A nine-step guide to design and build Internet of Things solutions – Consultancy.eu

A growing number of companies are turning to the internet of things (IoT) to enhance the way they operate. Experts from Metyis outline how to get started.

The internet of things is a concept that describes physical objects (or groups of objects) embedded with sensors, processing ability, software, and other technologies that connect and exchange data over the internet.

The concept allows physical objects to communicate with the digital world, creating a network of data insights that can lead to improvements and advancements in multiple fields. The internet of things is today already found widespread in homes, vehicles, medical areas, factories and more – but as the technology matures, the number of use cases is growing by the day.

Building an internet of things network is however easier said than done. Based on the pioneering work Metyis is conducting in the internet of things landscape, experts from the consultancy outline a nine-step journey that guide the successful development and deployment of IoT solutions:

1. Requirements definition
Each IoT network is unique in its specifications, requiring the manufacturing of custom technology, called embedded systems, a combination of computer hardware and software. Key is to make sure that the requirements definition are framed, and that both business and technical capabilities are brought together to address achieve the desired end state with a system solution.

2. Block designs
The first step is to create the whiteboard block designs that form the architecture for the device, depicting the different components and how they will function together.

3. Firmware development and prototype assembly
The team then develops the firmware that will run inside the device, determining its behaviour and communication protocol. Firmware development is an ongoing process; though all boards are prepared to be fully functional, certain functionalities are added at various stages depending on the project needs.

4. Prototype plot
During the prototyping phase the focus is on developing an industrialised product. This prototype demonstrates the possibilities of connecting sensors to the internet.

5. Schematic designs
The schematic designs provide a more detailed view of all the components in the system, and how they are connected. It also includes the data flow and definition of which signals have been assigned. A schematic can also contain a list of revisions indicating alterations to the original design.

6. Printed circuit board design phase
Advancing into the printed circuit board design phase, schematic designs are translated into physical connections by taking pre-existing chips and transforming them into electronic boards, installing and distributing the components on the board, and defining their sizes. Samples are then made with industrialisation in mind.

7. Printed circuit board production
In this phase the production of the printed circuit board begins. The printed circuit board is the bed that will receive all the components; these are compiled and customised, readying it to undergo an industrialised pilot.

8. Functional tests
The system then goes through rigorous testing, debugging and validation phases to ensure the efficiency of the device and its safety. Trust is of the utmost significance for any IoT solution, which can be vulnerable to information attacks.

9. Industrialised pilot
The pilot validates whether what is produced is capable of industrialisation, if the IoT network will work in the desired environment, and if the device can be mass-produced. 

The Global Internet of Things (IoT) market is expected to – GlobeNewswire

Westford, USA, May 19, 2022 (GLOBE NEWSWIRE) — The epidemic has compelled governments, corporations, and individuals to rethink their goals, perspectives on socioeconomic issues, and methods of operation. While the globe battled the new coronavirus epidemic in 2020, healthcare experts worked tirelessly. The goal was to provide adequate services to protect residents from being sick and to heal those who had become ill. In such a case, technological advancements have consistently resulted in disparities between healthcare systems. Countries were amassing resources and creating cutting-edge methods to mitigate the impact of COVID-19 and monitor populations at risk. During the crisis, the Internet of Things (IoT) market and other modern technologies such as cloud computing and artificial intelligence (AI) proved extremely useful.

One of the most critical parts of internet technology is data management. Internet-connected gadgets generate massive amounts of data and information that must be processed. The internet of things standard security gateway, on the other hand, poses a slew of security and privacy concerns. The blockchain-based architecture enables basic and decentralised security solutions for connected devices.

Various nations in Asia Pacific, the Middle East and Africa, and Latin America face a lack of essential technologies, such as telecom and networking infrastructure, and are unable to quickly execute smart projects owing to a variety of problems, including a low budget and a low literacy rate. Several nations have yet to mature or even launch 4G technology, whilst others such as China have conducted testing on 5G technology. Though governments and businesses in such nations are aware of the benefits of Internet of Things (IoT) technology and the industry’s high ROI, the initial budget limitation plays a significant role in slowing the development of the Internet of Things (IoT) market share.

Get sample copy of this report: https://skyquestt.com/sample-request/internet-of-things-market

Read market research report, ” Global Internet of Things (IoT) market analysis is segmented By Software Solution (Data Management, Security Solution, Network Bandwidth Management, Remote Monitoring System, and Real-Time Streaming Analytics), By Platform (Network Management, Application Management, and Device Management), By Service (Consulting service, Support and maintenance, Deployment and integration, Managed service, and Professional service), By Application (Smart Manufacturing, Smart Energy & Utilities, Smart Mobility & Transportation, Building & Home Automation, Smart retail, Connected Logistics, and Others) & By Region – Forecast and Analysis 2021-2027” by SkyQuest

With rising population and urbanisation, several nations across the world are launching smart city initiatives and using smart city technologies to better manage resources. Connected devices, such as sensors, smart lighting, and smart metres, among others, aid in the enhancement of the functionality and efficiency of infrastructure and related services.

IoT software solutions provide business applications that improve operational efficiencies, enhance the customer experience, and provide new income streams. Internet-connected Internet of Things (IoT) devices easily share data with other devices/applications/things to offer trustworthy data decisions to the end-user. Software solutions provide a wide range of technologies that assist firms in meeting their goals and maintaining a critical competitive advantage. Software solutions are gaining popularity for existing infrastructure systems to automate a variety of operations in critical infrastructure, manufacturing, and other industries.

The Americas account for the vast bulk of the device-enablement value pool. Because of the centrality of device enablement to the Internet of Things (IoT) market share and its worldwide Internet of Things (IoT) market revenue growth, both technology and business prospects will be nearly geographically agnostic and increase at similar rates. And, while enterprise clients will continue to dominate, device-enablement solutions will see rapid adoption among small and mid-sized businesses. The expanding market for IoT technology shows some of the ways in which maturing technologies have begun to deliver on the IoT’s promises. PE funds should analyse potential to exploit IoT in their portfolio firms and seek for developing investment opportunities in the IoT industry as well as in sectors that can profit significantly from these technologies.

Asia Pacific is home to a number of rising and developed economies, including Australia, India, China, Japan, and Singapore. Because of the rapid adoption of new technology, this area has become a valuable market for the IT sector. As a result, the Asia Pacific Internet of Things (IoT) market is predicted to develop at the fastest rate. While Japan has announced the completion of the majority of its “smart city” projects, the rest of the area is still in the planning stages. China is the region’s largest market for developing IoT application in smart cities. As of January 2019, more than 5,000 smart cities initiatives in India were under various phases of development, with investments totalling more than INR 2 trillion.

