Most IoT Apps Crash and Burn. Here’s How to Build One That Doesn’t

Most IoT Apps Crash and Burn. Here’s How to Build One That Doesn’t

Get ready to rethink technology with practical IoT insights designed to turn complexity into competitive advantage.

Most IoT Apps Crash and Burn. Here’s How to Build One That Doesn’t
Photo by Dan LeFebvre / Unsplash

IoT is everywhere. It buzzes behind every screen and hides in every device. It is bold and subtle at the same time.


At 1985, we don’t just develop software. We build connections that drive businesses into the future. And IoT application development is a journey. A journey that is as challenging as it is transformative.

In this post, we’ll explore the nuances of IoT application development. We’ll examine how intricate ecosystems, advanced architectures, and robust security frameworks come together to deliver truly innovative solutions. Expect industry insights, nuanced details, and the kind of data points that matter in real-world projects. This isn’t a primer. It’s a deep dive for those who understand that technology is not just about bits and bytes—it’s about transforming how businesses connect and thrive.

The Evolving IoT Landscape

The world is shifting. Devices are smarter, networks are faster, and expectations are higher.


IoT has moved far beyond connecting a few sensors to the internet. It has become a critical infrastructure element in industries from manufacturing to healthcare, logistics to retail.

The Growth Trajectory

The Internet of Things is growing at an unprecedented pace. Analysts forecast that the global IoT market will exceed $1.1 trillion by 2025. This isn’t just hype. Data shows that as more devices become internet-enabled, the ability to harness and analyze data transforms every facet of business operations.


Short cycles. Rapid evolution. Constant adaptation. These are the rules of today’s IoT landscape.

Industry insiders have noted that the proliferation of IoT devices creates both massive opportunities and significant challenges. For every successful deployment, there is an intricate web of sensors, actuators, gateways, and cloud integrations that must work in perfect harmony. This complexity is compounded by the need for real-time data processing and decision-making, which calls for robust, scalable architectures.

The Impact on Industries

Let’s break it down further. Consider manufacturing. Smart factories deploy IoT to optimize operations, predict maintenance, and even adjust production in real-time. In healthcare, remote patient monitoring and connected devices have redefined patient care. The impact is palpable, measurable, and transformative.
Every industry is touched by IoT. Not as a mere tool, but as a foundational element that redefines business processes.

Businesses are no longer competing solely on products or services—they are competing on the ability to extract data from connected devices. This data-driven approach leads to optimized workflows, cost savings, and entirely new revenue streams. The industrial revolution 4.0 is not coming—it’s here, and IoT is at its core.

Components of IoT Application Development

IoT application development is complex. It’s an orchestration of hardware, software, and network connectivity.
At its core, it’s about connecting the dots in real time. Let’s break down the key components.

Hardware: Beyond Sensors and Actuators

Hardware is the tangible face of IoT. This includes sensors, actuators, embedded systems, and communication modules. Modern devices are more than simple data collectors; they are intelligent nodes capable of processing and transmitting data efficiently.


The selection of hardware is crucial. It impacts everything from energy consumption to data fidelity. Advanced sensors now come with built-in processing capabilities, which reduce the latency between data collection and actionable insights. This distributed intelligence is a game changer.

Take a look at the following table that outlines some common hardware components and their roles in an IoT system:

Choosing the right hardware is a blend of art and science. It’s about balancing cost, performance, and future scalability. As technology evolves, so too do the demands on these devices. Engineers must anticipate not just current needs, but also potential future integrations.

Software: The Brain Behind the Operation

Hardware is only half the story. The software layers built atop the hardware bring IoT to life. These applications process data, make decisions, and interact with other systems in the ecosystem.


The software stack in IoT can be broken down into several layers: device firmware, middleware, cloud platforms, and end-user applications. Each layer plays a specific role and must be optimized for performance, security, and scalability.

Firmware is the unsung hero. It directly interacts with hardware to collect and preprocess data. Middleware abstracts hardware differences and offers standard APIs, making integration easier. Cloud platforms provide the necessary scalability and storage. Finally, end-user applications deliver actionable insights through intuitive interfaces.

Developers face unique challenges when building IoT software. The need for real-time processing means that latency must be minimized at every stage. Additionally, since these applications often span across various devices and networks, ensuring seamless communication is critical. This multi-layered approach requires careful orchestration and thorough testing to ensure that every component functions as expected.

Connectivity: The Lifeblood of IoT

Without connectivity, IoT is just a collection of isolated devices. Communication protocols like MQTT, CoAP, and HTTP form the backbone of IoT networks.
Different protocols serve different needs. MQTT is lightweight and efficient, ideal for real-time communication. CoAP offers similar benefits with a focus on constrained environments, while HTTP remains popular for its simplicity and ubiquity.

