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Keep an eye out for this technology in 2023

date:  Jan 20 2023
reading time: 10min
Author

Jordan Jancevski

The recent rapid advancements in technology have been advantageous to us because they allow us to develop and improve new products and services. It is crucial to stay current with technological advancements as the globe becomes more linked. In such manner, the one which is focused on reducing latency and bandwidth utilization by moving computation as near as feasible to the source of the data must be mentioned. Edge computing enables data processing to take place near the source of the data, at the edge of a network. By keeping the processing close to the source, it avoids the need for data to go to a server that might be located across the country. When using edge computing, data is collected by the edge computing infrastructure and delivered to end users almost instantly.

Given the fact that after COVID, many companies chose to continue with remote work, there is more need than ever to automate, streamline, and speed up connectivity. The strain from more Internet of Things (IoT) devices on public clouds is increasing at the same time, adding to the ever-increasing administration overhead required to adequately protect and optimize operations. And that\’s where edge computing comes into play and can benefit businesses.

What is edge computing?

Location is the only crucial factor in edge computing. Data is generated at a client endpoint, such as a user\’s computer, in conventional enterprise computing. Through the corporate LAN, where the data is stored and processed by an enterprise application, the data is transferred across a WAN, such as the internet. The client endpoint is then given the results of that work. For the majority of common business applications, this client-server computing strategy has been demonstrated time and time again. However, traditional data center infrastructures are having a hard time keeping up with the increase in internet-connected gadgets and the amount of data such devices produce and require. The idea of transferring so much data in circumstances that are frequently time- or disruption-sensitive puts a tremendous amount of burden on the global internet, which is already frequently congested and disrupted. As a result, IT architects have turned their attention from the central data center to the logical edge of the infrastructure, shifting storage and processing resources from the data center to the location where the data is generated. Simple: If you can\’t move the data closer to the data center, move the data center closer to the data. The idea of edge computing is not new; it is based on long-standing theories of distant computing, such as remote offices and branch offices, which held that placing computing resources close to the desired location rather than relying on a single central site was more dependable and efficient.

In order to gather and process data locally, edge computing places storage and servers where the data is. This typically only requires a partial rack of equipment to operate on the remote LAN. The computing equipment is frequently installed in shielded or hardened enclosures to shield it from extremes in temperature, moisture, and other environmental factors. Only the results of the analysis are sent back to the main data center during processing, which frequently include normalizing and analyzing the data stream to hunt for business information.

Business intelligence concepts might differ greatly. Examples include retail settings where it may be possible to integrate actual sales data with video monitoring of the showroom floor to identify the most desirable product configuration or consumer demand. Predictive analytics are another example that can direct equipment maintenance and repair prior to real flaws or failures. Yet other instances frequently include utilities, like the production of electricity or water, in order to preserve the efficiency of the machinery and the standard of the output.

Some of the use cases this technology offers

Reduced operational expenses, improved durability, and a decrease in bandwidth needs and network traffic are all advantages of edge computing. Key processes can be maintained through real-time processing that is network and device efficient. Additionally, they provide four essential qualities that elevate businesses utilizing edge computing: strong security, outstanding scalability to expand with an operation, versatility to meet a variety of obstacles, and dependability users can rely on.

Remote observation – Having in mind that their operations are frequently located in remote areas and because failures can have catastrophic effects, remote monitoring is especially important for oil and gas industries. Oil and gas firms face slower speeds and weaker connections if they simply use the cloud to store and send data from the plant to whoever is remotely monitoring the facility—both of which are crucial if something goes wrong. Oil and gas industries can obtain real-time analytics that don\’t rely as heavily on robust connectivity by utilizing edge computing, which allows data to be analyzed locally.

Maintenance planning – Before a failure happens, manufacturers want to be able to identify and evaluate changes in their goods and edge computing enables manufacturers to do just that. Users using predictive maintenance are able to foresee any service interruptions, deal with them, and go forward in the knowledge that their activities will go without a hitch. With edge technology, producers may make decisions in real-time using sensor data gathered on the shop floor because there is no delay in information reception or processing. Edge computing enables preventive maintenance, enhancing output quality, operational effectiveness, and productivity.