Browse summary of the report and Complete Table of Contents (ToC): https://skyquestt.com/report/internet-of-things-market

Furthermore, the region’s governments are taking strong steps to improve their IT infrastructures, allowing business users to embrace cutting-edge technology. Some countries are more technologically advanced than others, yet some are still hesitant to accept new technology. The lack of knowledge and competence among end-users, as well as a lack of resources and infrastructure in emerging nations, are likely to limit the growth of the Asia Pacific IoT market share analysis. Some extensive government programmes in the region attempt to improve service efficiency. The area is home to the bulk of developing members who are undergoing fast urbanisation as the world’s most dynamic region for urbanisation. While this trend creates great commercial potential, it also poses significant hurdles to long-term growth.

The report published by SkyQuest Technology Consulting provides in-depth qualitative insights, historical data, and verifiable projections about market size. The projections featured in the report have been derived using proven research methodologies and assumptions.

SkyQuest has segmented the Global Internet of Things (IOT) Market based on Software Solution, Platform, Service, Application, and Region:

  • Internet of Things (IoT) market by Software Solution (Revenue, USD Million, 2021 – 2027)
  • Data Management
  • Security Solution
  • Network Bandwidth Management
  • Remote Monitoring System
  • Real-Time Streaming Analytics
  • Internet of Things (IoT) market by Platform (Revenue, USD Million, 2021 – 2027)
  • Network Management
  • Application Management
  • Device Management
  • Internet of Things (IoT) market by Service (Revenue, USD Million, 2021 – 2027)
  • Consulting service
  • Support and maintenance
  • Deployment and integration
  • Managed service
  • Professional service
  • Internet of Things (IoT) market by Application (Revenue, USD Million, 2021 – 2027)
  • Smart Manufacturing
  • Smart Energy & Utilities
  • Smart Mobility & Transportation
  • Building & Home Automation
  • Smart retail
  • Connected Logistics
  • Others

List of internets of things (IOT) Key Players/Suppliers

  • Amazon Web Services, Inc. (U.S.)
  • Intel Corporation (U.S.)
  • Microsoft Corporation (U.S.)
  • PTC Inc. (U.S.)
  • Robert Bosch GmbH (Germany)
  • Cisco Systems, Inc. (U.S.)
  • IBM Corporation (U.S.)
  • Oracle Corporation (U.S.)
  • SAP SE (Germany)
  • Siemens AG (Germany)

Speak to Analyst for your custom requirements: https://skyquestt.com/speak-with-analyst/internet-of-things-market

Related Reports in SkyQuest’s Library:

Global Gaming Console Market is segmented By Type (Home Consoles and Handheld Console (Portable and Non-Portable)), By End-use (Residential and Commercial), By Application (Gaming and Non-Gaming), & By Region- Forecast and Analysis 2021-2027

Global Crypto ATM Market By Offering (Hardware and Software), By Type (One Way and Two Way), By Coin (Bitcoin (BTC), Litecoin, Ethereum (ETH), Dogecoin, Bitcoin Cash, Dash, Tether (USDT), and Others) & By Region- Forecast and Analysis 2020-2027.

Global Fraud Detection and Prevention Market is segmented By Component (Solutions and Services), By Application Area (Insurance Claims, Money Laundering, Electronic Payment, and others), By Deployment (Cloud and On-Premise), By Enterprise Size (Large Enterprises and Small & Medium Enterprises (SMEs)), By Industry (BFSI, IT and Telecom, Retail and Consumer Packaged Goods, Government, Construction and Real Estate, Energy and Utilities, Travel and Transportation, Manufacturing, Healthcare and Life Sciences, Media and Entertainment and Other), & By Region- Forecast and Analysis 2020-2027.

Green Technology and Sustainability Market segmented By Technology (Internet of Things (IoT), Cloud Computing, Artificial Intelligence & Analytics, Digital Twin, Cybersecurity, and Blockchain), By Application (Green Building, Carbon Footprint Management, Weather Monitoring & Forecasting, Air & Water Pollution Monitoring, Forest Monitoring, Crop Monitoring, Soil Condition/Moisture Monitoring, Water Purification, and Others) & By Region- Forecast and Analysis 2020-2027

Global Airport Robots Market segmented By End User (Airport Security, Boarding Pass Scanning, Airport Baggage System, Passenger Guidance, and Others), By Application (Landside and Terminal), By Type (Humanoid and Non-humanoid) & By Region- Forecast and Analysis 2021-2027

About Us:

SkyQuest Technology is leading growth consulting firm providing market intelligence, commercialization and technology services. It has 450+ happy clients globally.

Address:

1 Apache Way, Westford, Massachusetts 01886

Phone:

USA (+1) 617-230-0741

Email: [email protected]

LinkedIn Facebook Twitter

What is the Internet of Things (IoT)? – Telefónica

Over the past few years, IoT has become a major focus of the connectivity technology industry. But what exactly is IoT? This acronym refers to the ‘Internet of Things’ and encompasses all objects and devices that are able to connect and exchange data with other devices via a mobile network.

This is what is known as interaction: is dispensed with and the machines communicate directly with each other.

IoT is a technology that has recently flourished thanks to the roll-out of the 5G network, which makes it possible for connectivity to reach the vast majority of current electronic devices: from industrial machinery to cars, buildings or home tools such as household appliances, virtual assistants or smartphones.

What is IoT used for?

The best way to realise what IoT is, is to see what it is used for. Direct communication between devices has an infinite number of uses, as it can streamline, improve and automate all sorts of processes in all kinds of areas: industrial processes, autonomous mobility, management of public spaces or digitisation in sectors such as the agri-food industry. This requires the support of a high-powered infrastructure, such as 5G. Such mobile networks are capable of providing higher bandwidth, higher speed and lower latency, allowing for a more secure and, above all, more stable connection for thousands of smart devices at once.

The transition to digitalisation and the development of connectivity has enabled the implementation of IoT as a primary means of working. Some of its main uses on the rise in recent years include the following:

  • Industry 4.0: The fourth industrial revolution is characterised precisely by the shift from the traditional production model to the digital transformation a situation that has driven the use of IoT in industry. By enabling machines to communicate directly with one another, it guarantees greater precision in production, as well as other advantages such as reduced times and lower costs. Precisely for this reason, the collaboration of technology companies such as Microsoft, Google or Geprom are necessary to drive the digital transformation of industry and enable both its automation and the control of its processes.
  • Digital health: refers to the connectivity that applies to healthcare services, tools and interventions. The implementation of IoT has been one of the biggest advances in healthcare in the last decade. Remote assistance, remote patient monitoring, precision operations performed by machinery, monitoring the correct functioning of implants such as pacemakers… Telemedicine offers a wide range of improvements to ensure the well-being of patients, facilitates the work of healthcare professionals, but requires a reliable network to maintain in operation.
  • Connected mobility: improving how the population travels is another major sector currently working to increase the use of IoT in its production environment. Connected mobility is a proposal for safer, more efficient and sustainable driving through the interconnection of the vehicles themselves and other components involved in driving, such as traffic lights or traffic signals.
  • Smart city: smart cities are those cities that are integrating IoT into their structure in order to efficiently and sustainably manage their development and resources. Smart buildings that control temperature, managed energy use in adjusting the street lights, increased road safety through better road monitoring… High demands that depend on a high-capacity mobile network such as 5G to keep up with the pace of the city.

