A new South Australian craft beer has been designed entirely by AI, thanks to a special project from the University of Adelaide’s Australian Institute for Machine Learning (AIML) working in partnership with Barossa Valley Brewing. Read more
Identify the value of digital transformation for F&B manufacturing to remain competitive and realise efficiencies across your enterprise. Read more
The slightest measurement errors can cause great damage to manufacturer, such as the product recall of entire production runs or expensive downtime, and then there is the damage to the brand reputation.
The world’s first IEC 62998-certified safety laser scanner for indoor and outdoor use opens up a whole new world of safe and easy automation. Read more
SIMATIC S7-1200 controllers are the ideal choice when it comes to flexibly and efficiently performing automation tasks in the lower to medium performance range. They feature a comprehensive range of technological functions and integrated communication, as well as especially compact and space-saving design. Read more
Automation experts ifm will present a webinar on its moneo software and TCC temperature sensors which promise to improve efficiencies and increase production rates. Read more
One of Australia’s finest chocolate makers, Chocolatier Australia, automated their manual best before date and batch code process with insignia’s innovative coding solution to drive greater efficiencies on the production line and improve product traceability. Read more
The new Elettric80 model of Laser Guided Vehicle for the tissue sector can lift and move reels up to 3 – 5 tons in weight and 3 meters in diameter. The result is greater flexibility, enhanced safety, and less waste. Read more
Automated guiderail systems provide a simple and cost-effective solution to facilitate quick product change overs to accommodate many different product shapes and sizes on the same manufacturing conveyor line.
Modernising a meat processing plant does take time. But the rewards can be huge. Food & Beverage Industry News talks to Beca experts Rhys Davies and Ross Darbyshire.
In 2020, countless industries across the globe felt the effects of the coronavirus pandemic. These challenges were especially felt by industries that rely heavily on foot traffic, people being able to be closer than two meters and travel.
With automation poised to transform agriculture in Australia in the coming years, Monash University researchers have published the first-ever analysis of the ethical and policy issues raised by the use of robots in agriculture.
Agriculture employs around 2.5 per cent of the country’s workforce and is a valuable export, however, according to Professor of Philosophy Robert Sparrow and Philosophy Research Fellow Dr Mark Howard, little attention has been paid to the ethical and policy challenges that will arise as agriculture is increasingly automated.
Together they investigated the prospects for, and likely impacts and ethical and policy implications of, the use of robotics in agriculture in their paper Robots in agriculture: prospects, impacts, ethics and policy, recently published in the journal Precision Agriculture.
“While there hasn’t yet been widespread adoption of robots in farming due to a lack of technological breakthroughs, it’s anticipated there will be a gradual emergence of technologies for precision farming as well as the use of automation in food processing and packaging,” Professor Sparrow said.
“Already we are seeing the development and, increasingly, the adoption of GPS-enabled autonomous tractors and harvesters, robotic milking stations and dairies, robotic fruit and vegetable pickers, drones for rounding up livestock and crop-dusting and automation in slaughterhouses, food handling, processing and packaging all exist, among others.”
The authors said with global and local food security facing profound challenges including climate change, soil depletion, loss of biodiversity, water scarcity and population growth, robots could help farmers confront these challenges by improving yield and productivity, while reducing levels of fertiliser and pesticide use, as well as water wastage.
However, they stated the widespread adoption of robots in farming could have negative consequences, including mismanagement of chemicals, soil compaction due to heavy robots and potential food wastage if consumers come to expect standardised or ‘perfect’ produce.
This could also lead to further standardisation of breeding and creation via genetic modification of crops and livestock better suited to robotic harvest.
There is also a fear that smaller or struggling farms could miss out on the technology and be unable to keep up, leading to a centralisation of ownership in agriculture.
“There’s a risk that robots could impact negatively on biodiversity and on the environmental sustainability of agriculture more generally,” Dr Howard said. “Strong policy that encourages the development of robots that contribute to small-scale, local, and biodiverse agriculture and do not just promote existing unsustainable agricultural practices is a must.”
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Some industry experts suggest robots could also be used to improve the wellbeing of animals in livestock facilities by enabling feeding and watering regimes to be tailored, faster identification of sick animals and administration of medication, more humane veterinary procedures, and more humane and efficient means of slaughter.
