Industrial Engineering is System Efficiency Engineering. It is Machine Effort and Human Effort IE. 4 Million Page View Blog. 200,000+ visitors. (36,000+ pv, 25,500+ visitors in 2025.)------------------
Blog Provides Industrial Engineering Knowledge: Articles, Books, Case Studies, Course Pages and Materials, Lecture Notes, Project Reviews, Research Papers Study Materials, and Video Lectures. 2025 - New Project - Effective Industrial Engineering and Productivity Management.
Power and robotics firm ABB is one of the most visible to embrace the concept of predictive maintenance, using connected sensors to monitor its robots’ maintenance needs — across five continents — and trigger repair before parts break. Also related to IoT is the company’s collaborative robotics. Its YuMi model, which was designed to collaborate alongside humans, can accept input via Ethernet and industrial protocols like Profibus and DeviceNet.
2. Airbus: Factory of the Future
Airbus has launched a digital manufacturing initiative known as Factory of the Future to streamline operations and bolster production capacity. The company has integrated sensors to tools and machines on the shop floor and given workers wearable technology — including industrial smart glasses — designed to reduce errors and bolster safety in the workplace. In one procedure, known as cabin-seat marking, the wearables enabled a 500% improvement in productivity while nearly eliminating errors.
3. Amazon: Reinventing warehousing
Amazon is “testing the limits of automation and human-machine collaboration.” While the company’s ambitions to use drones for delivery has won considerable media attention, the firm’s fulfillment warehouses make use of armies of Wi-Fi-connected Kiva robots. The basic idea behind the Kiva technology, which Amazon acquired for $775 million in 2012, is that it makes more sense to have robots locate shelves of products and bring them to workers rather than have employees go to the shelves to hunt for products. In 2014, the robots helped the company cut its operating costs by 20%, according to Dave Clark, a senior vice president at Amazon.
4. Boeing: Using IoT to drive manufacturing efficiency
Boeing and its Tapestry Solutions subsidiary have aggressively deployed IoT technology to drive efficiency throughout factories and supply chains. The company is also steadily increasing the volumes of connected sensors embedded into its planes.
5. Bosch: Track and trace innovator
In 2015, Bosch launched what would be the Industrial Internet Consortium’s first test bed. The primary inspiration behind the so-called Track and Trace program is that workers would spend a sizable amount of their time hunting down tools. So the company added sensors to its tools to track them, starting with a cordless nutrunner. As the resolution of the tracking becomes more precise, Bosch plans to use the system to guide assembly operations.
6. Caterpillar: An IIoT pioneer
It is using IoT and augmented reality (AR) applications to give machine operators an at-a-glance view of everything from fuel levels to when air filters need replacing. If an old filter expires, the company can send basic instructions for how to replace it via an AR app. The company’s marine asset intelligence division is also an innovator. Last year, Forbes ran an article explaining how the company used sensor-driven analytics to save a bundle of money on boats and shipping vessels.
7. Fanuc: Helping to minimize downtime in factories
Robotics maker Fanuc is serious about reducing downtime in industrial facilities. Using sensors within its robotics in tandem with cloud-based analytics, the company can predict when failure of a component such as a robotic system or process equipment is imminent. While predictive maintenance is a familiar concept, Fanuc has embraced it more aggressively than most. Last year, GM awarded Fanuc’s Zero Downtime (ZDT) system its Supplier of the Year Innovation Award.
8. Gehring: A pioneer in connected manufacturing
The company enables its customers to see live data on how Gehring’s machines work before they place an order. It does so by using digital technology, beaming real-time information from a new machine to a customer to ensure that it meets the customer’s requirements for precision and efficiency. Gehring uses the same cloud-based real-time tracking to reduce downtime and optimize its own manufacturing productivity through monitoring its connected manufacturing systems, visualizing and analyzing data from its machine tools in the cloud.
9. Hitachi: An integrated IIoT approach
It offers an IoT platform known as Lumada, Hitachi also makes a plethora of products leveraging connected technology, including trains, which the company is beginning to sell as a service. Hitachi has also developed an IoT-enhanced production model that it claims has slashed production lead times by half within its Omika Works division, which manufactures infrastructure for electricity, traffic, steel manufacturing and other industries.
10. John Deere: Self-driving tractors and more
John Deere is deploying Internet of Things technology — with self-driving tractors. The company also happens to be a pioneer in GPS technology. The most-advanced systems it uses in tractors are accurate to 2 centimeters. In addition, the company has deployed telematics technology for predictive maintenance applications.
11. Kaeser Kompressoren: Air as a service
The company offers “digital twins” for its products and supports predictive maintenance. One of its best-known Industrie 4.0 efforts relates to its business model innovation as selling “air as a service,”
12. Komatsu: Innovation in mining and heavy equipment
Komatsu has linked all of its robots at its central production facilities to the internet, enabling managers to keep an eye on international operations in real time. Its massive self-driving trucks can be spotted in Rio Tinto’s Mine of the Future in Australia. Komatsu recently acquired U.S. mining equipment maker Joy Global, which had developed connected longwall shearers for coal mining that can wirelessly send 7,000 data points per second to the company’s data center.
13. KUKA: Connected robotics
German robotics specialist KUKA has an IoT strategy that extends to whole factories. For Jeep, it helped the company build an IoT-enabled factory with hundreds of robots linked to a private cloud. The plant can produce more than 800 vehicles each day.
14. Maersk: Intelligent logistics
The Danish shipping company has embraced the Internet of Things to keep track of its assets and optimize fuel consumption and the routes of its ships. The technology has proven to be especially useful for refrigerated containers, whose contents could spoil in the absence of tight temperature control. Maersk has enlisted sensors and data analytics applications to inform how it stores empty containers and locates them. The company is using blockchain technology to optimize its supply chain operations further.