Network connectivity isn’t just about speed. It’s about reliability, security, and scalability. Engineers must consider network conditions, bandwidth limitations, and latency constraints. Even the best-designed IoT application can fail if the network is unreliable.


Designing robust connectivity solutions means preparing for interruptions, using redundant paths, and ensuring data integrity even in challenging conditions.

In our experience at 1985, one common challenge is integrating legacy systems with modern IoT devices. Legacy systems may not be built for the high demands of IoT. Bridging the gap requires custom solutions that can interface with old and new technologies seamlessly. The goal is always to create a system where data flows freely and securely from the edge to the cloud.

Integrating IoT with Existing Infrastructure

Modern enterprises rarely build from scratch. Most have existing systems, databases, and legacy infrastructure that need to coexist with new IoT solutions.
Integrating IoT applications into these environments is challenging yet essential. It’s not just a technical hurdle—it’s a strategic decision that can make or break the overall success of digital transformation.

Understanding Legacy Systems

Legacy systems are often the backbone of an organization’s operations. They have evolved over years, sometimes decades, and are finely tuned to meet specific business needs. However, these systems can be rigid, with outdated protocols and architectures that were never designed for the interconnected world of IoT.
This disparity creates a significant integration challenge. Legacy systems might lack the APIs or data structures required for seamless communication with modern IoT platforms.

Bridging this gap requires a deep understanding of both worlds. You need to dissect the legacy system to understand its capabilities and limitations. This involves reverse engineering data flows, identifying potential bottlenecks, and devising strategies to either upgrade or interface with these systems. Outsourced software development companies, like 1985, excel in this arena by bringing fresh perspectives and innovative solutions to the table.

Why and How Integrating IoT into Legacy Systems

Middleware and APIs: The Connective Tissue

Middleware plays a pivotal role in bridging IoT devices with enterprise systems. It acts as a translator, ensuring that data flows from one system to another without losing its context or integrity. Middleware solutions can help with data aggregation, transformation, and orchestration.


APIs, on the other hand, are the conduits that allow different systems to communicate. A well-designed API can abstract the complexities of the underlying systems, offering a standardized way to access data and functionalities.

Consider the following advantages of robust middleware and API strategies:

  • Scalability: They allow systems to grow organically without a complete overhaul.
  • Flexibility: APIs enable the integration of new services and technologies as they emerge.
  • Maintainability: Middleware abstracts complexities, making systems easier to manage and update.
  • Security: Centralized control over data flow improves monitoring and threat management.

By embracing these technologies, businesses can create a cohesive ecosystem where legacy systems and new IoT applications not only coexist but also complement each other. This integration is critical for maintaining operational continuity while innovating rapidly.

IoT Data Integration for Real-Time Processing with Confluent Cloud | FR

Real-Time Data Integration

One of the most challenging aspects of IoT integration is handling real-time data. In today’s competitive landscape, the ability to process and act on data in real time can provide a significant competitive edge.


This involves not only integrating disparate systems but also ensuring that the data is synchronized, consistent, and accessible across the entire enterprise. Techniques such as event streaming, real-time analytics, and in-memory databases are becoming standard practice.

The key is to design systems that can ingest high volumes of data, process it efficiently, and provide actionable insights within seconds. This level of performance requires a combination of robust hardware, optimized software, and agile development practices. At 1985, our approach focuses on using cloud-native technologies and microservices architectures to achieve this level of agility and responsiveness.

Security and Privacy: The Bedrock of Trust

Security isn’t an afterthought in IoT. It’s built into every layer of the system.
When billions of devices are interconnected, one vulnerability can open the door to significant risks. In today’s digital landscape, robust security and privacy measures are not just regulatory requirements—they’re essential for building trust.

The Security Landscape

IoT systems are inherently vulnerable. Each connected device is a potential entry point for attackers. Cyber threats have evolved. They are sophisticated, persistent, and increasingly targeted.
A single breach can lead to data loss, financial repercussions, and damage to a company’s reputation. In industries like healthcare and critical infrastructure, the stakes are even higher.

The industry is waking up to these risks. Recent studies indicate that nearly 70% of IoT devices have some form of security vulnerability. This statistic underscores the urgent need for a security-first approach in IoT application development. Companies must invest in security audits, penetration testing, and continuous monitoring to identify and mitigate risks before they become crises.