“However, it should be acknowledged that, by their very nature, intensive farming practices pose significant challenges to animal welfare,” Dr Howard said. “The activities of robots may actually exacerbate the threats to animal welfare in practice.”
On a positive note, the physically intense labour associated with agriculture work and its seasonal nature could see robots developed for tasks such as weeding, fruit and vegetable picking, food handling and packaging tasks, which could increase productivity and the amount of produce sent to market.
Labour costs could also be reduced, but this would of course mean a reduction in employment opportunities, particularly for those in rural areas where employment opportunities are scarcer.
Researchers said the industry also needed to consider the potential risk that malicious actors might try to “hack”, or launch cyber attacks against, the automation on the farms of other nations.
“The urgent need to move towards more sustainable agricultural practices while, at the same time, meeting an increased demand for agricultural produce globally, means that there is a strong ethical imperative to explore how robots might be used to advance these goals,” Professor Sparrow said.
“The scale of the current global environmental crisis, and the challenge it poses to food security, suggests that every option to try to improve the sustainability of agriculture should be considered.”
Authors said a holistic approach to the uptake of robot technology in agriculture was required, firstly to address public concerns and the social and political impacts that may arise, as well as comprehensive consideration of the ethical and policy ramifications of their use
Steven Sischy likes a challenge. The automation and drives business manager for APS Industrial joined the company three months ago with the brief to work together with one of its manufacturing partners – Siemens – to make them the leading automation brand in the country. Siemens already has a great reputation in Europe and Australia, but Sischy is keen to take them one step further.
“My aim is to increase Siemens market share in Australia. Currently, they don’t hold the position of number one. They are definitely a mainstream player in a lot of the sectors where they are active, but they don’t have the dominance they have in Europe.
“My challenge is to see how quickly we can get them up there with Europe and help local industry experience these world-class products and technology. In the short amount of time I’ve been with APS we’ve started to see some returns with having a big focus in particular areas.”
This includes the food and beverage market where over the past two years, the Internet of Things (IoT), Artificial Intelligence (AI) and Industry 4.0 have started to take hold in the processing and manufacturing of goods.
“We also see the packaging industry as a very big market within the Australian and New Zealand markets,” he said. “What we have seen, with COVID, is a lot of people are more interested in knowing where their food is coming from.”
And this is one core principles of how Siemens does business – helping make sure that the food supply is secure, especially when it comes to traceability.
“What is important is cyber security,” he said. “If you look at the food and beverage sector, you will see that Siemens has a cyber security policy within its entire range. When they talk about traceability – especially when you start looking into food and beverage, as well as pharmaceutical – you want to know who has actually put what ingredients where, but they want to now go down to even the operator who packed the product.
“This is part of Siemens core DNA. This technology is already in place and gives manufacturers the capability to say ‘I can show whatever is going into a product has been made with a particular recipe and we will track the entire process from start to finish. We will also note when an operator has changed anything, down to the time and date when it occurred.’”
But there is also a component of the security protocols that is sometimes not taken into consideration, especially when it comes to bespoke manufacturing processes.
“The other side, with the technology – is the intellectual property, which is a massive component,” said Sischy. “Cyber security – because the products are already in place – protects the companies that are investing in these technologies to make sure their knowhow does not fall into foreign hands or any of their competitors’ hands.
“Siemens cyber security is very robust. A lot of the exposure that Siemens has to essential services – whether it be water, wastewater, electricity generation, transport – needs to have robust communication protocols secured end-to-end, so nobody can get in there and potentially harm those processes in any way.”
Sischy said it is also critical to note that Siemens has got a cyber security team that constantly looks at any of these issues that may arise. In the event of a breach, or a potential attack, they can get in contact with the security division who will act on their behalf to ensure that the processes are still intact. Sischy said it is important to protect your assets and if a company already has the necessary security steps in place at a high level, it is easy to integrate these types of measures down to individual processes.
“When it comes to starting your digital journey, we have already got it down to the Siemens LOGO!, which is a very small micro-based controller for home automation, as well as small pump stations,” he said. “It has already got cloud connectivity, so you can put it to the local cloud, or you can send it something like mindsphere if you choose to do that. But the point is you do have that capability.
“Like AI, as well as vison-based systems, we’ll start seeing the evolution of what we call edge-based processors where you are going to have a fair amount of processing sitting very close to the action and then sending that information, or digitalised image, back to some central-based cloud solution, which will then give you the ability to interrogate the information even further.”