IoT, AI and Big Data. The three technological musketeers.

The Internet of Things, AI and Big Data are involved in multiple activities, working symbiotically. On the one hand, IoT makes it possible to collect a large amount of information immediately and from a wide variety of sources, a contribution that offers a new dimension to Big Data. On the other, the development of AI allows not only for greater accuracy in collecting this information through the IoT, which in turn will have a direct impact on Big Data, but also an improvement in mass data analysis. All of this benefits businesses and individuals by enabling real-time decision making.

In other words, the existence of a direct connection between machines is one of the main avenues of research currently under development. Regarding the question, what is the Internet of Things (IoT)? It is a promise of change that seeks to improve the comfort and well-being of the general public and organisations. A vision of the future, as in Spain, there already is a powerful 5G infrastructure, which guarantees not only its developments today, but also those of the future.

White House’s Internet of Things Security Initiative Gets an Official Meeting Date – Nextgov

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A nine-step guide to design and build Internet of Things solutions – Consultancy.eu

A growing number of companies are turning to the internet of things (IoT) to enhance the way they operate. Experts from Metyis outline how to get started.

The internet of things is a concept that describes physical objects (or groups of objects) embedded with sensors, processing ability, software, and other technologies that connect and exchange data over the internet.

The concept allows physical objects to communicate with the digital world, creating a network of data insights that can lead to improvements and advancements in multiple fields. The internet of things is today already found widespread in homes, vehicles, medical areas, factories and more – but as the technology matures, the number of use cases is growing by the day.

Building an internet of things network is however easier said than done. Based on the pioneering work Metyis is conducting in the internet of things landscape, experts from the consultancy outline a nine-step journey that guide the successful development and deployment of IoT solutions:

1. Requirements definition
Each IoT network is unique in its specifications, requiring the manufacturing of custom technology, called embedded systems, a combination of computer hardware and software. Key is to make sure that the requirements definition are framed, and that both business and technical capabilities are brought together to address achieve the desired end state with a system solution.

2. Block designs
The first step is to create the whiteboard block designs that form the architecture for the device, depicting the different components and how they will function together.

3. Firmware development and prototype assembly
The team then develops the firmware that will run inside the device, determining its behaviour and communication protocol. Firmware development is an ongoing process; though all boards are prepared to be fully functional, certain functionalities are added at various stages depending on the project needs.

4. Prototype plot
During the prototyping phase the focus is on developing an industrialised product. This prototype demonstrates the possibilities of connecting sensors to the internet.

5. Schematic designs
The schematic designs provide a more detailed view of all the components in the system, and how they are connected. It also includes the data flow and definition of which signals have been assigned. A schematic can also contain a list of revisions indicating alterations to the original design.

6. Printed circuit board design phase
Advancing into the printed circuit board design phase, schematic designs are translated into physical connections by taking pre-existing chips and transforming them into electronic boards, installing and distributing the components on the board, and defining their sizes. Samples are then made with industrialisation in mind.

7. Printed circuit board production
In this phase the production of the printed circuit board begins. The printed circuit board is the bed that will receive all the components; these are compiled and customised, readying it to undergo an industrialised pilot.

8. Functional tests
The system then goes through rigorous testing, debugging and validation phases to ensure the efficiency of the device and its safety. Trust is of the utmost significance for any IoT solution, which can be vulnerable to information attacks.

9. Industrialised pilot
The pilot validates whether what is produced is capable of industrialisation, if the IoT network will work in the desired environment, and if the device can be mass-produced. 

The Global Internet of Things (IoT) market is expected to – GlobeNewswire

Westford, USA, May 19, 2022 (GLOBE NEWSWIRE) — The epidemic has compelled governments, corporations, and individuals to rethink their goals, perspectives on socioeconomic issues, and methods of operation. While the globe battled the new coronavirus epidemic in 2020, healthcare experts worked tirelessly. The goal was to provide adequate services to protect residents from being sick and to heal those who had become ill. In such a case, technological advancements have consistently resulted in disparities between healthcare systems. Countries were amassing resources and creating cutting-edge methods to mitigate the impact of COVID-19 and monitor populations at risk. During the crisis, the Internet of Things (IoT) market and other modern technologies such as cloud computing and artificial intelligence (AI) proved extremely useful.

One of the most critical parts of internet technology is data management. Internet-connected gadgets generate massive amounts of data and information that must be processed. The internet of things standard security gateway, on the other hand, poses a slew of security and privacy concerns. The blockchain-based architecture enables basic and decentralised security solutions for connected devices.

Various nations in Asia Pacific, the Middle East and Africa, and Latin America face a lack of essential technologies, such as telecom and networking infrastructure, and are unable to quickly execute smart projects owing to a variety of problems, including a low budget and a low literacy rate. Several nations have yet to mature or even launch 4G technology, whilst others such as China have conducted testing on 5G technology. Though governments and businesses in such nations are aware of the benefits of Internet of Things (IoT) technology and the industry’s high ROI, the initial budget limitation plays a significant role in slowing the development of the Internet of Things (IoT) market share.

Get sample copy of this report: https://skyquestt.com/sample-request/internet-of-things-market

Read market research report, ” Global Internet of Things (IoT) market analysis is segmented By Software Solution (Data Management, Security Solution, Network Bandwidth Management, Remote Monitoring System, and Real-Time Streaming Analytics), By Platform (Network Management, Application Management, and Device Management), By Service (Consulting service, Support and maintenance, Deployment and integration, Managed service, and Professional service), By Application (Smart Manufacturing, Smart Energy & Utilities, Smart Mobility & Transportation, Building & Home Automation, Smart retail, Connected Logistics, and Others) & By Region – Forecast and Analysis 2021-2027” by SkyQuest

With rising population and urbanisation, several nations across the world are launching smart city initiatives and using smart city technologies to better manage resources. Connected devices, such as sensors, smart lighting, and smart metres, among others, aid in the enhancement of the functionality and efficiency of infrastructure and related services.

IoT software solutions provide business applications that improve operational efficiencies, enhance the customer experience, and provide new income streams. Internet-connected Internet of Things (IoT) devices easily share data with other devices/applications/things to offer trustworthy data decisions to the end-user. Software solutions provide a wide range of technologies that assist firms in meeting their goals and maintaining a critical competitive advantage. Software solutions are gaining popularity for existing infrastructure systems to automate a variety of operations in critical infrastructure, manufacturing, and other industries.

The Americas account for the vast bulk of the device-enablement value pool. Because of the centrality of device enablement to the Internet of Things (IoT) market share and its worldwide Internet of Things (IoT) market revenue growth, both technology and business prospects will be nearly geographically agnostic and increase at similar rates. And, while enterprise clients will continue to dominate, device-enablement solutions will see rapid adoption among small and mid-sized businesses. The expanding market for IoT technology shows some of the ways in which maturing technologies have begun to deliver on the IoT’s promises. PE funds should analyse potential to exploit IoT in their portfolio firms and seek for developing investment opportunities in the IoT industry as well as in sectors that can profit significantly from these technologies.