15. Magna Steyr: Smart automotive manufacturing
The company, can precisely track assets ranging from tools to vehicle parts, automatically ordering a replenishment when necessary. Magna is also testing the use of “smart packaging,” enhancing it with Bluetooth, to help keep track of components in its warehouses. Autonomous vehicles within its facilities help ferry components through plants during assembly, optimizing routes dynamically. It uses wearable technology to help guide its employees in the production of bespoke vehicles.
16. North Star BlueScope Steel: Keeping workers safe
Steelmaker North Star BlueScope Steel has deployed wearables in helmets and wristbands in a proof-of-concept project to help managers track employee safety and spot hazardous scenarios before they lead to injuries. The wearables also track health metrics such as body temperature, pulse and activity levels, enabling supervisors to give taxed workers a break when necessary. In addition, the steel producer is using connected sensors to monitor extremes in environmental temperature as well as the presence of radiation and toxic gases.
17. Real-Time Innovations: Microgrid innovation
RTI and a handful of partners have created innovative technology that divides the power grid into an array of microgrids that can each be managed independently.
18. Rio Tinto: Mine of the Future
Driverless trucks and trains haul ore away from the mining sites while an autonomous drill technology enables a remote worker to oversee multiple drills from a single console. Driverless ships may be in its future as well. The company has a control center complex in Perth that connects to its mines as well as its rail and port operations, where engineers, analysts, programmers and technicians remotely guide mining operations.
19. Shell: Smart oil field innovator
Shell reports that its smart oil fields can obtain 10% more oil and 5% more gas than traditional fields.The company links its high-tech wells with fiber-optic cable that allows remote employees to monitor operations remotely. The company recently launched a digital twin initiative for an offshore rig in the southern North Sea.
20. Stanley Black & Decker: Connected technology for construction and beyond
The company’s smart factory program in Reynosa, Mexico, led to a 24% increase in production of routers used for woodworking. It uses radio signals to help monitor the location of tools, monitor construction progress and comply with OSHA rules. The company’s DeWalt division is also launching an initiative known as Construction Internet of Things, which will use an IoT platform to monitor workers and equipment across the job site. Already, DeWalt has debuted a connected battery service that can not only monitor battery levels but shut down tools if a thief attempts to remove them from a defined area.
Productivity Improvement Achieved by Best Practice Companies.
Read the information available on each plant to become aware of the effective use made by these companies of Industry 4.0 Technologies in various processes and systems.
Apple Inc. - Industrial Engineering Activities - Industrial Engineering 4.0
The Dimensions of the New MESA Smart Manufacturing Model
Technologies, capabilities and lifecycles.
The New MESA Smart Manufacturing Model will provide guidance to practitioners and provide a practical down-to-earth vision of what Smart Manufacturing can and should be.
Plant floor stalwarts for decades, historians and manufacturing execution systems are gaining new attention along with hot trends in digital and manufacturing intelligence. Staying competitive will require extending the MES across operations.
Manufacturing execution systems (MES) are disclosed herein. The MES and methods described herein provide an ability to control and monitor manufacturing processes (for example, chemical and pharmaceutical) and can ensure data and product integrity and ultimately minimize overall manufacturing cost.
Classification: G05B19/41875 Total factory control, i.e. centrally controlling a plurality of machines, e.g. direct or distributed numerical control [DNC], flexible manufacturing systems [FMS], integrated manufacturing systems [IMS], computer integrated manufacturing [CIM] characterised by quality surveillance of production
2013-07-23
Publication of US8491839B2
2013-07-23
Application granted
Status
Active
2026-03-05
Adjusted expiration
https://patents.google.com/patent/US8491839B2/en
Uniformance Process History Database (PHD)
Advanced Software Uniformance - Software for Process History and Analytics
India. 55th ENGINEERS’ DAY. Theme: Smart Engineering for a Better World.
As engineers it is important that we adopt smart engineering to leapfrog into new realms in this era of smart engineering for a better tomorrow.
September 15 is celebrated every year in the country since the year 1967 as “Engineers’ Day” to commemorate the birthday of the legendary engineer Sir Mokshagundam Visvesvaraya. Sir Visvesvaraya, an eminent Indian engineer and statesman was born in a remote village of Karnataka, the State that is incidentally now the Hi-tech State of the country. Due to his outstanding contribution to the society, Government of India conferred “Bharat Ratna” on this legend in the year 1955. He was also called the precursor of economic planning in India. His learned discourse on Economic Planning in India, Planned Economy for India and Reconstructing India, was the first available document on the planning effort of the country and it is still held as the parent source matter for economic planners. A theme of national importance is chosen every year by the Council of the Institution and deliberated at its various State/Local Centres to educate the engineering fraternity in general and the society in particular. This year the 55th Engineers’ Day will be celebrated all over the country on the theme “Smart Engineering for a Better World".
The 55th Engineers Day celebration on the theme ‘Smart Engineering for a Better World’ will be celebrated by The Institution of Engineers (India) at its various State & Local Centres to take a stock of various capability and capacity building initiatives undertaken in crucial sectors like road and rail connectivity, drinking water, agriculture, healthcare and nutrition, affordable housing and better governance through induction of smart technologies to achieve Sustainable Development Goals in a phased manner. The societal engineering aspect will also be delved into as it is a deciding parameter in ascertaining the extent of for developing a smart infrastructure of inclusive nature as well as creation of newer job openings. The theme ‘Smart Engineering for a Better Future’ also encompasses issue of environmental sustainability. There is no well established roadmap towards building a smart infrastructure and trying to replicate a generic global template might not work. Such developments are extremely contextual and should reflect challenges, priorities and aspirations at the regional level. The solutions would require synergy between industry, academia and government and should foster an ecosystem where different players can participate and share best practices and develop action plans for switching to a smart infrastructure for a sustainable and prosperous future.