Digital twins are also part of the Siemens’ portfolio. Digital twins have come to the fore over the past 12 months, whereby it is possible to create a virtual twin of a physical item. This gives companies the ability to start developing a process, have a look at what they want to do with the process, how they want to improve it, and put in the diagnostics before they connect any physical device to the network.
“Also, through a process that we call Team Centre, you’ve got the ability to also then work out from a manufacturing side, ‘How do I increase the movability? Do I have the right product for the solution? How do I reduce costs and how do I improve the quality of the system?’” said Sischy.
The end game to all these processes is giving processors and manufacturers the ability to achieve the productivity outputs they want, and streamline global processes.
“If you look at it – it doesn’t matter where you look – where any food and beverage company have global location, how do we see whether or not a certain geographical area is more deficient or even profitable versus other areas?” said Sischy.
“What we find, if you have a progressive company, is that they are always looking to be at the forefront of their competitors, or always be ahead of their competitors, which means the uptake of technology is relatively easy. It is where you have companies that may not have the capacities internally, that it becomes more challenging. Sometimes in those instances it can sometimes be harder.”
He said that APS’s philosophy, and therefore something that they are also trying to bring with the Siemens’ suite of products – and Team Centre in particular – is trying to improve the overall quality but also try and lower costs.
“A big part of this going forward, in the Australian market, is to try and reduce your energy consumption and CO2 emissions,” said Sischy. “It is going to be a massive focus going forward, so we need to look at the end goal and determine the true cost of its implementation. With Team Centre, because of the development and also looking at efficiencies, you can also look at the process flows, and that improves it – the actual physical prototyping reduces the development costs and improves the quality.”
He said that Siemens and APS can provide a complete solution including all the Siemens componentry – the PLCs, the drives, the switchgear, the power supplies, the networking devices, as well as panels and cabling.
“Through the company’s system integration program, end users will have the ability to get an end-solution product for the customer,” said Sischy. “It is not only providing product with the inclusion of the APS system program, but it also gives the customer the ability to understand and deliver their needs.
“To make manufacturers locally more cost effective, they need to adopt these technologies. If they are going to try and do this with their standard ways – ‘this is how we have done it over the years etcetera’ – they might not succeed. They need to adapt to the latest technologies.”
Overall, Sischy is excited about the future of the APS/Siemens relationship. It has been a mutually beneficial relationship for both companies – and of course, Australian industry who is better placed than ever to access these products.
ifm’s process sensor portfolio is vast and has expanded to include analytical measuring sensors. This is highlighted with the newly released temperature calibration check (TCC) sensor that complies with the required standards and directives of 3A, EHEDG and FDA. This means it is suitable for hygienic installations such as those in the food and beverage industry.
Maximum process reliability and constant product quality are maxims in the food industry, whether in the manufacture of beverages, confectionary, dairy, or in meat processing. The slightest impurities cause great damage, such as the product recall of entire production runs, expensive downtime and then there is the damage to the brand’s reputation.
TCC technology is the sensor that checks itself. Temperature is one of the most important measurements used in process control. In the food and beverage industry, accurate and stable temperature measurement is vital for product quality and safety. But, what happens if the process temperature is inaccurate? What if production managers could eliminate product quality risk due to inaccurate process temperature measurement between calibration cycles?
The TCC is specifically designed to combat the challenges of typical temperature products. ifm’s “Calibration Check” technology provides real-time continuous monitoring of instrument accuracy and measurement uncertainty. Leveraging the digital communication also provides better measurement accuracy and reliability than analogue since there are no signal losses.
Smart diagnostic technology monitors accuracy with two measuring elements in the tip of the sensor to react to temperature changes, with the microprocessor monitoring them for any potential decrease in measurement accuracy. The TCC’s repeatability is less than 0.015°C so users are assured the instrument provides repeatable measurements time after time.
The new technology is designed to give users peace of mind that a product is monitored 24 hours a day. It also monitors its own health and accuracy between calibration checks.
Clean-in-place (CIP) processes are among the harshest to which instruments are exposed. The constant cycling between hot and cold temperatures can quickly cause fatigue of the electronic components and therefore lead to drift and failure. Every CIP cycle is a potential source of drift.