Layered Security Approaches

Security must be multi-layered. It should be implemented at every stage of the IoT development process—from the hardware level to the application layer. Here’s a brief overview of a layered security approach:

  1. Hardware Security: Secure boot processes, trusted execution environments, and physical tamper detection help protect the hardware itself.
  2. Network Security: Encryption protocols, secure communication channels, and regular firmware updates safeguard data in transit.
  3. Application Security: Rigorous testing, code audits, and real-time monitoring protect the software components from vulnerabilities.
  4. Data Security: End-to-end encryption, secure storage, and access controls ensure that sensitive information remains confidential and unaltered.

Each layer is a defense mechanism. A breach in one layer doesn’t necessarily compromise the entire system. However, integrating these layers seamlessly requires a strategic approach and continuous oversight.

Privacy and Data Governance

Data privacy is a central concern in IoT. With vast amounts of data flowing between devices and cloud platforms, businesses must ensure that they comply with data protection regulations such as GDPR and CCPA.


Privacy isn’t just about compliance. It’s about earning and maintaining the trust of users. Consumers are increasingly aware of how their data is used, and they expect transparency and control.

Effective data governance in IoT involves several key practices:

  • Data Minimization: Collect only the data that is essential.
  • Anonymization: Remove personally identifiable information whenever possible.
  • Access Controls: Ensure that data access is restricted to authorized personnel only.
  • Audit Trails: Maintain logs of data access and modifications for accountability.

These practices are non-negotiable. They form the bedrock of a secure, trusted IoT ecosystem. For companies like 1985, which pride themselves on building robust outsourced development solutions, security and privacy are not afterthoughts—they’re integral to every project.

Scalability and Future-Proofing Your IoT Solutions

Scalability is not a luxury—it’s a necessity. IoT deployments can start small but often need to scale rapidly.


Building systems that can grow with your business is a key challenge that every development team faces. Future-proofing your IoT infrastructure is about designing for expansion, flexibility, and adaptability.

Architecting for Growth

The architecture of an IoT solution must be robust yet flexible. Monolithic systems rarely survive the rigors of rapid growth. Instead, modern architectures lean towards microservices and distributed systems.


This approach allows individual components to scale independently, ensuring that the overall system can handle increased loads without compromising performance. Cloud-native technologies and container orchestration tools like Kubernetes are essential in this context.

Key considerations for scalable IoT architectures include:

  • Modularity: Break down your system into manageable components.
  • Loose Coupling: Ensure that components communicate through well-defined APIs.
  • Event-Driven Architecture: Utilize event streaming for real-time data processing.
  • Auto-Scaling: Use cloud resources that can automatically adjust based on demand.

These principles ensure that your IoT solution remains robust even as data volumes and user demands increase exponentially.

Architecture of an IoT Platform - Operational Scalability

The Role of Edge Computing

Edge computing is rapidly becoming a game changer in IoT. Instead of processing all data in a centralized cloud, edge devices can handle computations locally.
This reduces latency, decreases bandwidth usage, and improves response times. For applications that require real-time decision-making, edge computing is invaluable. It also enhances privacy and security by reducing the amount of data that needs to traverse public networks.

The balance between edge and cloud is critical. The decision to process data at the edge versus in the cloud depends on factors like latency requirements, data volume, and security considerations. Modern IoT platforms are designed to operate in a hybrid mode, seamlessly shifting workloads between the edge and the cloud.

The IoT landscape is ever-evolving. Here are some trends that are shaping the future:

  • AI and Machine Learning: These technologies will become more integrated, enabling smarter, self-optimizing systems.
  • 5G Connectivity: The rollout of 5G networks will provide the high-speed, low-latency connections necessary for advanced IoT applications.
  • Blockchain for IoT: Blockchain can enhance security and transparency in IoT ecosystems, particularly in supply chain and financial applications.
  • Sustainability: Energy-efficient devices and sustainable practices are becoming critical, especially as IoT deployments scale globally.

These trends aren’t speculative. They are being witnessed in pilot projects and early deployments worldwide. Businesses that align their IoT strategies with these trends will be better positioned to capitalize on the next wave of innovation.

Examples & Case Studies

Theory is useful. But real-world examples bring clarity. Let’s look at some case studies that illustrate the complexities and triumphs of IoT application development.

Smart Manufacturing

In a bustling manufacturing plant, IoT has revolutionized production lines. Sensors monitor machine health, while predictive analytics anticipate failures before they occur.


A leading automotive manufacturer integrated IoT solutions to monitor critical equipment in real time. By doing so, they reduced unplanned downtime by 30% and improved overall efficiency by 25%. Such results aren’t just numbers—they translate into significant cost savings and improved production schedules.