The engineers need to understand that there is tremendous pressure on the existing service infrastructures which are inadequate and not designed to sustain challenges like air pollution, waste management, traffic congestions, effective healthcare and housing for all etc. This will require finding sustainable and inclusive solutions to provide affordable housing, healthcare, nutrition, mass rapid transportation and drinking water especially to the urban populace which may later be replicated in other areas in a phase wise manner.
An interesting commonality in the nature of these challenges is dealing with massive levels of digitization and generation of data. These perceived challenges are veiled opportunities to leverage data science and analytics and thereby induct smart engineering to deal with major global challenges, such as adverse effects of climate change, water scarcity, mixed energy usage, reducing the digital divide among others. The engineering profession is undergoing a paradigm shift with the induction of digitization and emphasis on man-machine interface with induction of logical thinking in machines. Automation and analytics has proved to be decisive and has brought about changes in conceptualization of all major verticals of engineering. Investing in capacity building of smart infrastructure ensuring smart delivery of civic services will serve the broad societal interest with ramifications leading to establishment of effective and accountable governance system congruent to our needs.
As engineers it is important that we adopt smart engineering to leapfrog into new realms in this era of smart engineering for a better tomorrow.
An smart warehouse consists of automated workflows, robust analytics, and IoT-enabled devices that work together to streamline inbound logistics, storage, and outbound logistics. By embedding smart technologies across the warehousing value chain, companies can make their supply chains more nimble, responsive, cost-effective, and efficient.
In Ichikawa City, Chiba, Japan, SB Logistics has implemented robotic systems for piece-picking and packing, along with automated storage and retrieval, conveyance and sortation. These are big steps toward a fully autonomous warehouse.
Asia's Largest Smart Warehouse for Grocery Deliveries.
Geek+ announces the successful launch of 100 autonomous mobile robots (AMRs) in the distribution center of Circle K Hong Kong.
Today, the distribution center of 140,000 square feet handles the deliveries of more than 300 Circle K convenience stores in Hong Kong, serving over 600,000 customers daily.
Enable your warehouse to perform smarter, streamline business processes and maximize space utilization
These days, warehouses are more than a storage and inventory facility. Thus, a lot of organizations are investing in IoT-enabled warehousing for better automated control systems (ACS) and warehouse management systems (WMS) to improve their operational efficiency by reducing costs.
Our Smart Warehouse Monitoring solution enables the real-time monitoring of warehouse assets/equipment by offering real-time transparency and traceability of all goods across different locations. The gathered data generate meaningful insights regarding inventory and storage status and provide stock visibility. It helps a warehouse operator to prevent inventory shrinkage and increase worker safety. Also, such valuable insights help in optimizing the storage location, pallet journey, warehouse throughput and workforce.
Key Challenges
Lack of end-to-end inventory visibility
Consignment damages
Poor storage utilization
Redundant processes
Longer TAT for picking and packing process
Errors in order processing
IoT-based warehouse monitoring solution
Environment & storage area monitoring
Preserve perishable food, finished products, unfinished material, process chemicals
Monitor the physical condition of the inventory stock to prevent from damages
Automate environment control - temperature, cold storage, air quality, dust, CO2 levels and HVAC systems
Maintain high-quality service standards for product storage and regulatory compliance with remote monitoring
Get notifications whenever environment parameters exceed the threshold
Smart warehouse management
Manage the route of goods starting from pick-ups, quality control, storage, to retrieving goods
Track inventory items by monitoring their status and position
Manage warehousing day-to-day processes without human errors
Gather data of warehouse operations and inventory to prevent any losses
Increase order fulfillment rate, stock replenishment and lone worker safety
Warehouse pallet tracking & monitoring
Log the entry and exit of pallets from the warehouse
Monitor the movement of pallets with warehouse zones
Track the exact location of pallets that are lost or misplaced
Identify pallet moving in some wrong direction or is placed in a wrong place in real-time
Send an automated notification or alert to the supervisor about the unusual movement of pallets
Environment & storage area monitoring
Preserve perishable food, finished products, unfinished material, process chemicals
Monitor the physical condition of the inventory stock to prevent from damages
Automate environment control - temperature, cold storage, air quality, dust, CO2 levels and HVAC systems
Maintain high-quality service standards for product storage and regulatory compliance with remote monitoring
Get notifications whenever environment parameters exceed the threshold
Smart warehouse management
Manage the route of goods starting from pick-ups, quality control, storage, to retrieving goods
Track inventory items by monitoring their status and position
Manage warehousing day-to-day processes without human errors
Gather data of warehouse operations and inventory to prevent any losses
Increase order fulfillment rate, stock replenishment and lone worker safety
MAXIMIZE YOUR PROFITS WITH SMART WAREHOUSE MANAGEMENT
KPIs for warehouse management
Productivity and turnover rate
Inventory on-hand and inventory flow
Order fill rate
Pick & pack efficiency
Occupancy management
Inventory health monitoring
Benefits of IoT solutions for warehouse management
Reduced warehouse operating costs
Effective, real-time tracking
Integration with warehouse management systems
Improved operational efficiency
Optimization of location bin & space utilization
Enhanced forecasting accuracy
Team up, With IoTConnect
Want to monitor and control your warehouse environment remotely?
Implement Smart Warehouse Monitoring solution based on our IoTConnect platform to empower your business to achieve maximum efficiency and ROI.