Each TCC sensor is “tested beyond standards” to ensure ifm manufactures the most stable, reliable and accurate temperature products. Throughout the development of this product, ifm engineers identified the primary causes of drift and failure.
The company tested these products and those of three other major manufacturers in its X-treme test lab.
They simulated CIP in its thermal shock chamber with instruments being submerged in a bath at -15°C for 10 minutes and then transferred immediately (< 10 seconds) to another bath at 140°C. Drift was tested after every 50 cycles at a measured temperature of 123°C.
ifm took results shown for manufacturers B and C at a point where each unit failed. There is no data shown for Manufacturer A, since its products failed after two thermal cycles. The TCC measurement drifted < 0.2°C and it did not fail even after 1000 cycles, at which point, ifm stopped the test.
Permanent status checking
Due to the calibration check technology, the TCC permanently checks its own drift behaviour. The sensor compares the temperature value to the simultaneously measured reference value. If the deviation is outside the tolerance range, which can be set between 0.5 and 3K, the TCC provides an optical signal and sends a message to the central controller via IO-Link and the diagnostic output. The same applies to cases of serious malfunctions.
Quality assurance due to event-related measurement
Particularly in production processes where exact temperature values are decisive for the product quality, it is important that the measured values are precise. The TCC allows plant operators to take event-related measurements in case of drifts instead of waiting for the next planned calibration interval. This reduces the risk of losing entire production batches due to faulty production temperatures.
Transparent sensor communication with visual and digital indication: The TCC provides the current status in a simple and clear way. If the LED on the sensor is green, the unit operates reliably. Blue indicates a temperature deviation outside the tolerance range. Red indicates a serious malfunction, such as a failure of the main measuring element. The TCC also automatically stores all the data required for consistent documentation via IO-Link – installation date, operating hours, temperature histogram as well as logbooks on event messages (operating hours and event number) and on the calibration check status (operating hours, temperature value, drift value, limit and status).
All of ifm’s process sensors, which include, flow, level, pressure, temperature and conductivity, are made of food-grade materials. They have a hygienic housing designed and distinguished by high ingress and temperature resistance and protection against high-pressure cleaning with aggressive agents. They have stainless steel mounting accessories especially designed for the food industry and come with protection rating IP68/69K.
Manufacturing and automation is now more top-of-mind than ever before. As Industry 4.0 takes root in businesses across the globe, the opportunity to embrace highly-advanced technology and new, forward-thinking ways of working has never been greater. From smart cities and cashless payments to autonomous vehicles, there is no shortage of buzzworthy, headline-grabbing advances in modern industry.
One innovation that has become particularly important is intelligent manufacturing or smart factories. A combination of cyber-physical systems, automation, and the Internet of Things (IoT), these facilities have the potential to rapidly transform business. Therefore, it should come as no surprise that Australia has identified and embraced the benefits that this industrial wave holds. Automation adoption among Australian manufacturers has picked up substantially in recent years. According to the Australian Manufacturing Forum, there are around 83 robots per 10,000 employees in the country. This trumps the global average of 74 robots per 10,000 employees.
Global consulting company, Mckinsey, has also identified the economic potential that the rapid introduction of robots could hold for the country. In its 2019 Australia’s Automation Opportunity: Reigniting opportunity and inclusive income growth report, the agency noted that this opportunity could add $1.1 trillion to $4 trillion to the economy over the next 15 years, providing every Australian with $4,000 to $15,000 in additional income per year by 2030.
“As the country faces a modest 2 per cent GDP growth this year, and some economists speculate that the country could even face a recession in the wake of the recent bushfires and the coronavirus (COVID-19), is it perhaps time that Australian manufacturers grab hold of this automation potential and reshape the industry?” asks James McKew, regional director at Universal Robots.
Curbing Economic Concerns
As close economic allies, China’s halt on production has had significant impact on the local supply chain. Here, McKew notes that advancements in AI and specifically, cobotics, can be used in areas where it’s unsafe for humans to work or more simply Australian workers are unwilling to do the monotonous tasks to which cobots are so well suited.
“One of the latest and most exciting robotic breakthroughs, collaborative robots or cobots – robots that work alongside human operators safely - enable businesses to improve cost efficiency, productivity, and output quality. These intelligent tools foster a more inclusive workspace, too, by relieving workers from strenuous, repetitive and sometimes dangerous tasks so they can focus on higher-value assignments,” McKew said.