Asia Pacific is home to a number of rising and developed economies, including Australia, India, China, Japan, and Singapore. Because of the rapid adoption of new technology, this area has become a valuable market for the IT sector. As a result, the Asia Pacific Internet of Things (IoT) market is predicted to develop at the fastest rate. While Japan has announced the completion of the majority of its “smart city” projects, the rest of the area is still in the planning stages. China is the region’s largest market for developing IoT application in smart cities. As of January 2019, more than 5,000 smart cities initiatives in India were under various phases of development, with investments totalling more than INR 2 trillion.

Browse summary of the report and Complete Table of Contents (ToC): https://skyquestt.com/report/internet-of-things-market

Furthermore, the region’s governments are taking strong steps to improve their IT infrastructures, allowing business users to embrace cutting-edge technology. Some countries are more technologically advanced than others, yet some are still hesitant to accept new technology. The lack of knowledge and competence among end-users, as well as a lack of resources and infrastructure in emerging nations, are likely to limit the growth of the Asia Pacific IoT market share analysis. Some extensive government programmes in the region attempt to improve service efficiency. The area is home to the bulk of developing members who are undergoing fast urbanisation as the world’s most dynamic region for urbanisation. While this trend creates great commercial potential, it also poses significant hurdles to long-term growth.

The report published by SkyQuest Technology Consulting provides in-depth qualitative insights, historical data, and verifiable projections about market size. The projections featured in the report have been derived using proven research methodologies and assumptions.

SkyQuest has segmented the Global Internet of Things (IOT) Market based on Software Solution, Platform, Service, Application, and Region:

  • Internet of Things (IoT) market by Software Solution (Revenue, USD Million, 2021 – 2027)
  • Data Management
  • Security Solution
  • Network Bandwidth Management
  • Remote Monitoring System
  • Real-Time Streaming Analytics
  • Internet of Things (IoT) market by Platform (Revenue, USD Million, 2021 – 2027)
  • Network Management
  • Application Management
  • Device Management
  • Internet of Things (IoT) market by Service (Revenue, USD Million, 2021 – 2027)
  • Consulting service
  • Support and maintenance
  • Deployment and integration
  • Managed service
  • Professional service
  • Internet of Things (IoT) market by Application (Revenue, USD Million, 2021 – 2027)
  • Smart Manufacturing
  • Smart Energy & Utilities
  • Smart Mobility & Transportation
  • Building & Home Automation
  • Smart retail
  • Connected Logistics
  • Others

List of internets of things (IOT) Key Players/Suppliers

  • Amazon Web Services, Inc. (U.S.)
  • Intel Corporation (U.S.)
  • Microsoft Corporation (U.S.)
  • PTC Inc. (U.S.)
  • Robert Bosch GmbH (Germany)
  • Cisco Systems, Inc. (U.S.)
  • IBM Corporation (U.S.)
  • Oracle Corporation (U.S.)
  • SAP SE (Germany)
  • Siemens AG (Germany)

Speak to Analyst for your custom requirements: https://skyquestt.com/speak-with-analyst/internet-of-things-market

Related Reports in SkyQuest’s Library:

Global Gaming Console Market is segmented By Type (Home Consoles and Handheld Console (Portable and Non-Portable)), By End-use (Residential and Commercial), By Application (Gaming and Non-Gaming), & By Region- Forecast and Analysis 2021-2027

Global Crypto ATM Market By Offering (Hardware and Software), By Type (One Way and Two Way), By Coin (Bitcoin (BTC), Litecoin, Ethereum (ETH), Dogecoin, Bitcoin Cash, Dash, Tether (USDT), and Others) & By Region- Forecast and Analysis 2020-2027.

Global Fraud Detection and Prevention Market is segmented By Component (Solutions and Services), By Application Area (Insurance Claims, Money Laundering, Electronic Payment, and others), By Deployment (Cloud and On-Premise), By Enterprise Size (Large Enterprises and Small & Medium Enterprises (SMEs)), By Industry (BFSI, IT and Telecom, Retail and Consumer Packaged Goods, Government, Construction and Real Estate, Energy and Utilities, Travel and Transportation, Manufacturing, Healthcare and Life Sciences, Media and Entertainment and Other), & By Region- Forecast and Analysis 2020-2027.

Green Technology and Sustainability Market segmented By Technology (Internet of Things (IoT), Cloud Computing, Artificial Intelligence & Analytics, Digital Twin, Cybersecurity, and Blockchain), By Application (Green Building, Carbon Footprint Management, Weather Monitoring & Forecasting, Air & Water Pollution Monitoring, Forest Monitoring, Crop Monitoring, Soil Condition/Moisture Monitoring, Water Purification, and Others) & By Region- Forecast and Analysis 2020-2027

Global Airport Robots Market segmented By End User (Airport Security, Boarding Pass Scanning, Airport Baggage System, Passenger Guidance, and Others), By Application (Landside and Terminal), By Type (Humanoid and Non-humanoid) & By Region- Forecast and Analysis 2021-2027

About Us:

SkyQuest Technology is leading growth consulting firm providing market intelligence, commercialization and technology services. It has 450+ happy clients globally.

Address:

1 Apache Way, Westford, Massachusetts 01886

Phone:

USA (+1) 617-230-0741

Email: [email protected]

LinkedIn Facebook Twitter

How the Internet of Things Can Increase Productivity – Entrepreneur

Opinions expressed by Entrepreneur contributors are their own.

Production downtime and factory productivity are closely correlated, as a factory can lose up to 20% of its productivity due to downtime.

The most common cause of production downtime is a malfunction or breakdown of equipment. However, it is possible to reduce equipment failure and keep downtime low with a predictive maintenance strategy that uses the Internet of Things (IoT), cloud computing and analytics.

The collection of equipment and environmental data occurs through sensors. The data is used to predict and remediate equipment failures proactively. Over time, machine learning advancements can improve the accuracy of predictive algorithms and allow you to build advanced prediction models.

Related: How Cloud Agnostic Hardware Could be The Future of IoT

Why minimize downtime?

A study reveals that 46% of manufacturers fail to deliver services to customers due to an unexpected equipment failure. Unplanned downtime also leads to a loss of production time on a critical asset and hinders manufacturers’ ability to service or support specific assets or equipment.

Unplanned downtime affects all industries, and its impacts extend beyond the financial for some. According to an article in Petro Online, a single, unplanned downtime in an oil refinery or petrochemical plant releases a year’s worth of emissions into the atmosphere.

Why is predictive maintenance using IoT?

It is worth understanding what Internet of Things monitoring entails to grasp its implications for downtime. An IoT monitoring system consists of four elements:

1. Sensors

The first step in IoT monitoring is collecting data from the physical environment, which requires sensors. Sensors have specialty electronics that sense inputs from the physical environment and convert them to data for interpretation by machines or humans. The inputs include heat, light, moisture, sound, pressure or electromagnetic fields.