IoTConnectTM
Softweb Solutions Inc. (An Avnet Company)
Dallas Office :
7950 Legacy Drive, St 250,
Plano, TX 75024
Chicago Office :
2531 Technology Drive, St 312,
Elgin, IL 60124
Phone :
866-345-7638
Internet of Things (IoT): Principles, Paradigms and Applications of IoT Dr Kamlesh Lakhwani, Dr Hemant Kumar Gianey, Joseph Kofi Wireko - 2020 - Preview A Systematic Approach to Learn the Principles, Paradigms and Applications of Internet of Things
Smart Inspection prevents Downtime Inspection across a production line also plays a key role in effective quality control. Our systems combine sensors like vision systems with smart data to ensure any issues have minimal impact on the line. http://blog.omron.eu/smart-inspection-prevents-downtime/
Inspection in the age of smart manufacturing Written by: Tom Austin-Morgan | Published: 05 November 2018 Metrology is often an overlooked process in manufacturing, when it actually plays an essential role. In particular, inspection helps ensure that component parts fit together accurately and ensures that final products work and operate safely. Even for relatively simple manufactured products, there is more to inspection than meets the eye. http://www.eurekamagazine.co.uk/design-engineering-features/technology/inspection-in-the-age-of-smart-manufacturing/192747/
NOVEMBER 2, 2017 Epicor Introduces ‘Smart Inspection’ Tool Innovative mobile “Smart Inspection” tool that guides automotive service professionals through detailed vehicle inspections and generates custom-branded inspection reports that can be delivered to the customer. https://www.tirereview.com/epicor-introduces-smart-inspection-tool/
G. R. Tang and M. Jiang, "Analysis and Research on Inspection Methods of Drilling Holes in Power Transmission Line Foundation", Applied Mechanics and Materials, Vols. 799-800, pp. 1268-1271, 2015 https://www.scientific.net/AMM.799-800.1268
Method for optical inspection of nanoscale objects based upon analysis of their defocused images and features of its practical implementation M.V. Ryabko, S.N. Koptyaev, A.V. Shcherbakov, A.D. Lantsov, and S.Y. Oh Optics Express Vol. 21, Issue 21, pp. 24483-24489 (2013) https://www.osapublishing.org/oe/abstract.cfm?uri=oe-21-21-24483
Smart Inspection Systems: Techniques and Applications of Intelligent Vision
Smart Inspection Systems: Techniques and Applications of Intelligent Vision will enable engineers to understand the various stages of automated visual inspection (AVI) and how artificial intelligence can be incorporated into each stage to create "smart" inspection systems. The book contains many examples that illustrate and explain the application of conventional and artificial intelligence techniques in AVI. The text covers the whole AVI process, from illumination, image enhancement, segmentation and feature extraction, through to classification, and includes case studies of implemented AVI systems as well as reviews of commercially available inspection systems. Each chapter concludes with exercises.
This book will be of interest to users and developers of commercial industrial inspection systems as well as researchers in the fields of machine vision, artificial intelligence and advanced manufacturing engineering.
Vadain, the custom curtains manufacturer in the Netherlands, together with software developers from Sycade, OMRON machine vision technology, and machine builder Eisenkolb, developed an automated solution to detect and analyze errors in curtain fabrics.
Sycade - Vadain machine vision case video
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https://www.youtube.com/watch?v=QT4a5yZtP7w
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Sycade is an expert in the field of quality improvement through automation in the manufacturing industry. With the expertise of Vadain, the technology and innovative automation concept of OMRON, hardware of Eisenkolb and a camera light supplier, Sycade set up a solution using a 'standard' rolling machine to unroll rolls from position A and roll up again to position B. The unrolled fabric passes over an assessment surface with an integrated cutting unit, located inside a dark unit with vision technology.
Detect, cut, register
After a defect is detected and assessed, the roll is cut and defect portion is separated. The partial roll is marked with a sticker with the parent roll plus partial roll marking, including the number of meters. This makes it possible to have an account of meters of flawless fabric is in stock and in which cuts. This ensures that the workshop knows exactly which partial—and error free—roll can be used most efficiently for a particular order. The total of the sub-rolls remains linked to the original meters of the parent roll, making it easy and efficient to reorder fabrics.
It is useful for both discrete and process industries. Machine Learning is more affordable. Sensors are available at lower prices. Edge Devices have become more versatile. The connectivity provisions, that is networking, have become more robust. The enables measurement and tracking of many vitial parameters and analyze them intelligently using data processing machines to create more value in many activities.
Accurate Performance Measure:
Machine Monitoring can more accurate, timely performance measures without missing any period data,
Real-Time & Quick Notifications:
Machine Monitoring allows you to automatically and reliably notify every manager and every technician the parameters of his interest or responsibility if a set threshold is crossed. This provision can be easily configured in your solution to the system.
Systematic Maintenance:
The featured system lets you tailor the repairs and maintenance as per the actual wear and tear of the Machine. It also allows you to use a past record of both the parts’ and machines’ lifecycle, resulting in only the required maintenance at the needed time.
High Efficiency At Work:
Machine Monitoring helps you to get an accurate understanding of the production flow and backlog of orders. The data helps you to identify and eliminate bottlenecks and perfect production schedules. It empowers you with the information that’s required to balance lines and time production runs.
Resource Consumption:
With Machine Monitoring at your side, you have the ability to measure the exact input, output, and energy consumed. This information can further help you to reduce wastage.
No Manual Efforts Required:
Driven by automation and based on advanced technologies like Artificial Intelligence and the Internet Of Things, Machine Monitoring automatically gathers the required data and provides valuable insights to improve the operations.
Personalized Performance Reporting:
Machine Monitoring facilitates you with tailor-made performance reports inclusive of all the important information fetched, compiled, and filtered from multiple sources. This also provides you with sure-shot, concise, and actionable data to expedite the entire analysis process.
Machine Monitoring Is Spread Across How Many Different Branches?
With branches, we mean the various applications or use-cases of Machine Monitoring. Yes! Machine Monitoring is spread across different cases as they comprise everything from monitoring, analysis, industrial sensors to the touch-screen interfaces mounted on machines. Also, not to forget that these systems are interconnected with IIoT or Manufacturing Application platforms.