Cobots are user-friendly, flexible, compact, safe, and have a lower Total Cost of Ownership (TCO) compared to traditional industrial robots. TCO includes both direct and indirect costs, including maintenance, factory floor upgrades (including the ease a cobot can be re-deployed), employee training, and safety barriers, all of which are factors that typically apply to traditional industrial robots. Cobots are also less costly to set up, which further makes them a financially attractive option for manufacturers turning to automation for the first time.
What can we learn from the COVID-19?
Besides finding a vaccine or a cure, automation has now also been lauded as one of the safest ways to bridge the gap between the virus and service delivery.
In light of the global COVID-19 outbreak, the opportunity exists to further understand and implement automation across the country, placing Australia in a stronger manufacturing position and improving its global competitiveness rank.
“The World Economic Forum’s 2019 Global Competitiveness Index revealed that those economies that have invested in innovation capabilities are best placed to revive productivity and weather a global slowdown,” said McKew.
While Australian manufacturers are lagging slightly behind global and regional peers in Industry 4.0 adoption – compared to Korea’s 631 robots per 10,000 employees – the country is renowned for its high number of SME and micro-businesses in local manufacturing. “Many of these producers are hampered by costs, which could reduce as the uptake of automation on the factory floor increases. To better compete as a major player in global supply chains, they should embrace the digital transformation with haste,” said McKew.
McKinsey supports this notion, estimating that between 25 per cent and 46per cent of current work activities in Australia could be automated by 2030, helping to drive a renaissance in productivity, income and economic growth.
Utilising robotics and Industry 4.0 technologies, the pivot to intelligent manufacturing may just be the solution that helps countries in beating coronavirus now and future viruses that might arise.
With an estimated 12.35 million acres of land and 2,500 homes and business having been destroyed in the recent runaway fires that ravaged the landscape since September 2019, Australia is now faced with the enormous and arduous task of rebuilding the country.
While this might seem like an insurmountable task to many, the fires also bring new opportunities to the adjacent industries involved in helping rebuild the homes, buildings and farmland that were lost in the fire, giving an opportunity to jumpstart the economy. This is particularly true in the agriculture industry, which comprised 14 per cent of the total land that was burned by the Australian bushfires. By mid-January, an estimated 820,000 ha of agricultural land had been destroyed across New South Wales, Victoria and South Australia.
Rising up from the ashes
Cobot manufacturer Universal Robots, believes that while this tragic event has left a trail of destruction and Australia still needs to recover from the loss to its ecosystem, companies may be able to speed up the process of rebuilding by implementing technological advancements across the spectrum.
With applications ranging from packaging and palletising, assembly, welding, product handling and many more, UR cobots can tackle those tedious tasks that require superhuman abilities to repeat the same movement over and over again for many hours with exactly the same precision. Cobots have been successfully deployed across a range of industries and have become more common in manufacturing environments.
“A big benefit UR cobots hold in this rebuilding process is that it provides manufacturers and industry with the ability to act fast, increase productivity, profits and offer higher quality products,” said Darrell Adams, Head of SEAO at Universal Robots.
Cobots can be programmed, operated and maintained by existing employees, regardless of the team’s previous robotics or automation experience. In fact, the out-of-box experience for an untrained operator to unpack a UR robot, mount it, and program the first simple task is typically less than an hour according to Adams.
Food production accelerated
As far as the agriculture industry is concerned, the company believes that farmers in Australia need all the help they can get. With automated agriculture going from strength to strength, cobots can offer an effective solution. According to a recent report, the market for agricultural robots is expected to reach $35 billion within the next five years. “Cobots can prove their agricultural worth by assisting producers in getting their businesses back up and running faster and more efficiently,” says Adams.
He notes that UR cobots can be applied to a number of requirements within the agriculture and food processing sector. Robots are successfully used in planting, seeding, fertilising, irrigation, weeding, thinning, pruning, harvesting and milking applications among others.
The company prides itself in the cobot’s ability to handle delicate agricultural processes and products. Such an example can be found in the dairy industry, where a UR robot arm mounted to a small pallet jack is used to disinfect and milk cows, cutting labour costs and time taken to complete the job. The robot takes up no more space than a human milker and doesn’t require any safety caging.