2. Connectivity

Sensors collect the data and send it over the cloud for analysis. Several methods are available to relay the data, including WiFi, satellite, cellular, Bluetooth or a direct connection to the internet via Ethernet. The type of connectivity used depends on factors such as power consumption, range, bandwidth, and security.

3. Data processing

When the data reaches the cloud, it is processed by software. There are many software solutions available for different IoT use cases. The solutions analyze the data and present it to end users in an easily understandable format. For example, you can set up sensors to display equipment vibration and temperature data every three seconds. Or you can run sophisticated analysis on a massive amount of IoT data and trigger appropriate action.

4. User interface

The end user can receive the data through a web, email, or text notification. For example, your factory manager may receive a text/web/email alert when the temperature sensor reading exceeds a certain threshold. The manager can then remotely adjust the temperature from their web or mobile app or trigger another remedial action that brings the temperature to a safe level.

Related: 4 Reasons to Be Excited by the ‘Internet of Things’

What is the role of IoT in reducing production downtime?

IoT can be the key to minimizing downtime and keeping productivity levels high. Here’s a discussion of the reasons for implementing an IoT-based predictive maintenance strategy.

1. You can monitor equipment in real-time

Real-time monitoring of asset condition and performance allows you to anticipate problems before they occur. Any maintenance required can happen moments after an alert, helping prevent a costly breakdown or any impact on plant performance. Timely maintenance is also helpful in maximizing the useful life of equipment — you can avoid having to replace equipment too soon and get the full return on your investment.

2. You can optimize the time taken to repair equipment

Predictive maintenance runs in the background, keeping you informed about machine condition and performance. You’re alerted to deviations from optimal conditions, which tell you whether or how your equipment is aging or degrading. Using the information, you can accurately predict when the system is likely to fail and determine when to repair it.

As anomalies are relayed soon after they’re detected, any issue with a machine is unlikely to go unnoticed and worsen. If deemed necessary, fixes in the early stage of equipment degradation won’t take the hours usually associated with unplanned and planned maintenance.

3. You can spend less on repairs and parts

Predictive maintenance is data-driven and analytical, allowing you to get to the root cause of a problem rather than only treating its symptoms. Knowing what might lead to equipment breakdown is useful to prevent the wear and tear responsible for equipment failure. For example, alerts on suboptimal humidity help reduce the electrostatic discharge produced in a low humidity environment. Component degradation can be avoided, and equipment repair costs and spare parts inventory can be optimized to the desired level.

4. You can keep workers safe

Putting sensors in charge of detecting equipment issues bodes well for worker safety. For example, checking for bearing failure, a common cause of downtime, may require workers to access difficult or dangerous bearings to reach. With predictive maintenance, workers can check the bearings’ condition without touching them. Smart sensors can gather information on the pressure and temperature of liquids flowing through pipes without requiring direct human intervention.

When to use IoT

  • Cut down on unplanned downtime
  • Reduce machine repair costs
  • Enhance worker safety
  • Shorten time to repair machines
  • Enable better utilization of equipment
  • Increase ROI of equipment

It is useful for critical assets that have the greatest impact on production rate and profitability. IoT monitoring is also valuable when minute changes in environmental conditions can significantly affect product quality or worker safety. For example, sensors detect an operator’s presence in a dangerous environment or faults in rotating machinery.

Data from IoT devices can be integrated with workforce solutions to develop work schedules that can reduce workers’ exposure to hazardous conditions. As a passive safety solution, IoT can help enhance worker confidence and morale.

Related: The ‘Internet of Things’ Is Changing the Way We Look at the Global Product Value Chain

Role of Internet of Things in Manufacturing Sector – ReadWrite

The development of many industries, notably the manufacturing industry, is significantly influenced by technological improvement, especially the internet of things which has led to significant advancements in the manufacturing industries.

Technological revolutions have been frequent in the manufacturing industry, with the development of equipment to lessen the workload of humans and eliminate the need for manual labor while boosting efficiency.

Artificial intelligence (AI), the Internet of Things (IoT), and big data analytics are all technological innovations in the industrial sector. The IoT has been very beneficial, especially for industries that need rapid development and high-quality products.

This piece will examine the Internet of Things applications in the industrial sector. Let’s begin with defining IoT to have a better understanding.

What is Inter of Things in the manufacturing sector?

The Internet of Things is a network that connects gadgets such as computers and electrical software devices with sensors and other technologies built to exchange data online.

In line with the expanding digitization of numerous operations across many industries, the IoT is swiftly increasing its significance in manufacturing. Therefore, implementing IoT might increase productivity to new heights, supporting industrial sectors in achieving their financial goals and preserving their competitiveness in the market.

IoT applications in the industrial sector?

IoT is being used by manufacturing facilities in a variety of methods and departments to streamline the production process. Technology aids in managing warehouses, tracking development cycles, and keeping an eye on stocks.

Let’s examine a few areas in the industrial sector where IoT is being utilized to boost production and efficiency.

GPS is used by IoT devices to track a variety of goods and their delivery effectively. Sensors are attached to products using IoT technology, allowing businesses to accurately predict delivery times and eliminate delivery-related issues.

Additionally, the IoT adds Enterprise Resource Programs (ERP) to do away with the requirement for manual operation documentation. Cross-channel visibility in the management departments is made possible by ERP, which aids stakeholders in assessing production activities.

The status of the machinery, settings, and performance, which collectively have a direct influence on the quality of goods, may all be tracked by a unique sensor that manufacturers can integrate into IoT networks.

IoT networks disclose any faults in real-time, enabling operators to take the appropriate action to stop quality from declining, which might influence the sector’s profitability due to manufacturing defective products.

Manufacturing industries may access, identify, and regulate the manufacturing execution process with the aid of IoT, enabling the sector to keep track of the production process from the beginning to the finished product.

IoT also helps to discover potentially tricky circumstances, machine problems, and improper staff behavior that might damage. AI, cutting-edge sensors, and cameras found in IoT systems enable all of these.

A product’s digital twin is created due to the Internet of Things. The management can utilize it to collect data on a product’s digital twin to evaluate its efficacy, efficiency, and accuracy.

Additionally, Digital Twins improve processes like asset management and failure management, helping the sector predict baseline completion and effectively finish the production before deadlines.

Inventory tracking may be streamlined and automated with IoT technologies. Operators may remotely track each inventory item’s status, position, and movement, which helps to shorten the time between placing an order for inventory and having it delivered.

What are the benefits of IoT in manufacturing industries?

The industrial sector is seeing an increase in the adoption of IoT technologies since they enhance corporate operations on many levels. Here are a few advantages of IoT for the industrial sector.

  • Product quality improvement.

Sensors enable IoT-powered devices to monitor changes in machine setups and settings. In the event of an error, sensors warn operators, who may quickly address the problems to prevent a drop in product quality.