For Overall Equipment Effectiveness:
Machine Monitoring allows the operators to annotate reason codes for downtime, thereby helping in documenting the root cause at the source. Moreover, machine monitoring systems facilitate you to balance the production lines, track the operations, and plan the production. It also lays a foundation for calculating essential Machine KPIs such as quality, availability, utilization, OEE, etc.
Production Tracking & Job-Route Optimization:
Another use of Machine Monitoring could be found for Production Tracking & Job-Route Optimization. Machine Monitoring brings you the merit of easily tracking WIP throughout the value stream. With the dashboards of Machine Monitoring systems, you can find the exact status of how close a particular run is to completion. It also lends you other valuable insights as well, such as whether or not you are meeting the production quotas. This collectively helps you with Job-Route optimization to gain the maximum benefits from your job.
Condition Monitoring:
It helps you track the condition of each of your machines but also provides a complete understanding of part and asset lifecycle. The sensors attached to the system allow you to monitor different essential parameters such as temperature, noise, vibration, etc., and that too in real-time. This way, Machine Monitoring helps you optimize maintenance schedules and decipher machines’ behavior on the shop floor. It stands as an add-on when it comes to establishing a robust foundation of the predictive maintenance programs, provided that the system deals in collecting data about the Machine’s performance and health in the set local conditions.
Resource Monitoring:
One of the intriguing applications of Machine Monitoring is Resource Monitoring. As businesses are focused more towards cost-savings, the requirement of elevating the efficiency of assets; resource consumption. Organizations receive the privilege of easily measuring current, power drawn, and other resource usages such as injection wax, coolant, water, etc. This further helps manufacturing units optimize usage, plan inventory and buffers, reduce costs, and more.
Machine Monitoring also finds a place for applications like Program Optimization, Tool Life-Cycle Optimization, and more.
Increasing productivity of each and every input is to be attempted by industrial engineers.
What’s The Way To The Roots Of Machine Monitoring?
These systems could be devised in a cloud-based SaaS platform, PaaS platform, or on-premise IT infrastructure of the organization.
Build Initial-Level Hypothesis for Problems:
The initial-level hypothesis matters a lot, as it gives you a basic idea of what’s lacking to achieve the set performance. Machine Monitoring has the ability to create new knowledge sources that could further help discover underlying issues. It further stands apt in enhancing clarity to your machining queries by plainly broadening the available information.
Create a Source Of Truth:
Establishing a source of truth could be different for different manufacturing set-ups, but more likely, it could be analyzing the state of the Machine; that’s all about collecting and organizing the relevant data.
Research Evaluation:
This stage brings you the condition of creating tailor-made states of machines that could let you record machine performance to your precise specification. This step allows you to send an automatic trigger notification to a supervisor/technician when certain predetermined thresholds are exceeded.
Educate The Operator:
An essential part comes here…By educating the operators regarding the Machine Monitoring systems, you enable them to use its application for various purposes. They can add details about downtime reasons, logging errors, process completions at source, etc. On the other hand, the application automatically tracks which operator is on duty, the machine program in operation, the number of hours on tools, etc. Hence, providing a holistic understanding of machine health and performance.
Build Tailor-Made Applications:
Yes! Tailor-made applications are a must when you wish to discover the root cause of machine performance issues. If customarily designed, Machine Monitoring systems can help you track quality and production throughout the value stream.
The Conclusion
Knowing how machines suit entire manufacturing processes is vital to enhance those processes. Comprehensive machine monitoring solutions that bring machines online and lead operator action to assist you in realizing these developments.
At Teksun, we strive jointly with our clients to devise integrated machine monitoring systems that derive immense value and faster scalability.
Jidoka - Automation and Mechanization - Process Engineering and Industrial Engineering in Toyota Production System
Jidoka, a pillar of Toyota Production Systems advocates automation with human touch in all operations of a process to increase productivity of operators as well as that of total systems.
IIOT, Industry 4.0, 4IR (Fourth industrial revolution) etc. are frameworks to merge the operational technology (OT) with the information technology (IT) to provide new solutions for automating and networking industrial machines and systems for performance and productivity improvement.
What is a Smart Machine?
It is self-aware, reacts autonomously and provides information about the product being produced, production parameters utilized, production time taken production quantity in unit time periods, production history, configuration, condition, quality and Overall Equipment Efficiency (OEE) to other machines.
Smart Machine Control
Machine vision and advanced motion control are key components of smart automation. Engineers can increase throughput and build highly efficient modern machines that sharpen accuracy and easily adapt to new products and processes.
Today, the keys to smart machine control are gaining insight into the machine’s operation and the ability to adjust control outputs. Engineers rely on sensor information to monitor the condition of mechanical parts, which gives them the ability to observe the process for quality control or closed-control loops for applications like force feedback or precise positioning.
Today, LabVIEW (of NI.Com) graphical programming helps leading machine builders master this increasing system complexity with add-on modules for motion control, machine vision, and control design and simulation.
"We define smart machines as digitized (or cyber-physical) machines that consist of physical components (e.g., machine frame, engine, and tools), intelligent components (e.g., sensors or software that enable sensing, collecting, and storing of data), connectivity components (allowing for the interaction with the environment and the processing of data outside the machine; e.g., in the cloud), and are extended by machine-related services (e.g., services focused on optimizing manufacturing processes). - Philipp Scharfe and Martin Wiener, Technische Universität Dresden.
The heart of the SL smart system is the well-established advanced traversing camera
technology which is unique in weft-straightening. The universal high-resolution camera
captures up to 20 measuring points per meter of fabric width. Advanced evaluation
algorithms enable an ultra-precise distortion analysis which enables perfect straightening
results in a blink of time.