More effective customer support – Businesses can use edge computing to create multichannel, hyper-personalized customer experiences in addition to real-time customer service. Organizations may give their customers a better experience right away by processing customer data—location, time of day, previous purchase history, etc.—and responding appropriately with personalized communications or offers.

Detecting fraud – Financial institutions can detect fraud at the transaction level in real-time thanks to edge computing, which occurs closer to the source device. As opposed to discovering fraudulent tendencies after the fact, running AI-enabled analytics at the edge enables banks and financial institutions to take proactive measures to solve these problems and lessen their financial impact. Additionally, doing so enhances client pleasure, guarantees regulatory compliance, and safeguards the institution\’s brand.

Advantages and disadvantages of this technology

In addition to addressing important infrastructure issues like bandwidth restrictions, excessive latency, and network congestion, edge computing may also offer a number of additional advantages that make it interesting in other contexts.

In a situation where bandwidth is constrained or connectivity is erratic due to site environmental factors, edge computing can be helpful. Examples include ships at sea, offshore farms, and other isolated areas like a desert or a jungle. If connectivity is available, edge computing can save data for transmission to a central location only after doing computation on-site, sometimes on the edge device itself, such as water quality sensors on water purifiers in far-flung communities. The amount of data that needs to be delivered can be significantly decreased by processing data locally, needing much less bandwidth or connectivity time than might otherwise be required. Furthermore, moving enormous amounts of data is a problem that goes beyond technology. Data security, privacy, and other legal considerations can become more complicated when traveling across national and regional boundaries. Edge computing can be used to retain data near to its origin and within the parameters of current data sovereignty regulations, such the GDPR, which outlines how data should be stored, processed, and disclosed in the European Union. This can enable local processing of raw data, masking or safeguarding any sensitive information before transmitting it to a primary data center or the cloud, which may be located in another country. Last but not least, edge computing presents an additional chance to establish and guarantee data security. Enterprises are still concerned about the safety and security of data after it leaves the edge and travels back to the cloud or data center, despite the fact that cloud providers offer IoT services and excel in complicated analysis. When computation is done at the edge, even when security on IoT devices is still lacking, any data traveling across the network back to the cloud or data center can be encrypted, and the edge deployment itself can be made more resistant to hackers and other nefarious actions.

Be that as it may, every technology has its challenges and this one is not an exception. The scope and diversity of the available resources and services are part of what makes cloud computing so appealing for edge — or fog — computing. Although effective, edge infrastructure deployment requires a clear understanding of its scope and purpose. Even a large-scale edge computing deployment serves a specific function at a predetermined scale with minimal resources and services. In addition, even the most tolerant edge deployment will need a certain minimum degree of connectivity since edge computing bypasses common network restrictions. It\’s essential to plan an edge deployment that takes into account intermittent or inadequate connectivity, as well as what occurs at the edge if connectivity is lost. Edge computing success depends on autonomy, AI, and graceful failure planning in the face of connection issues. Lastly, the design of an edge computing deployment must take into account both proper device management, such as policy-driven configuration enforcement, and security in the computing and storage resources, including elements like software patching and updates, with a focus on encryption in the data at rest and in flight. Secure communications are a feature of IoT services from major cloud providers, although they are not always present when creating an edge site from scratch.

With the growth of IoT, edge computing is growing as a solution to the challenging and complicated problems of managing millions of sensors and devices, along with the resources they require. Compared to the cloud computing approach, it would move data processing and storage to the \”edge\” of the network, close to the end users. It lessens traffic flows to lessen the bandwidth needs of the Internet of Things. Additionally, edge computing will speed up response times compared to traditional cloud services for real-time IoT applications by lowering communication latency between edge/cloudlet servers and end users.