IoT sensors make it possible to continually monitor the condition of machinery and alert employees when a repair is due. It helps the operators to avoid spending money when it is unnecessary and to detect urgent maintenance quickly.

  • Enhance workplace safety.

IoT technologies assist in tracking worker behaviors that may cause accidents. With sensors and cameras for surveillance, it can also keep an eye on various external conditions and alert users to situations that may result in significant incidents like a gas leak.

  • Minimizing the cost of production.

IoT technologies promise to reduce machines’ operating costs and downtime while maximizing asset and inventory management. These help the business concentrate on selling the items rather than just being concerned with doing these activities.

Managers may base their choices on more accurate information and take action to increase productivity as IoT sensors collect all essential data linked to the operation of your equipment.

Other benefits of IoT are:

  • Improved control over the world’s supply chain.
  • Client satisfaction
  • help in Saving time.
  • Command over articular systems.
  • Make it possible for makers and machines to communicate.

What are some challenges with adopting IoT solutions in the manufacturing industry?

Despite all the advantages the Internet of Things may bring to the enterprise, several sectors choose to put off using new technologies. The reasons why they do so are as follows.

  • Maintaining connectivity.

IoT technology is increasingly being used in the manufacturing industry as it comprises several intelligent devices and sensors that must be utilized continuously for data to be obtained and essential processes to be performed.

A strong Wi-Fi connection is required to keep the production and distribution floors operating efficiently. However, one of the primary problems with these systems is ensuring connection quality isn’t affected by network congestion brought on by so many gadgets.

  • It requires education and training.

With all the moving components in the IoT, it may be tricky for industrial companies to accept new technology without enough training. Therefore, proper training and know-how are crucial for any business implementing IoT technology. If any online training and certification  (examtesting  dot com) programs are being given for the usage of IoT, industrial companies can use them.

  • Maintaining the health of networks through monitoring.

With IoT, keeping an eye on the network to ensure it is functioning well may be a persistent problem since manufacturers want regular insight into the network’s availability, reliability, and performance. In addition, any systemic influence can affect the entire sector, necessitating constant attentive supervision.

  • Collecting best practices and using data analytics.

Best practices for data collection and analytics must advance with the technology. For insights to be delivered, devices must cooperate and interact with one another. Team members may often examine these insights via a cloud-based dashboard.

The entire process depends on company-wide activities, which may be highly expensive, including data cleaning and storage, integrating new technology and information streams, and more.

The IoT has created new security issues, such as the possibility of cyberattacks increasing as IoT technologies are integrated into business operations. As a result, industrial organizations need to make sure that they implement upgrades to remedy flaws.

Conclusion

Manufacturers can solve various industrial issues through the Internet of Things. For example, predictive maintenance decreases machine downtime inside industrial facilities, provides asset management that boosts machine efficiency, and helps with inventory control.

We may thus conclude that IoT is the future of manufacturing since, despite the difficulties, it benefits both producers and consumers.

Inner Image Credit: Provided by the Author; Thank you!

Featured Image Credit: Kateryna Babaieva; Pexels; Thank you!

The Global Internet of Things (IoT) market is expected to – GlobeNewswire

Westford, USA, May 19, 2022 (GLOBE NEWSWIRE) — The epidemic has compelled governments, corporations, and individuals to rethink their goals, perspectives on socioeconomic issues, and methods of operation. While the globe battled the new coronavirus epidemic in 2020, healthcare experts worked tirelessly. The goal was to provide adequate services to protect residents from being sick and to heal those who had become ill. In such a case, technological advancements have consistently resulted in disparities between healthcare systems. Countries were amassing resources and creating cutting-edge methods to mitigate the impact of COVID-19 and monitor populations at risk. During the crisis, the Internet of Things (IoT) market and other modern technologies such as cloud computing and artificial intelligence (AI) proved extremely useful.

One of the most critical parts of internet technology is data management. Internet-connected gadgets generate massive amounts of data and information that must be processed. The internet of things standard security gateway, on the other hand, poses a slew of security and privacy concerns. The blockchain-based architecture enables basic and decentralised security solutions for connected devices.

Various nations in Asia Pacific, the Middle East and Africa, and Latin America face a lack of essential technologies, such as telecom and networking infrastructure, and are unable to quickly execute smart projects owing to a variety of problems, including a low budget and a low literacy rate. Several nations have yet to mature or even launch 4G technology, whilst others such as China have conducted testing on 5G technology. Though governments and businesses in such nations are aware of the benefits of Internet of Things (IoT) technology and the industry’s high ROI, the initial budget limitation plays a significant role in slowing the development of the Internet of Things (IoT) market share.

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Read market research report, ” Global Internet of Things (IoT) market analysis is segmented By Software Solution (Data Management, Security Solution, Network Bandwidth Management, Remote Monitoring System, and Real-Time Streaming Analytics), By Platform (Network Management, Application Management, and Device Management), By Service (Consulting service, Support and maintenance, Deployment and integration, Managed service, and Professional service), By Application (Smart Manufacturing, Smart Energy & Utilities, Smart Mobility & Transportation, Building & Home Automation, Smart retail, Connected Logistics, and Others) & By Region – Forecast and Analysis 2021-2027” by SkyQuest

With rising population and urbanisation, several nations across the world are launching smart city initiatives and using smart city technologies to better manage resources. Connected devices, such as sensors, smart lighting, and smart metres, among others, aid in the enhancement of the functionality and efficiency of infrastructure and related services.

IoT software solutions provide business applications that improve operational efficiencies, enhance the customer experience, and provide new income streams. Internet-connected Internet of Things (IoT) devices easily share data with other devices/applications/things to offer trustworthy data decisions to the end-user. Software solutions provide a wide range of technologies that assist firms in meeting their goals and maintaining a critical competitive advantage. Software solutions are gaining popularity for existing infrastructure systems to automate a variety of operations in critical infrastructure, manufacturing, and other industries.

The Americas account for the vast bulk of the device-enablement value pool. Because of the centrality of device enablement to the Internet of Things (IoT) market share and its worldwide Internet of Things (IoT) market revenue growth, both technology and business prospects will be nearly geographically agnostic and increase at similar rates. And, while enterprise clients will continue to dominate, device-enablement solutions will see rapid adoption among small and mid-sized businesses. The expanding market for IoT technology shows some of the ways in which maturing technologies have begun to deliver on the IoT’s promises. PE funds should analyse potential to exploit IoT in their portfolio firms and seek for developing investment opportunities in the IoT industry as well as in sectors that can profit significantly from these technologies.

Asia Pacific is home to a number of rising and developed economies, including Australia, India, China, Japan, and Singapore. Because of the rapid adoption of new technology, this area has become a valuable market for the IT sector. As a result, the Asia Pacific Internet of Things (IoT) market is predicted to develop at the fastest rate. While Japan has announced the completion of the majority of its “smart city” projects, the rest of the area is still in the planning stages. China is the region’s largest market for developing IoT application in smart cities. As of January 2019, more than 5,000 smart cities initiatives in India were under various phases of development, with investments totalling more than INR 2 trillion.