To further enhance the efficiency of your processes, a modular control system (PLEVATEC
smart) can be directly integrated into the machine. This allows to measure, control,
visualize, and protocol the critical parameters of your specific process, for instance:
• Exhaust humidity (FSX)
• Fabric temperature (TDS)
• Pick/course density (CAM)
• Residual moisture (RR/RF 120)
CAMERA SYSTEM
Universal high-resolution camera for easy
detection of a huge variety of fabrics
• Image capturing in 0.00001 seconds
• Picture size standard: 40 x 30 mm
• Reflecting lighting
• High-speed analysis >10 times per second
• Picture analysis independent of fabric
speed. From stand still up to fabric speeds
of 600 m/min.
Smart image processing
• Universal, self-optimizing detection
• Horizontal distortion
• Brightness control
• Advanced, self-made digital signal processing
• Horizontal density (picks/courses) (option)
• Vertical density (warp/wales) (option)
VISUALIZATION AND CONTROL
High performance, intuitive user interface
The newly designed user interface provides an overview of the most important information
such as all relevant measuring values, tolerances and status information.
The high-performance 12“ HMI touch panel can withstand surrounding temperatures of up
to 60°C without cooling and is suited for the roughest working environments.
Realistic representation of the running fabric
VISUALIZATION AND CONTROL
• Easy to use, intuitive user interface for operator
• Extremely robust 12" HMI touch panel
• Modular concept for upgrades
Modular overview of controls
Status information bar
Current values with tolerance indication
Trend and visual representation
Controls with status
The newly designed user interface provides an overview of the most important information
such as all relevant measuring values, tolerances and status information.
The high-performance 12“ HMI touch panel can withstand surrounding temperatures of up
to 60°C without cooling and is suited for the roughest working environments.
Realistic representation of the running fabric
Fabric distortion from selvedge to selvedge
Integrated measurement of fabric width
Indication of fabric position relatively to center
Max. possible fabric width in machine
FEATURES OF PRODUCT
• Direct readout of skew and bow in % and mm/inch
• Integrated width display in mm/inch
• Indication of fabric position in mm/inch
• Visual representation of the actual running fabric
To ensure that the process is running smoothly and every running meter of fabric is
produced in the desired quality, different trends are provided. Additional trends for
comparing skew/bow and the position of the skew-/bow-rollers are also directly available.
Furthermore, the integrated recipe management provides a database for all critical setvalues, tolerances, controller pre-sets, detection parameters, etc.. This allows the highest
level of reproducibility for different products and enables easy operation.
To maximize the capabilities of the SL smart, several current connection standards are
supported and connection to several Industry 4.0 applications can be realized. Connections
to production lines, MES- and ERP-systems can be realized through:
• ProfiNet or ProfiBus (option)
• OPC UA (option)
• CSV files (option)
For a state of the art instant service of the straightening machine, an industrial router
can be provided for remote access and service. This can help to further maximize the
AK Dyeing presented AK-DSL 2018 machine, has washing-smart wash system and hybrid technology to reduce 30%-40% wastewater discharge. Sensor (steam, water, electric consumption, machine run speed, chemical injection rate, Fabric run speed) are all embedded in the machine to provide digital operation data. All the operational data collected through the sensors can be stored in the Industrial PC provided and connect to the Dyehouse’s Central Management System.
Qualitex 800 control system, along with the Web-UI app, allows the remote visualisation of Monforts technologies via smart phones and tablet devices. Resource efficiency is being addressed via the latest technologies such as the company’s Eco Line for denim, based on two key technology advances – the Eco Applicator for minimum application of the selected finishing chemicals and the ThermoStretch. In many textile mills globally, the cost of energy for running integrated manufacturing lines – especially those for fabric finishing that can involve numerous sequences of heating and subsequent drying – is now eclipsing the cost of paying people to operate them. The ability of the Eco Applicator to significantly reduce energy costs has seen it rapidly accepted on the market.
Creating the Digital Textile Factory at Oerlikon Manmade Fibers
Oerlikon Manmade Fibers, the world market leader in textile machine manufacturing for manmade fibers, based in Germany, shares a glimpse of the company's OpenStack-based edge computing architecture and how it is making possible the digitalization of the “From Melt to Yarn, Fibers and Nonwovens” process chain (Video presentation). Oerlikon is innovating heavily in the fields of automation, machine learning and process integration towards the vision of the fully digitalized smart textile factory.
The intelligent factory is no longer a vision, it has long become reality. Digital solutions have become fixed elements of Oerlikon’s products and services.
A grinding wheel system includes a grinding wheel with at least one embedded sensor. The system also includes an adapter disk containing electronics that process signals produced by each embedded sensor and that transmits sensor information to a data processing platform for further processing of the transmitted information.
Grinding wheel having grinding monitoring and automatic wheel balance control functions
EP0460282B1
European Patent Office
It is also proposed to provide an acoustic-wave sensor (AE sensor) for detecting high-frequency ultrasonic vibrations (acoustic or elastic emissions) which are generated by the grinding wheel, as disclosed in Publication No. 64-278 of examined Japanese Utility Model Application. The disclosed AE sensor is fixed to a stationary member of the grinding machine, for detecting vibrations which are transmitted through a liquid that is jetted on a side surface of the abrasive portion of the grinding wheel. In this case, the vibrations detected by the sensor may be affected by the conditions in which the liquid is jetted against the abrasive portion, or by gases which are present in the liquid.
[0007]
Conventionally, a temperature sensor is embedded in the workpiece to be ground by the grinding wheel, so as to measure a temperature at the grinding surface of the wheel during the grinding operation. However, the known sensor is not able to accurately measure the wheel temperature since the workpiece having the sensor is moved relative to the rotating wheel during the grinding operation. If the vibrations or the wheel temperature cannot be accurately detected as in the conventional grinding machine, it is difficult to determine abnormalities in the grinding, resulting in increased unacceptance or reject ratio of the ground workpieces. Further, the above manner of measuring the wheel temperature is restricted by the manner of grinding and the configuration of the workpiece. For example, it is difficult to embed the temperature sensor in a cylindrical workpiece which is rotated during the grinding operation.
