-code framework, integrating advanced observability, leveraging a Lakehouse architecture for flexible data pipelines, and creating a versatile connector ecosystem, we achieved a platform that meets complex business needs, reduces operational costs, and continuously improves customer satisfaction. This architecture serves as a foundation for future growth, ensuring that it can evolve alongside emerging trends and increasing demands.