Another application where cobots can be implemented is in the packaging of goods that are sent to market. Adams notes one case study of a UR10 robot, installed at a food manufacturer. The robot worked independently to pack vanilla cream bags into cartons, but also formed part of a network that includes a carton erector, a carton sealer, and a filling machine. “This is one of the real benefits of cobots – it can work alongside workers and form part of your factory process.”
Collaborative robots are also ideal for hygienic food processing environments, where it can operate around the clock during seasonal periods of high production and can be easily redeployed to new applications as needed, helping local farmers reach their production goals faster.
A local success story
Developed by the Queensland University of Technology (QUT) in proud partnership with Universal Robots, Harvey, a robotic harvester combines state-of-the-art robotic vision and manipulation techniques to identify and harvest capsicums.
Harvesting labour in Australia ranges from 20 – 40 per cent of operational farming costs and this combined with a shortage of skilled labour can result in some of the crops not being harvested.
In recent trails, Harvey used images from a camera-in-hand system to locate the fruit. A motion planning algorithm was then used to command a novel multi-mode harvesting tool to safely detach the fruit. Results show a fruit harvesting success rate of 76.5% – a significant improvement when compared to the state-of-the-art, which achieved 33% in a similar scenario. Harvey also achieved an average pick time of 20 seconds for this field trial compared to 106 seconds by its predecessor.
This year, QUT will further develop Harvey as part of its involvement in the new Future of Food Systems Cooperative Research Centre backed by $35M in Australian Government funding over 10 years, and $149.6M in cash and in-kind funds from more than 50 participants.
Making cobots accessible to everyone
According to Adams, UR has just released a financial services leasing programme which could prove to be a lifeline for producers who are rebuilding their business. “We are levelling the playing field by enabling all manufacturers to immediately put cobots to work without an upfront capital investment. UR Financial Services offers a fast, low-risk and financially-friendly model to accelerate automation. The partnership makes it easy to upgrade existing cobots, add additional units or test cobots for the first time – and equips users to maximise productivity, quality and profitability, without increasing costs or cash outlay” says Adams.
“It’s time to think more laterally about agriculture. Robotics is the revolutionary new technology which can change the way we think about producing food,” he concluded.
PC-based control offers a central, open, and comprehensive machine control platform suitable for delivering highly efficient, IoT-based automation strategies.
It enables machines, plants, and production lines to be connected in ways that unlock their potential across entire processes. In this context, TwinCAT Cloud Engineering adds a new dimension by providing users with an easy means of engineering TwinCAT instances and controllers in the cloud.
With TwinCAT Cloud Engineering, users can instantiate and use existing TwinCAT engineering and runtime products directly in the cloud. Quick and easy to access from the Beckhoff website with a web browser and requiring no additional software, the new solution enables registered users to work with the TwinCAT development environment even from previously unsupported devices such as tablet PCs.
The TwinCAT Cloud Engineering instances generated by users can be connected to physical control hardware over a secure transport channel. Users not only have the features of the TwinCAT control architecture, but distributed collaboration support through a source control repository as well. For new users, having access to a TwinCAT Cloud Engineering instance in the cloud provides a suitable foundation on which to get to know the TwinCAT environment.
In addition, TwinCAT Cloud Engineering enables users to move their entire TwinCAT architecture to the cloud, the only difference versus a conventional TwinCAT environment being that they use a virtual machine instead of a local engineering PC. One advantage is that users need not get used to a new software environment but can simply continue to work in the same, familiar development environment. Another is that they do not have to install and maintain multiple software versions tailored to specific machine generations on their own PCs. Instead, users can run separate TwinCAT Cloud Engineering instances with different software versions, all of which they can access remotely whenever they need to. Project files are stored in a source code control repository which can be accessed directly from within TwinCAT Engineering.
Based on modern source control features, connecting to Git-based systems and managing automation projects on them is easy. The TwinCAT Multi-User functionality enables simple, seamless access to a source control repository without the need for special technical expertise. Here, TwinCAT Cloud Engineering enables multiple users to work together on a number of instances at the same time either by integrating a Git server into the instance or using a Git-based cloud service.
Siemens latest controller is suitable for high-end machines in the automation space. Here’s why.