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Furthermore, the region’s governments are taking strong steps to improve their IT infrastructures, allowing business users to embrace cutting-edge technology. Some countries are more technologically advanced than others, yet some are still hesitant to accept new technology. The lack of knowledge and competence among end-users, as well as a lack of resources and infrastructure in emerging nations, are likely to limit the growth of the Asia Pacific IoT market share analysis. Some extensive government programmes in the region attempt to improve service efficiency. The area is home to the bulk of developing members who are undergoing fast urbanisation as the world’s most dynamic region for urbanisation. While this trend creates great commercial potential, it also poses significant hurdles to long-term growth.

The report published by SkyQuest Technology Consulting provides in-depth qualitative insights, historical data, and verifiable projections about market size. The projections featured in the report have been derived using proven research methodologies and assumptions.

SkyQuest has segmented the Global Internet of Things (IOT) Market based on Software Solution, Platform, Service, Application, and Region:

  • Internet of Things (IoT) market by Software Solution (Revenue, USD Million, 2021 – 2027)
  • Data Management
  • Security Solution
  • Network Bandwidth Management
  • Remote Monitoring System
  • Real-Time Streaming Analytics
  • Internet of Things (IoT) market by Platform (Revenue, USD Million, 2021 – 2027)
  • Network Management
  • Application Management
  • Device Management
  • Internet of Things (IoT) market by Service (Revenue, USD Million, 2021 – 2027)
  • Consulting service
  • Support and maintenance
  • Deployment and integration
  • Managed service
  • Professional service
  • Internet of Things (IoT) market by Application (Revenue, USD Million, 2021 – 2027)
  • Smart Manufacturing
  • Smart Energy & Utilities
  • Smart Mobility & Transportation
  • Building & Home Automation
  • Smart retail
  • Connected Logistics
  • Others

List of internets of things (IOT) Key Players/Suppliers

  • Amazon Web Services, Inc. (U.S.)
  • Intel Corporation (U.S.)
  • Microsoft Corporation (U.S.)
  • PTC Inc. (U.S.)
  • Robert Bosch GmbH (Germany)
  • Cisco Systems, Inc. (U.S.)
  • IBM Corporation (U.S.)
  • Oracle Corporation (U.S.)
  • SAP SE (Germany)
  • Siemens AG (Germany)

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Unpacking the Internet of Things (IoT)-enabled warehouse – Modern Materials Handling

The Internet of Things (IoT) has some big numbers attached to it. Cisco Systems, the network technology company, predicts by next year nearly 30 billion devices will be IoT-connected. Cisco figures machine-to-machine (M2M) connections supporting a broad range of IoT applications will represent about 50% of that total.

Those big numbers, however, don’t matter much to management teams in warehouses, fulfillment centers and other materials handling environments. They want IoT apps that deliver clear-cut operational gains.

As a result, the rise of IoT in DCs tends to be piecemeal, driven by focused applications that leverage IoT, rather than a revolution in which companies are out to connect everything to the Cloud. In fact, plenty of IoT-enabled solutions are available for DCs that do things like provide insights on dock activity, ensure that lift truck batteries are charging properly, or check that motors on critical equipment like conveyors aren’t headed for unexpected failure.

Consider battery charging. Rather than offering only point visibility though a local display, IoT allows companies to connect both batteries and chargers to Cloud analytics.

Many battery issues are related to using proper charging settings, says Bret Aker, vice president of software solutions for Stryten Energy, which makes it desirable to hook both chargers and batteries into a Cloud monitoring solution. “If you have the whole system online, it’s so much easier to troubleshoot and correct problems,” says Aker. “It’s all about having better control over these critical assets.”

Many solutions

Stryten Energy offers a Cloud-based solution that uses IoT to monitor batteries and chargers, and to measure motive power requirements, says Aker. The goals include avoiding improper charging that could lead to downtime, protecting battery lifespan, and modeling motive power needs.

IoT and Cloud analytics, Aker says, can spot issues like chargers that are assumed to be giving a fast charge but are only giving a standard charge. “If you’re not charging correctly, oftentimes you won’t be able to get through the next shift with that battery,” says Aker.

As operations seek to curb fleet costs, some have pared down the number of batteries they carry, but the trick to doing that successfully, Aker adds, is having online visibility. “The cost of lean is better information,” says Aker. “Either the end user organization or the servicing entity should watch these assets more closely to avoid problems, which is where IoT comes in to connect the data to the Cloud.”

Wireless sensors on critical pieces of equipment can provide data for equipment health monitoring and predictive maintenance solutions.


Stryten Energy has worked on making the software more self-adapting to situations like batteries that get moved from one site to another, says Aker. Much like the software for smart phones automatically asks if users want to pair with networks or speakers that come in range, Cloud battery management also has become more self-adapting to change.

“One of the big issues many of our larger users have is that they are unsure where all their batteries are,” Aker says. “That’s why we put these self-adapting features into our software—so the batteries are always talking up to the Cloud and triggering needed changes.”

Automation uptime

One of the broader uses of IoT in warehousing is to connect sensors to motors, drives, gearboxes or other components within automation systems to enable predictive maintenance. Of course, warehouse automation is already tightly monitored by programmable logic controllers (PLCs), wired networks and warehouse control systems (WCS), but it’s also possible for integrators or end-user maintenance staff to add wireless, IoT-ready sensors to watch for harmful trends in vibration or temperature.

IoT-enabled image recognition sensors capture scan tunnel activity as packages pass through, and this data is analyzed by AI software to spot issues with package and label quality.


Adding sensors to critical components is just part of what’s needed for predictive maintenance, says Rob Fuller, a product manager with Regal Rexnord, which offers a lineup of “Perceptiv” diagnostic and monitoring solutions.

These IoT-enabled solutions combine sensing, IoT connectivity, software and expertise on the components themselves. Users of Regal Rexnord’s IoT-enabled solution include DSW, the shoe retailer, which has used the technology in its warehouse operations to monitor equipment health.

“Sensors are important to what we do, but they are a means to an end,” says Fuller. “The important part is improving their productivity, by helping them keep machinery operating reliably and at peak performance. And, since we’ve been in the business of manufacturing products like gear boxes and motors and bearings and chain drives and belt drives for many years, we understand the components themselves and the applications they’re used in, which makes us uniquely qualified to be a source of information on the equipment health.”

In practice, says Fuller, the most critical components within a material flow—those that would lead to significant downtime in an unexpected failure—call for monitoring with higher fidelity sensors, but some secondary components could be monitored with less costly sensors. Thus, different types of sensors may be needed, but the deeper capabilities stem from domain expertise on how data trends relate to component reliability.

“It’s not just understanding vibration signals or temperate trends, but how does the data relate to a specific component, in a particular type of application,” Fuller says. “It’s understanding all those factors that go into the analytics, and the advice and alerting we give the customer.”