Having said that, feel free to get in touch with us if you’re ever in a need of efficient results while we steadily watch out for this technology’s advancement.

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IoT In Healthcare

IoT in Healthcare: What It Is, How It's Used, Its Importance & Vulnerabilities

IoT in healthcare is already transforming the sector, and the future seems promising.  From wearable fitness trackers to sophisticated smart implants, applications of IoT are changing the way healthcare is delivered. Read on to explore the groundbreaking impact.

What is IoT in Healthcare? 

IoT in healthcare is a term that refers to a network of connected devices that collect and exchange data to improve patient outcomes. These IoT devices range from wearable health monitors and smart thermometers to advanced implantable devices and remote patient monitoring systems.

Why is IoT Important in Healthcare? 

IoT is soon to become an indispensable part of modern healthcare as it primarily focuses on improving the efficiency and quality of patient care. IoT devices in healthcare collect and transmit real-time health data to healthcare providers. This information can be used for a variety of purposes, from early diagnosis and personalized treatment plans to continuous monitoring of patient conditions minus the need for invasive procedures.  

For example, wearable medical devices within the IoT framework enable Remote Patient Monitoring (RPM). These devices can monitor patients for different medical conditions right from their homes, allowing for timely interventions when needed without frequent hospital visits. This is paramount for chronic disease management, postoperative care, and elderly patients. 

Backed by IoT devices, patients can recover at home under medical supervision via remote monitoring, significantly reducing hospital readmissions. In turn, This lowers healthcare costs and improves patient comfort and satisfaction. Since IoT also supports data collection, it can lead to better clinical decision-making and operational efficiency for healthcare organizations. It’s a win-win. 

What’s more, the integration of IoT with blockchain technology further improves security and privacy. Platforms like BurstIQ facilitate the sharing and usage of medical data securely. Using blockchain, healthcare providers can share sensitive information reliably and with ease. This helps them streamline operations while guaranteeing all involved parties have accurate and up-to-date data.

How Is IoT Used in Healthcare?

With more and more medical practitioners and hospitals adopting IoT, we are witnessing a new and improved healthcare system. How? Here are just some of the applications of IoT within the sector:

ApplicationDescription
Remote Patient MonitoringCollects real-time health data from wearables or sensors for remote monitoring of patients. This remote patient monitoring can be particularly useful for patients who may not have easy access to healthcare facilities, and it can even recommend treatments or generate alerts based on the information gathered. 
Smart Medical DevicesIoT-enabled devices aid in managing chronic conditions by automatically collecting and transmitting data. 
Asset Tracking and ManagementTracks the location and status of medical equipment to ensure availability and reduce search time.
Supply Chain ManagementMonitors inventory levels and tracks movement of medical supplies and pharmaceuticals.
Hospital Operations OptimizationOptimizes hospital operations such as patient flow and scheduling, and monitors environmental conditions.
TelemedicineIoT devices enable telemedicine services, allowing patients to consult with doctors remotely, which can be especially useful for patients who live in remote areas or have mobility problems. 
Patient Engagement and Behavior MonitoringEncourages patient engagement and monitors behavior patterns for personalized feedback.

Benefits of IoT in Healthcare 

  • Improved Patient Monitoring: Continuous tracking of vital signs and health metrics through wearables and smart devices provides real-time data, allowing for timely interventions and better disease management.
  • Remote Patient Care: IoT devices facilitate telemedicine and remote consultations, reducing the need for hospital visits and enabling healthcare access in underserved or rural areas.
  • Operational Efficiency: Automation of routine tasks, such as inventory management and patient flow tracking, improves operational workflows and reduces the administrative burden on healthcare professionals.
  • Personalized Treatment: Data collected from IoT devices can be analyzed to tailor treatments to individual needs, improving patient outcomes and satisfaction.
  • Cost Reduction: By preventing unnecessary hospital visits and optimizing resource usage, IoT technology helps to significantly cut down healthcare costs for providers and patients alike.
  • Data-Driven Insights: The wealth of data generated by IoT devices can be analyzed to uncover patterns and insights, leading to better decision-making and continuous improvement in healthcare delivery.
  • Improved Drug Management: IoT-enabled smart cabinets and inventory systems ensure the accurate tracking and automatic reordering of medications, reducing errors and enhancing patient safety.
  • Health and Wellness Promotion: IoT devices encourage patients to engage with their own health, using fitness trackers and health monitoring applications to promote a proactive approach to wellness.