To remain competitive both now and in the future, machines and plants must be continually adapted to meet the latest requirements and leverage the latest technologies. If an automation system is no longer up-to-date, then there is no better time to consider an upgrade that will bring a company advantages in productivity, efficiency and availability.
No matter what the automation application is, every machine or system has its specific demands on system performance and complexity of application. The Siemens range of SIMATIC controllers, which are now available from APS Industrial, has the right controller for a range of automation tasks enabling seamless solutions for individual requirements. The basic, advanced, distributed, and software controllers within the SIMATIC family of products offer a lot of scalability and integration of their functions.
And when it comes to high demands on performance, communication, flexibility, and technology functions, the S7-1500 advanced controller within the SIMATIC family of controllers deliver results for medium-sized to high-end machines.
It is the latest controller generation from Siemens and is future-proof. The controller enables users to turn sophisticated machine designs into reality due to the modular structure of the controller, which provides assistance to users as they work their way through the digital transformation.
It features a modular design and can be scaled in terms of its functionality, so users can adapt assemblies and functions to suit a machine’s design. This makes the SIMATIC S7-1500 controllers a suitable solution for all aspects of production automation and applications for medium-sized and high-end machines.
Fast and precise
The SIMATIC S7-1500 has fast backplane bus, PROFINET performance, short reaction times, and a command processing time of up to 1ns in the central processing unit (CPU). The PROFINET interface with deterministic time response ensures reproducibility and precision in the range.
It offers good handling and user friendliness in numerous new details: Integrated potential bridges, shielding elements requiring no tools to assemble, uniform front connectors, and ergonomic terminal marking. Easy expandability, customised assembly, and upwards compatibility offer cost efficiency and investment security.
The seamless integration of SIMATIC Controllers in the shared TIA Portal engineering framework enables the consistent storage of data, the smart library concept, and a uniform operating philosophy. The TIA Portal provides users with access to the digitalised automation system – from digital planning to integrated engineering to transparent operation. Simulation tools decrease the time-to-market, diagnostic and energy management functions increase the productivity of plant, so users can have greater flexibility and transparency due to a connection to the management level.
One system for standard and fail-safe applications means there is one controller, one communication system, and one engineering environment for standard and fail-safe automation. Safety Integrated means the easy connection of PROFIsafe devices via PROFIBUS and PROFINET, and data consistency between standard and fail-safe program components. It offers support for mixed operation using fail-safe and standard I/O assemblies.
Easily detect errors
Due to its uniform display concept, the diagnostics functionality integrated into the SIMATIC S7-1500 system ensures that error messages in TIA Portal on the HMI, in the web server, and on the display of the CPU are visualised identically as plain text information. The configuration and the diagnostic reporting channels are integrated into the system in a user-friendly manner. The trace function is supported on all CPUs.
Protection for the controller
The security concept of controller includes measures ranging from authorisation stages and block protection to communication integrity. Security Integrated protects investments, helps prevent the reproduction of machines, and helps to ensure a high level of plant availability.
Motion control and more
It is equipped for technology functions – motion control, signal detection and output, and PID control are integrated and usable with T-CPUs to an extended degree. A matched system with the controller and the SINAMCS servo drive system can be connected via PROFINET easily.
The CPUs are the heart of the SIMATIC S7-1500 as they execute the user program and network the controller with other automation components. Due to numerous innovations, the CPUs of the device deliver many advantages in productivity and efficiency. The hardware is compact and certified to IP20 or IP65/67 as standard. These integrated, versatile modules save space in and around the cabinet and reduce the spare parts inventory costs.
The scope ranges from standard and failsafe CPUs for small to mid-size requirements, offering compact size designs with integrated inputs and outputs, supplemented with technological functions, all the way up to high-performance applications.
From high-level controlling, testing and measuring and model-based closed-loop controlling through to assembling, cutting, sawing, filling and more, the SIMATIC S7-1500 automates not just complete production plants but also applications that demand the greatest performance, flexibility, and networking capability.
APS Industrial has announced that it will be relocating its Brisbane office to 49 Borthwick Avenue, Murarrie, effective from August 19, 2019.
The 1,500sqm facility provides a boost to APS Industrial’s ability to service the local Queensland market with increased local stockholdings and office space. Together these two factors enable greater local access to its product portfolio as well as the necessary capacity to support the ongoing recruitment of technical support, product management and customer service roles.