The system was built with robust hardware and advanced firmware that could withstand harsh industrial environments. Middleware integrated data from legacy systems, while cloud platforms processed the data in real time. The solution was scalable and secure, meeting stringent industry regulations.


At 1985, we’ve seen firsthand how such implementations require deep domain expertise, a commitment to quality, and an unyielding focus on performance.

IoT solutions for healthcare

Connected Healthcare

Healthcare is another industry where IoT is making waves. Remote patient monitoring systems, wearable devices, and smart diagnostics have transformed patient care.


Consider a hospital network that deployed IoT solutions to monitor patient vitals continuously. With real-time alerts and automated data logging, doctors could intervene sooner, often before a condition worsened. The impact was profound—a 20% reduction in emergency room visits and improved patient outcomes across the board.

This solution involved integrating data from diverse sources—wearable devices, hospital information systems, and cloud-based analytics. The challenge was to ensure data accuracy, real-time processing, and compliance with healthcare regulations such as HIPAA.


The project’s success lay in its layered architecture. Robust security protocols ensured that sensitive patient data remained confidential, while scalable cloud resources processed large data volumes efficiently. The lessons learned from such projects underscore the importance of a tailored approach rather than one-size-fits-all solutions.

Smart Cities

Smart cities are emerging as living laboratories for IoT. Urban areas are working with connected sensors to manage traffic, monitor air quality, and even optimize energy usage.


In one notable project, a mid-sized city implemented an IoT network to monitor public transportation and traffic flow. Data from sensors embedded in roads and vehicles provided city planners with real-time insights, leading to a 15% reduction in traffic congestion during peak hours.


The project required seamless integration of multiple data sources and real-time analytics. Custom dashboards and APIs allowed city officials to access actionable insights at any time. This case study illustrates that IoT is not just about technology—it’s about making cities more livable, efficient, and sustainable.

The Business Case for IoT Application Development

Every investment must justify its value. IoT application development is no exception.


When businesses consider IoT projects, they must weigh the benefits against the costs, risks, and long-term impacts. Here, we explore why investing in IoT is a smart move.

Driving Efficiency and Reducing Costs

IoT can dramatically improve operational efficiency. By automating routine tasks, predicting maintenance needs, and optimizing resource allocation, businesses can reduce costs significantly.


For example, a logistics company implemented IoT tracking devices across its fleet. The result? A reduction in fuel consumption by 10% and improved route optimization that saved thousands in operational costs each month.


These aren’t hypothetical benefits. They are measurable outcomes that have a direct impact on the bottom line. Businesses that integrate IoT effectively can expect to see substantial returns on their investments, making it a financially viable strategy in a competitive marketplace.

Enhancing Customer Experience

In today’s market, customer experience is king. IoT enables businesses to deliver personalized, real-time experiences. Whether it’s through smart devices that anticipate customer needs or services that adjust dynamically based on user behavior, IoT makes interactions seamless.


Consider a retail chain that uses IoT sensors to monitor store traffic and optimize product placements. The data collected not only enhances the shopping experience but also drives targeted marketing strategies. This level of personalization is a powerful differentiator in a crowded market.

Risk Management and Predictive Insights

Data is the new currency. In IoT systems, every sensor reading, every data packet, is a piece of a larger puzzle. With predictive analytics and machine learning integrated into IoT applications, companies can foresee problems before they escalate.


For instance, a critical infrastructure provider deployed IoT solutions to monitor system health continuously. By analyzing the data, they were able to predict equipment failures and schedule proactive maintenance, reducing downtime and improving overall reliability.


The ability to predict and mitigate risks before they become costly issues is a compelling argument for investing in IoT. It transforms reactive maintenance into proactive management—a game changer in today’s fast-paced business environments.

Securing IoT Devices: Risks and Best Practices for Businesses

Best Practices for Developing Robust IoT Applications

Building a successful IoT application requires more than coding prowess. It demands strategic planning, meticulous design, and ongoing vigilance.
Let’s outline some best practices that can help ensure your IoT projects are successful and resilient.

Embrace Agile Development

IoT projects are complex. They involve multiple components and stakeholders, and the requirements can evolve rapidly. Agile development methodologies are well-suited to this environment.


An agile approach allows teams to iterate quickly, incorporate feedback, and adjust priorities as needed. It also fosters close collaboration between developers, hardware engineers, and business stakeholders. This collaborative environment is key to tackling the unique challenges of IoT application development.

Prioritize Security from Day One

Security cannot be bolted on at the end. It must be integrated into the development lifecycle from the very beginning.