Image data

Using IoT to connect to sensor data on machine health is valuable, agrees John Dwinell, CEO of Siena Analytics, but IoT can also be used to gather and analyze camera and image data from activity at scan tunnels or other key points in a material flow.

Siena Analytics’ solution, Dwinell explains, applies AI and analytics to image data to do things like spot package dimensions that vary from what back-end systems say the dimensions should be, or to figure out why “no reads” are happening in a scan tunnel.

“In warehousing, you’ll have a system of record, a warehouse management system [WMS] or other type system, that tells you what the dimensions of a package should be, but the problem is that a lot of that information can be wrong,” says Dwinell. “This is where the IoT and analytics turn things on its head, because when packages come through, the solution sees them and analyzes them. You can see the dimensions, you can see how it’s packaged, and see the condition of the package and the label. From there, you can apply the insights back the other way to the systems of record to correct things that are wrong, and drive improvements for the operation.”

Siena’s software spots anomalies in package or label quality, like bar code labels with a printing defect, or case or package dimensions that are unexpected. It can also detect problems with a camera lens or other device elements in a scan tunnel, but its main aim is to analyze the image data, to detect problems like blurry bar codes on supplier labels. The benefits, Dwinell explains, include keeping inventory dimensions and master data accurate, as well as providing suppliers with effective guidance for quality resolution.

“If you were to only tell a supplier that 10% of the product we received wasn’t scannable, the supplier really doesn’t have sufficient information to fix the problem. But if you can use our analytics to tell them exactly what’s wrong with a bar code, and present them an image of the problem, and here is what you can do to correct it, then that puts the supplier in a position where they can quickly improve the incoming quality,” Dwinell says.

Cloud dock management solutions provide a window into dock activity to address inefficiencies.


Connected docks

Dock equipment such as doors, vehicle restraints and dock levelers are another area where IoT is getting applied, because visibility into when and how this gear gets used provides a window into dock activity, says Brett Lindstrom, director of marketing and connected experience with Systems LLC, whose Poweramp, DLM and McGuire brands offer dock equipment. The company also offers MyQ, an IoT-enabled dock analytics solution.

Dock equipment products have used sensors for years to support safety-related “interconnect” functions so that loading can’t begin until vehicles are secured, but only in recent years have vendors connected these sensors to the Cloud to provide analytics and alerts that zero in on inefficient dock processes.

For example, says Lindstrom, a connected dock solution will detect when a truck pulls into position for unloading, when the dock door opens, and when unloading or loading begins. If a door remains closed for too long with no unloading underway, management can be notified so someone can expedite the situation.

Similarly, an IoT-enabled dock solution can also detect if a door is being left open too long after loading is complete in a refrigerated warehouse, a situation that if left unchecked leads to rapid energy waste. Or, by simply monitoring dock door cycles, the analytics can show which docks are being over-used, and which are under-used.

“This [Cloud dock management] is really taking that sensor functionality within dock equipment and feeding it up to the Cloud to convert it into analytical reports that somebody can use to improve their operation,” says Lindstrom. “You can use the analytics to evaluate whether your truck turn times and load times are staying on track, and you can use it to generate alerts if a truck is sitting there too long, untouched.”

Lindstrom says one operation using MyQ has just more than 100 dock doors, while others have a handful. The smaller sites, he adds, often are drawn to the alerting, while the larger operations tend to use the analytics to monitor cycle times closely, or to help with scheduling of maintenance by knowing when docks are least busy.

The time stamping on the coming and goings of trucks can help an operation avoid detention fees by being able to prove dwell times to carriers.

Dynamic adjustments

Gaining better control over the movement of material, people or assets like pallets is another area for applying IoT. After all, warehouses are dynamic places in which IoT-enabled monitoring can help the operation make the right adjustments.

Amin Sikander, president of Synkrato, says sensor feeds, including location-providing beacons and other types of sensors, can benefit a warehouse by providing insight into the real-time movement of goods and people. But IoT data should feed into a software platform that can make sense of the trends and recommend changes to the operation’s material flow or storage, such as changing the slotting of certain items, or more crossdocking in certain situations.

Synkrato’s slotting engine and digital twin software make use of IoT data feeds, he adds, in determining how to adjust to change. “You’re slotting on the fly as product comes in and goes out, and you do that based on the information you get from the digital twin and these IoT systems,” Sikander says. “It’s an adaptive slotting algorithm that looks at your changing demand, and at your real-time warehouse activity, and constantly optimizes storage.”

IoT connectivity and Cloud analytics provide insights and alerting over lift truck battery condition and charging effectiveness.


Pallets have also been IoT enabled. The reasons include reducing loss in pallet pools, as well as cold-chain monitoring.

Mike Jones, a principal with the Pallet Alliance, a pallet program management provider, says Pallet Alliance offers a couple of IoT-enabled pallet solutions. One of them, IntelliPallet, embeds tracking sensors within a wooden pallet, invisibly within its structure, so a company with a closed loop or partially closed-loop pallet pool knows location and can gain insights on where pallets are getting lost.

“The biggest use case for the tracking of wood pallets has been figuring out where they are going and when they are being lost—to improve the retention of these pallets assets within the pool, and understand more about the recycling operations for them,” he says. “I consider that to be a basic use case, but it can be an impactful one, because when you’re talking about larger recycling operations, even a small adjustment to practices within the pool can have a big impact in terms of savings.”

Pallet Alliance has also partnered with CargoSense, which offers visibility and analytics software, and a plastic pallet manufacturer, to come up with an IoT-enabled plastic pallet solution for cold chain monitoring of food or other temperature-controlled cargo. Known as ONVITA, a key part of the solution is how the analytics software can be used to monitor thresholds and drive alerts.

“You’re getting advanced notifications and visibility, to make more informed decisions about cargo condition and location,” says Jones.

Kenco Logistics has used or tested various solutions that involve IoT, according to Trever Ehrlich, creative solutions manager, at Kenco Logistics’ Innovation Labs. A short list of these that have at least been tested by the third-party logistics provider’s lab include IoT monitoring of pack stations, IoT-enabled pick-to-light systems, and data generated by flying, inventory-counting drones, says Ehrlich.

Additionally, the company makes broader use of solutions such as lift truck telematics and assistive picking mobile robots, which can be seen as being IoT, since they wirelessly feed sensor data up to Cloud analytics.

The difference with IoT in warehousing versus consumer-oriented IoT, says Ehrlich, is that IoT in a warehouse tends to be more about improving key operational process like packing, inventory counts or picking, as opposed to doing something like automatically ordering more detergent for a smart washing machine.

And, Ehrlich agrees, it’s not so much the sensor connectivity piece that matters, but how the data gets analyzed within Cloud software that operations managers, maintenance managers, and other interested parties like service partners can take timely, correct actions.

“IoT gives great visibility whereas in the past, you didn’t have that visibility, or had to really dig around to find the information,” Ehrlich says. “Now with these IoT-enabled solutions, different parties and different levels of the organization can tap into the visibility they need to improve a process.”