IoT Vulnerabilities in Healthcare 

While IoT brings forth numerous benefits in healthcare, it also introduces significant vulnerabilities that we must address. One of the primary concerns involves the security of patient data. Connected medical devices often transmit sensitive information across networks, making them potential cyber-attack targets.

Additionally, many healthcare IoT devices do not feature robust security measures. This lack of security can encompass insufficient encryption, default passwords that users rarely change, and outdated software. Such weaknesses not only jeopardize patient data but can also threaten the functionality of critical medical devices.

Moreover, the complexity of interconnected systems can introduce vulnerabilities. The integration of multiple devices from different manufacturers into a single network can lead to inconsistencies in security protocols, creating gaps that attackers might exploit.

Addressing these vulnerabilities requires a multi-faceted approach: enforcing stringent security measures, regular updates and patches, and comprehensive training for healthcare professionals on best practices in IoT security.

IoT in Healthcare: Key Takeaways 

Healthcare providers should seize the opportunities presented by IoT and blockchain to transform patient care and operational processes. The journey toward adopting these technologies begins with a strategic approach to implementation and a commitment to continuous improvement. 


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applications of iot

Five Applications of IoT That Will Convince You Of Its Potential to Change the Way Business Is Done

Envision a world where devices around you interact with each other, exchange data, learn from patterns, and make smart decisions autonomously. You might think this scene belongs to a futuristic sci-fi movie, yet, what you're imagining is today's reality. we live in the Internet of Things (IoT) era, and the applications of IoT are far-reaching. This new technology has a transformative impact across industries adding value to businesses and lives. 

What Is IoT and Why Is It so Popular?

IoT is an advanced integration of computer-based systems, digital, and mechanical machines or objects, people, or animals using unique identifiers (UIDs). They can swiftly transfer data over a network without human intervention, either human-to-human or human-to-computer.

This technology is so impressive that, according to predictions, there will be 75.44 billion IoT devices by 2025. 

But why is it mushrooming in popularity?  

We could go into detail about how the IoT appreciation comes from its ability to enable real-time monitoring, empowering businesses to respond to live updates instantly. This results in efficient operations and improved decision-making. Moreover, the data acquired from IoT can unearth patterns and new insights, leading to innovation and better customer relationships. 

However, the simple answer is: IoT's popularity is due to its transformative power to turn basic devices into intelligent ones. The applications of IoT that we’re about to discuss are just proof of this. 

IoT in Security 

With its ability to connect devices and systems, IoT empowers security frameworks in unforeseen ways. From automated surveillance systems and biometric authentication to intelligent threat detection and response, IoT is recalibrating our understanding of security fundamentals. 

Consider a practical scenario — IoT lets you connect your home security system to your mobile device. Consequently, you receive instant alerts of any suspicious activity, regardless of your location worldwide. Coupled with AI-powered threat prediction systems, this creates an ironclad defensive network that recognizes and combats security threats like never before.

However, it's crucial to acknowledge that increased connectivity may bring potential vulnerability. If not properly supervised, the heightened network exposure could invite misuse, so cybersecurity measures become more critical than ever in an IoT-enabled world. 

IoT in Healthcare

IoT devices, such as wearable medical gadgets, remote patient monitoring systems, and smart hospital equipment, are transforming patient care. These IoT applications can continually monitor vital signs, sugar levels, and other critical health metrics, sharing this data over a secure blockchain network. For example, diabetes patients can manage their condition better using IoT devices, with the data securely stored and analyzed by healthcare providers for timely interventions.