With SMART-UaX, easy set up of the machine to get the best and fastest machining result with just four botton presses.
SKU: SMART-UaX
Categories: SMART MACHINES
Product Smartness
Generation of optimized NC data
NC data is generated and sent automatically from CAD system. If a problem occurs during machining unattended machining is achieved by automatically analyzing and editing NC programs.
Automatic tool process control
The process step-by-step tool checks status and pre-correction to prevent breakage and abrasion due to processing errors. Each material is processed per hourly forecasts, records and time check by usage, life cycle management to be ready for the next process.
Workpiece automatic detection
Automatic detection of size and position of the workpiece. Prevent the pre-processing error to minimize non-cutting time. The defective material is marked automatically by detecting the H-SMART analysis after shape is compared to stop the process.
Creating machines from the ground up that optimize productivity, quality, and safety, while providing insights and information to decision makers when it’s needed is a requirement of best-in-class manufacturers.
Solutions for Smart Machines and Smart Factories by Rockwell Automation.
Global $210+ Billion Smart Machine Technology and Markets to 2026: Autonomous Robots to Account for $164.9 Billion / Intelligent Assistants to Account for $26.2 Billion
Global Smart Machines Market 2021-2026 - Integration of Robotics, AI and IoT a Substantial Smart Machine Market Opportunity for Service Automation - ResearchAndMarkets.com
February 17, 2021
Smart machines collectively represent intelligent devices, machinery, equipment, and embedded automation software that perform repetitive tasks and solve complex problems autonomously. Along with AI, IoT connectivity, and M2M communications, smart machines are a key component of smart systems, which include many emerging technologies such as smart dust, neurocomputing, and advanced robotics. Smart machines will also benefit significantly from advancements in the convergence of AI and IoT, also known as the artificial intelligence of things (AIoT).
Select Research Findings
The global smart machine market will reach $29.9 billion by 2026
Cognitive technologies in North America market will reach $1.43 billion by 2026
Autonomous robots will reach $9.5 billion globally by 2026, growing a CAGR of 18.6%
Neurocomputing solutions for smart machines will reach $1.8 billion globally by 2026
Smart Machine Tool Digital Engineering - Boost 4.0boost40.eu - PDF
Jan 2, 2020 - “FILL will be the leader in smart machines building by reducing the development time of machines. The developed edge-technology based on smart engineering
Manufacturing Perfection: How to Make 3D Printing Machines Smarter and Reduce Defects January 06, 2020
With each line of code and crunch of data, University of Virginia graduate engineering students Oliver Holzmond and Jamison Bartlett get a step closer to revolutionizing the way things are made.
Across several sprawling labs in the UVA School of Engineering’s departments of Mechanical and Aerospace Engineering and Materials Science and Engineering, Holzmond, Bartlett and their Ph.D. adviser, Professor Xiaodong “Chris” Li, are fine-tuning sensors and computer code that will analyze each layer of a 3-D-printed object, spot flaws, decide how to fix the flaws and direct the 3-D printer to make corrections.
Machine characteristics change over time due to variations in load, temperature, machine position, wear etc. Smart machine control is a set of features that improve various machine control functions. What makes these functions „smart“ is that they automatically adapt to changing machine conditions in real-time. Shortest cycle times, highest precision and machining quality can be achieved sustainably.
For instance, Smart Adaptive Control adapts the feed rate to the actual spindle load and temperature during roughing. By this, Smart Adaptive Control helps you to utilize the power of your machine tool and to reduce cycle time.
Another example is Smart Machining Point Control. The function predicts the movement of the machining point using a model and suppresses vibration. This reduces the position error. Smart Machining Point Control therefore improves the surface quality of machined parts.
Last year, GE Aviation began a pilot program at its facility near Cincinnati, Ohio. They sought an augmented reality solution that combined three technologies: a WiFi-enabled Atlas-Copco Saltus MWR-85TA torque wrench, Glass Enterprise Edition smart glasses, and Skylight augmented reality platform from Upskill.
Data provided by the smart wrench is integrated into AR user experience so that mechanics wearing Glass can get a real-time reading of exactly how many pounds of pressure to apply to the B-nuts that seal fluid lines and hoses from Skylight. A green reading shows when the torque is just right.
Wemp Smart CBD Vending Machine
Wemp is a CBD product distribution machine featuring the latest technologies. With its touch screen interface it has unlimited possibilities and it allows the sale of more than 80 different products 7 days a week, 365 days a year! https://wempvending.com/
2017
Smart Pallets
Smart Pallets Help Achieve Scalable and Flexible Manufacturing
JULY 31, 2017
Shelby Township, Michigan-based Fori Automation Inc., a specialist in automatic conveying and handling systems, is modernizing the assembly line of a large U.S. automobile plant with rail guided carts, fail-safe Siemens SIMATIC S7-1200 controllers, and IWLAN. https://www.totallyintegratedautomation.com/2017/07/smart-pallets-help-achieve-scalable-flexible-manufacturing/
Patented: The Original OSS
The intelligent Operator Support System optimises the machining process according to the specifications of the workpiece. The target variables – speed, accuracy and surface quality – as well as the workpiece weight and the complexity of the machining application can be selectively defined and modified at any time via an intuitive user interface.
Setting priorities
The user can define the machine settings via the OSS, depending on the operation. He can choose from 12 predefined settings or extend them as desired.
Priority: Time
Only the time is of interest when roughing. If the operator selects the time as the highest priority, then OSS extends the tolerance band. In addition to this, the control system adapts the speed profile to the geometry that is to be processed.