Start with threat modeling. Identify potential vulnerabilities at every stage—from device hardware to cloud integration—and implement mitigation strategies early on. Regular security audits and penetration testing should be an integral part of your development process.


For outsourced development teams like those at 1985, a proactive security posture is a hallmark of quality. It reassures clients and protects the integrity of the entire ecosystem.

Invest in Testing and Quality Assurance

IoT solutions often operate in mission-critical environments. A bug in the code or a failure in the hardware can have far-reaching consequences.


Robust testing frameworks are non-negotiable. Automated testing, continuous integration, and real-world field testing should all be part of your quality assurance strategy. This rigorous testing not only ensures functionality but also uncovers potential scalability and performance issues before they become critical.

Document and Monitor

Documentation is a lifeline. Detailed documentation ensures that every component of your IoT application is understood, maintained, and scalable.


Monitoring tools are equally important. Real-time monitoring and logging provide insights into system performance and help in the early detection of anomalies. A well-documented and monitored system can evolve and adapt as new requirements emerge.

Lessons Learned from Outsourced Software Development

At 1985, we’ve been on the frontlines of IoT application development for years. Our experience has taught us that success lies in embracing complexity while keeping the solutions elegantly simple.


Every project is unique. The challenges range from integrating legacy systems to scaling applications to meet unpredictable demands. But there are common themes that we’ve seen time and again.

Collaboration Is Key

IoT projects are inherently interdisciplinary. They demand the expertise of software engineers, hardware specialists, data scientists, and domain experts.
The best projects emerge when these groups collaborate seamlessly. Regular communication, shared goals, and a willingness to innovate are the hallmarks of successful outsourced development teams. At 1985, we pride ourselves on our collaborative spirit. We treat every project as a partnership, not just a contract.

Tailor-Made Solutions Over Off-The-Shelf Products

One size rarely fits all in IoT application development. Off-the-shelf solutions may provide a starting point, but they seldom meet the complex needs of modern enterprises.


We have found that custom-built solutions, tailored to the specific requirements of each client, provide the most value. This approach may require more initial effort, but it pays off in the long run by delivering systems that are robust, scalable, and secure.

The Importance of Continuous Learning

Technology never stands still. What works today may be obsolete tomorrow. Continuous learning and adaptation are essential.


Staying abreast of the latest trends, tools, and techniques is a must for any team working in the IoT space. Whether it’s adopting new communication protocols, integrating advanced analytics, or embracing emerging security paradigms, the willingness to learn and evolve is the key to sustained success.

The Road Ahead

The future of IoT application development is bright, yet challenging.
Emerging technologies and evolving market demands will continue to reshape the landscape. Companies must be agile, innovative, and willing to embrace change.

Embracing Disruption

Change is inevitable. New technologies like 5G, AI, and blockchain are already making their mark on the IoT ecosystem.
Rather than fearing disruption, businesses must harness it. Embracing change means investing in research and development, fostering a culture of innovation, and being willing to pivot when new opportunities arise. At 1985, we see disruption as a chance to lead, not follow. We build solutions that are not only resilient today but also adaptable for the challenges of tomorrow.

Building Sustainable Solutions

Sustainability is more than a buzzword. It’s a critical element of future-proof IoT applications.
Energy efficiency, responsible data management, and environmentally friendly hardware choices are becoming increasingly important. Companies that prioritize sustainability in their IoT projects not only benefit from reduced operational costs but also enhance their corporate reputation and compliance with global regulations.

Preparing for Scale

As IoT deployments expand, scalability will be a constant concern. The solutions built today must be able to scale rapidly as data volumes and device counts grow exponentially.


Investing in cloud infrastructure, modular architectures, and advanced monitoring systems will be essential. The goal is to build systems that can handle tomorrow’s demands without a complete overhaul of today’s design.

Recap

IoT application development is not a passing trend—it’s a revolution.
It transforms how businesses operate, interact, and thrive in a digital-first world. From the intricacies of hardware and connectivity to the nuances of security and integration, every aspect of IoT development demands careful thought and expert execution.

At 1985, we see IoT as both a challenge and an opportunity. Our journey in outsourced software development has taught us that success comes from understanding the deep technical details while never losing sight of the business impact. It’s about building systems that are robust, secure, scalable, and above all, innovative.

The road ahead is complex and fraught with challenges. But it is also filled with promise. For businesses that are willing to invest in smart, tailored IoT solutions, the rewards are immense—a competitive edge in a rapidly evolving market, enhanced operational efficiency, and the ability to harness data in ways that were once unimaginable.

We invite you to join us on this journey. Embrace the future. Innovate boldly. And let’s create a connected world that works smarter, not harder.