One compelling example is the integration of IoT and blockchain for remote patient monitoring (RPM). Patients can send real-time health data directly to their clinicians using IoT-enabled wearables. Blockchain ensures data remains secure and tamper-proof, addressing significant data privacy and security concerns in the healthcare sector. Additionally, IoT in healthcare aids digital clinical trials, with blockchain securely and transparently recruiting and tracking participants, ensuring the integrity of the collected data.

IoT in Manufacturing 

The manufacturing sector is experiencing a revolution with the integration of IoT. By connecting machines, devices, and systems, IoT enables real-time monitoring, predictive maintenance, and enhanced operational efficiency. 

One notable application is predictive maintenance, where IoT sensors monitor machinery conditions and predict potential failures before they occur. This proactive approach minimizes downtime and extends equipment lifespan, ultimately saving costs. 

Smart factories are also leveraging IoT to create more efficient and flexible production processes. For example, connected devices can communicate seamlessly, allowing for quicker adjustments to production lines and reducing waste. This level of automation and precision leads to higher product quality and consistency. 

Moreover, IoT in manufacturing facilitates better supply chain management. Real-time data tracking ensures transparency and accountability, providing manufacturers with insights into inventory levels, shipment status, and production bottlenecks. This visibility empowers manufacturers to make informed decisions and respond swiftly to market demands. 

Companies like Siemens and General Electric are already implementing IoT solutions to optimize their manufacturing processes, setting a precedent for the industry.

IoT in Retail 

By embedding IoT sensors in retail locations, stores can track customer behavior, manage inventory in real time, and ensure seamless shopping experiences. Retailers can use smart shelves that automatically notify staff when stock is low or utilize smart mirrors that allow customers to virtually try on clothes, transforming the shopping experience. 

An example of this is Amazon Go stores, which use IoT to enable a checkout-free shopping experience. Shoppers simply walk out with their items, and sensors track what they've taken. The technology then charges their Amazon accounts accordingly, enhancing customer convenience and reducing the need for cashiers. 

Moreover, IoT enables personalized marketing by collecting and analyzing data on customer preferences and shopping habits. This data can be used to tailor offers and promotions in real time, improving customer engagement and satisfaction.

IoT in Customer Service 

Imagine a world where customer service is not just reactive but predictive. With the advent of IoT, this is closer to reality than ever. IoT devices can monitor product usage and performance in real time, providing valuable insights into potential issues before they become real problems.  

For instance, smart home devices like thermostats and appliances can send alerts when maintenance is required, significantly improving customer satisfaction. Companies nowadays rely on IoT to improve their customer service, offering preemptive support that keeps their customers happy and loyal. 

This means that businesses can transform customer service from a necessary cost center into a competitive differentiator, setting themselves apart in an increasingly crowded marketplace.

Applications of IoT: Key Takeaways

It’s clear that the applications of IoT extend far beyond what we once imagined possible. From security and healthcare to manufacturing, retail, and customer service, IoT is reshaping industries and enriching our day-to-day experiences. The era of smart, interconnected devices is not just a vision for the future, it’s happening right now. 

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Top Seven Machine Learning Applications in 2024

Robots have not yet taken over the world, despite what the sci-fi pop culture of the late 20th century taught us. While all the claims made have not come true, machine learning is now present in almost all spheres of society. In many different industries, computers and AI systems are becoming proficient in a wide range of tasks — the seven machine learning applications we covered in this article are just the tip of the iceberg. 

Top Seven Applications for Machine Learning

Among many applications, machine learning has proven beneficial in: 

Diagnosing Diseases

Finding and diagnosing diseases that are typically difficult to diagnose is one of the main applications of machine learning in healthcare. Typical examples include genetic diseases and a variety of cancers that are difficult to detect in their early stages.