Priority: Surface quality
In order to maintain the best possible surface quality despite poor NC program quality, the tolerance band is enlarged and the transitions are smoothed
Priority: Accuracy
If the workpiece demands extremely high precision, the tolerance band selected is narrower, in order to achieve the required accuracy. The control system is configured in such a way that the best possible geometrical accuracy is guaranteed.
User-defined setting
Additional settings can be saved in a library and can then be used again at any time. Several positions can be selected between the extremes (surface quality, accuracy, time).
Productivity & Precision
Your benefit
The intelligent system sets the dynamic behaviour of the machine exactly according to the workpiece requirements
Shorter machining times
Better surface quality
Intuitive handling of complex settings
Reduced complexity when setting up a workpiece http://www.gfms.com/country_US/en/Products/Milling/smart-machine.html
2016
Cat (Caterpillar) Connect Technology: Hardware and software available for equipment to arm customers with information designed to help them optimize their operations. Specific construction technologies include:
o LINK, a solution that captures vital performance and product health data and makes that data available on the web to guide decision-making.
o GRADE and COMPACT, two productivity solutions that help operators move material faster, more accurately and with fewer passes.
o PAYLOAD, an on-board system for trucks and loading tools that drives higher efficiency, shorter cycle times and lower cost per ton.
______________
Catpaving
Caterpillar’s new B-Series tandem vibratory asphalt roller models include a range of advancements in intelligent compaction technology to deliver higher quality compaction. These models — the CB64B, CB66B, and CB68B — feature technological improvements made possible through Cat Compaction Control, Caterpillar’s intelligent compaction suite. The suite consists of dual air-purged, infrared temperature sensors that are integrated into the front and rear of the machine. http://www.government-fleet.com/channel/equipment/article/story/2016/02/caterpillar-rolls-toward-smarter-asphalt-compaction.aspx
2015
Smart Food Processing
A Cisco project involving Sugar Creek Packing Co. , Washington Court House, Ohio is making machines and processes smarter. The company recently commissioned a brownfield project in Cambridge City, Ind., Harvesting large amounts of data and feeding it back as actionable information is used for for establishing a high-performance work team structure at the plant. “High-performance work teams are semi-autonomous teams work with little supervision, with production, maintenance and HR issues handled by team members. They need meaningful feedback and they get it from the smart features of the system. A sous vide cooking system is an illustration of it. It is a disruptive cooking technology and a highly automated system, with hundreds of sensors to control the process. To access the data, team members use a Cisco mobile app called Jabber, “essentially an IP phone. This feature substitutes installing the system based on ordinary mobiles with a booster system that would have added $300-500 million to project cost. Jabber radios essentially function like a desk phone and integrate easily with plant software. The wireless network also will track worker locations within one meter via RFID tags embedded on protective headgear.
National Instruments Corporation, Austin, Texas describes the machine as smart machine.
The machine uses LabVIEW software and CompactRIO hardware supplied by National Instruments. The smart machine harvests turf 20 percent faster, and uses half the diesel fuel than other turf harvesting machines on the market. It uses more electric systems. FireFly engineers can also remotely monitor, diagnose, update (and control) the sensor-laden ProSlab 155
The technologies for building a large-scale and diverse scope of smart machines are coalescing and being tested by "first movers." Once they offer significant cost reduction and productivity improvement, companies will embrace them by employing smart machines in place of humans.
IT cost is typically about four percent of annual revenue of the companies, whereas the labor costs that can be rationalized by smart machines are as high as 40 percent of revenue in some knowledge and service industries. This gives considerable scope for deploying further IT systems.
The firms that have not begun to develop programs and policies for a "digital workforce" by 2015 will not perform in the top quartile for productivity and operating profit margin improvement in their industry by 2020. As a direct result, the careers of CIOs who do not begin to champion digital workforce initiatives with their peers in the C-suite by 2015 will be cut short by 2023.
Manufacturing Intelligence for Industrial Engineering: Methods for System Self-Organization, Learning, and Adaptation: Methods for System Self-Organization, Learning, and Adaptation
The manufacturing industry has experienced dramatic change over the years with growing advancements, implementations, and applications in technology.
Manufacturing Intelligence for Industrial Engineering: Methods for System Self-Organization, Learning, and Adaptation focuses on the latest innovations for developing, describing, integrating, sharing, and processing intelligent activities in the process of manufacturing in engineering. Containing research from leading international experts, this publication provides readers with scientific foundations, theories, and key technologies of manufacturing intelligence. https://books.google.co.in/books?id=aejvZWm2_a8C
Manufacturing in Real Time: Managers, Engineers and an Age of Smart Machines
Gian F. Frontini, Scott Kennedy, Scott L. Kennedy
Butterworth-Heinemann, 2003 - Business & Economics - 206 pages
The development of self-operating machines is the foundation of modern manufacturing. This current manufacturing environment is based on automation and smart machines that have the ability to make things with a level of accuracy and consistency that humans cannot match. In order to maximize efficiency, engineers and managers need to change their outlooks, processes and strategies and as a result, adopt new methods and management systems.
The authors demonstrate what is needed by first presenting a brief history of manufacturing and the changes we have already seen and then make their way into the current manufacturing environment. Topics covered include supply chain management, product streams, the role of automation in the supply chain, the relationships between machines and people in automated product streams (looking at what machines do best and what humans do best), variation and quality control, statistical process control, the flow of information in a supply chain and how all of these elements are effected by new technologies and need to be changed to allow for maximum efficiency as we move more toward automation in factories.
*Discover the impact of new technologies on the future shape on the manufacturing industry
*Excellent examples used throughout to demonstrate each idea and process
*Includes a CD with lectures, slides, tutorials, dynamic models and much more! https://books.google.co.in/books?id=Cx0YriQ-7owC