“APS Industrial is now over 12 months old and in this time we’ve seen a significant uptake of our products and services in Queensland which is very pleasing. To cater for this growing customer base and product demand – both now and into the future, we have invested in a new branch location,” said David Hegarty, managing director of APS Industrial.
READ: APS Industrial partner with Grace Engineered Products as national distributor
“This significant increase in local stock-holdings paired with our new national distribution centre in Melbourne ensures we are well placed to get the products to our valued customers quicker than ever before and that’s incredibly important to us,” Hegarty continued.
The move follows the launch of APS Industrial on March 1, 2018 where its master distribution partnership with Siemens in Australia was announced as well as other core national distribution agreements with Weidmüller, Rittal and EPCOS (a TDK Group Company). Since those initial launch agreements, APS Industrial has also announced national distribution agreements with KATKO and Grace Engineered Products.
“From the outset of APS Industrial, our focus was clear – partner with the world’s leading industrial manufacturers to bring the broadest portfolio in the industry to Australia and match that with exceptional customer service,” said Hegarty. “There’s no question our Queensland team have lived up to those core promises and this new move enables us to continue and build on this moving forward”, said Ernest Van Niekerk, State Manager – Queensland, APS Industrial.”
Reputation can lead to failure or success. And in a world where many speak about negative experiences more than positive ones, a company needs to hold a good name among industry. As a part of sustaining a reputable business, PwC stated in a survey – What drives a company’s success? – that companies were more likely to succeed if they had a clear understanding of their own business.
The survey shows that companies find it harder to understand their own strengths than to understand their customers. By knowing themselves well, and leveraging their distinctive strengths to build a clear identity, companies can outperform their peers. But many companies aren’t basing their strategies on this insight, the study found. In fact, companies have widely divergent views on how to develop strategy, despite evidence that a capabilities-driven approach delivers the best returns. Additionally, companies with a clear identity –standing for something unique and consistent over time – tend to perform better than others.
The survey, which included 720 participants, identified what people recognised as key strategies for success. The most important drivers of success for the world’s 105 largest companies include having a coherent business strategy where everything the company does points in the same direction. It is also important that of products and services perfectly fit together and support a company’s value proposition.
Successful companies are also deemed to be agile, fast-moving innovators that stay one step ahead of challenges. ifm’s clear business strategy, and its commitment to putting customers’ requirements first, are among the reasons engineering solutions provider, Agito, chooses to work with the company.
ifm sells sensors, safety systems, light curtains and other products to Agito so it can fulfil its projects, which include building conveyor systems, PLC control equipment and automation systems.
Agito managing director Michael Musca said he prefers to work with ifm because the ifm team is takes time to look at a company’s needs. “They care about us and they actually care about what they do. They answer the phone, they provide good services and they are invested in what we are doing.
“They need to understand what we are doing to be able to sell the right equipment to us. They make the right suggestions for new equipment they have because they know what we are about.
“That’s important because if you don’t know what’s available, you might just do what you’ve always done. Sometimes, for example, buying new products can be more cost effective,” said Musca.
He said ifm’s service and support differentiates them from companies that offer similar products.
“They’ve got a good system in place to get the phone answered every time and the people care and are interested.”
Agito uses ifm’s AS-Interface (ASI) system, which allows devices to communicate.
“It’s simple and the installation takes is a lot less time when compared with other systems. We have halved the installation time.
“ifm supplies the network of controls to allow us to drive things. You don’t have to wire a single wire through a device. You add to it as well. That’s what I like about ASI – it’s always able to grow.
“Other systems can be more expensive,” said Musca.
Agito has used the ASI system for many applications, including in food manufacturing facilities and in airport motor control systems. The ASI system includes inductive dual sensors for position detection on valve actuators, position feedback for single and double seat valves and for diaphragm valves, and inductive sensors for use in machine tools.
Agito builds specialty machines such as robotics or PLC control equipment. The company works predominantly in the food and beverage industry on projects such as conveyor systems for bakeries and soft drinks manufacturers.
“We build new equipment. We design it and decide which products to use. ifm’s products are easy to use, provided that people have a bit of training. Nothing is simple in electronics.”
While Agito trains its staff in-house, ifm is also able to provide training to customers. The company offers internal and external seminars and presentations about individual devices or whole product groups. All documents about system documentation are also available
as a download.