For instance, the now-defunct IBM Watson Genomics project offered a very good example of how cognitive computing and genome-based tumor sequencing can result in a much quicker diagnosis. Similar to this, Berg, a well-known biopharmaceutical company, has already used machine learning to create treatments for a variety of conditions, including oncology.

The PreDicT program from P1Vital, which stands for Predicting Response to Depression Treatment, is another excellent illustration of machine learning applications in the healthcare industry.

Image Recognition

Image recognition is a common practice. Have you noticed the automatic scene and facial recognition feature in the gallery app on your smartphone? Machine learning was used to accomplish that. The same is true for social media functions like auto-friend tagging. 

Consider Facebook’s DeepFace technology, which makes recommendations for friends to be tagged in images. Modern secret surveillance systems used by some governments around the world rely on machine learning-assisted image recognition as well.

Machine learning-based image recognition has uses in the healthcare industry as well. Missing even a small detail during many treatment procedures could have disastrous effects. Image detection can be used in scans and X-ray images to find even the smallest differences between two points. This method is especially beneficial for precisely tracking the development of a virus infection or the spread of a tumor.

Autonomous Vehicles

Regardless of the circumstance, AI is anticipated to outperform a human driver in autonomous vehicles. Machine learning algorithms are useful in this situation as they enable autonomous vehicles to make decisions instantly.

The onboard computer of self-driving cars like the Tesla Model S or Ford F-150 uses machine learning to process data input from a variety of sensors. This is to guarantee that the ADAS can interpret the environment around the vehicle safely and accurately. This data stream is used by the system to regulate the direction and speed of the vehicle. The data is also processed for other crucial tasks like object detection and tracking, perception, and forecasting.

Detecting Online Fraud

Machine learning is becoming more and more effective at protecting our online transactions and spotting fraud. It works particularly well at spotting fraudulent activity involving the use of phishing, fake accounts, and IDs.

To suggest risk rules, machine learning algorithms are trained on historical data for fraud detection. These rules can be used to prevent users from taking specific actions that have been flagged as suspicious, such as unauthorized logins, potential identity theft, fraudulent transactions, and so forth.

Data scientists typically provide a massive amount of records of previous fraud and forgeries to the machine learning model. To minimize false positives, they also flag non-fraud cases. The rule suggestions are typically more accurate with more data to work with.

Product Recommendations

Prime examples of machine learning applications in business are product recommendations on e-commerce sites and entertainment platforms. The "recommender systems" that produce and distribute these recommendations use machine learning algorithms to divide up the customer base according to user information and behavioral trends. The browsing history, likes, shares, and other user actions are used to gather user information and behavioral patterns.

Intelligent Virtual Assistant (IVA)

IVAs are computer-based systems that use machine learning to comprehend natural language, or human language, and respond appropriately. Each question is presented with a multiple-choice selection of responses by these clever AI assistants. They can decipher user intent from the free text as well.

IVAs, also known as Virtual Customer Assistants, are being used more and more in automated customer support. This enables users to express to the machine even very specific concerns in the same way they would to a human.

IVAs should be understood to be distinct from chatbots. They are much more intelligent and able to comprehend spoken language. In contrast, the majority of chatbots engage users by providing straightforward yes/no response options.

Now that no-code products are more prevalent, you can create IVAs in as little as 15 minutes. 

Trading

The use of machine learning in trading stocks and cryptocurrencies is also expanding. The internal calculations and analyses are performed by sophisticated machine learning algorithms. The data produced aids traders in making wise choices.

More specifically, machine learning is useful for identifying signals in alternative and financial data. The development and backtesting of systematic strategies can then be done using these signals.

What Does the Future Hold for Machine Learning Applications?

Applications of machine learning are becoming prevalent in many facets of our society. Much more than what we talked about above, sentiment analysis, data collection and classification in cosmology, marine life studies, engineering, military intelligence, and even digital art are some additional common applications. 

Every day, as artificial intelligence expands, more technological advancements become possible. Given the importance and relevance of this technology, it makes sense for you to educate yourself about it — and make good use of ML for your businesses. 

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