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3 Ways Automation Creates a More Ergonomic Work Environment 

3 Ways Automation Creates a More Ergonomic Work Environment 

Engineer holding a device

Factory automation can reduce employee injury by eliminating many of the highest risk scenarios.

Every good business owner understands the importance of avoiding injuries among the workforce almost without being told but preventing them isn’t always a simple task. Some jobs are necessarily more dangerous than others and even work that doesn’t seem inherently risky can still take its toll. 

Of this second class, the greatest offenders are ones caused by poor ergonomic conditions in the workspace. These conditions, known as ergonomic hazards, place undue strain on the musculoskeletal system. This includes the muscles and ligaments of the neck and lower spine, like the muscles, tendons, and nerves of the hands and wrists; and the bones and muscles surrounding the legs and knees. 

Three of the most common workplace injuries caused by ergonomic hazards include: 

  • Repetitive strain injuries.
  • Prolonged positions in the same posture.
  • Strain caused by awkward or risky movements. 

The good news is that automation offers direct solutions to many of these scenarios. Even in partially automated environments, assistive technology can significantly reduce the strain placed on human bodies. Here are three ways automation creates a more ergonomic work environment for workers. 

1) Automation reduces or eliminates repetitive tasks 

Many traditional manufacturing tasks require strictly controlled movements that need to be replicated thousands of times a day. The impact of even seemingly small movements can build over time, leading to weakened muscles and damaged nerves. Conditions such as tennis elbow, carpal tunnel, and tendonitis can make it impossible for workers to continue their tasks without exacerbating their injury. It is thought that some working environments, such as operating vibrating machinery, can make these conditions worse. 

Fortunately, high-volume, repeatable tasks are the best candidates for automation, and indeed many have already been redesigned to be handled by machines. However, some tasks have resisted automation because they require more dexterity or awareness of spatial relationships than traditional machine automation has allowed. The latest generation of robots, equipped with advanced vision technology and highly accurate pick-and-place capabilities, is expanding the kinds of tasks that can be automated. 

2) Employees perform a greater variety of tasks 

One of the frustrating paradoxes of workplace injuries is that workers seem to face just as many risks from sitting in one place as they do from moving around. The ergonomic risks of maintaining a fixed position for hours on end are not even immediately obvious to employees, who may adopt a certain posture because they find it comfortable, not realizing the cumulative stress it may place on their neck or back. 

When automated systems are introduced into a work environment, they cut down on the amount of time an employee spends performing any given task. Before, employees might have spent a whole shift in one position. Now, they are more likely to cycle between tasks, moving from station to station as necessary. 

This is especially true in low-volume manufacturing, where more production processes have traditionally been carried out by hand. Even the introduction of a modest automated system can mean that workers have more natural breakpoints during the day to stretch their legs and move around—such as when they’re changing a tooling plate or reprogramming a robot between tasks. 

These changes may seem small, but the simple fact that human workers handle variety better than robots will mean that as homogeneous tasks become automated, the tasks that remain will naturally be heterogeneous, and that’s good news for anyone who doesn’t want to sit still for too long. 

3) Cobots help with movement and positioning 

Finally, many ergonomic hazards stem from moving objects in awkward ways. Workers who must load pallets for storage or shipping may find themselves straining when they bend over or as they lift boxes above their heads. An employee at a workstation may be regularly reaching too far for components or may have to hold parts at uncomfortable angles during the assembly process. The heavier components and assembly tools are, the more physical strain they will place on the worker. 

Collaborative robots, often known as cobots, can ease this strain in numerous ways. For instance, they can offload components from a tray and place them within easy reach of a worker, or they can hold an object in position while a worker completes an assembly step. As robots become more mobile, their applications on the factory floor will only become more varied. We can soon expect to see autonomous helpers as a regular part of operations in any manufacturing setting. 

Worker safety improves when automation is incorporated intelligently. 

Of the benefits provided by automation, too little attention is paid to the ways this technology leads to better working environments for the people working within them. Robots lead to more humane working environments not by removing the need for human workers, but by taking over the work that humans are least suited to handle themselves. 

As automation increases, the nature of work within automated factories will place a greater emphasis on problem-solving, collaboration, and creativity. Human workers will need to program, operate, and oversee tasks being handled by robots and other automated processes. This work will not only be better suited to their natural abilities but as a result, it will be more fulfilling. 

If you are interested in learning more about how automation can improve workplace safety, we can help you. We design processes for your factory that better incorporate automated systems and can also discuss specific safety measures designed to create an injury-free work environment. Contact us to learn more. 

The future of manufacturing depends on skilled workers who have benefited from training in both technical and interpersonal skills. We’re proud to be leaders in their development. 

Scott Anair Named Chief Executive Officer of Crestview-Backed Convergix Automation Solutions

Scott Anair Named Chief Executive Officer of Crestview-Backed Convergix Automation Solutions

Scott Anair, CEO of Convergix Automation Solutions, headshot

AUBURN HILLS, MI, June 10, 2025 – Convergix Automation Solutions (“Convergix”), backed by leading private equity firm Crestview Partners (“Crestview”), announced today the appointment of Scott Anair as Chief Executive Officer. In this key role, Mr. Anair will collaborate closely with Kirk Benson, Co-Chief Executive Officer, Mike DuBose, Executive Chairman, and the Convergix team in steering the company towards its strategic vision to become the ultimate trusted automation partner. Together, they are building a leading global enterprise in automation solutions and services with premier technical capabilities and a world-class management team.

Mr. Anair joins with more than three decades of experience in automation, leadership, global technology, and manufacturing. He has previously served as President at JR Automation, President and CEO at Wauseon Machine, and in several leadership positions at Johnson Controls.

Mike DuBose said, “Scott is a talented leader and his experience will be critical to accelerate the transformation of our company while ensuring we consistently provide value to our customers and support their success every day.”

Mr. Anair said, “Convergix is an exceptional company, and I look forward to collaborating with the team to create innovative solutions that deliver exceptional outcomes for our customers. Together, we are poised to build an unparalleled leader in automation – delivering differentiated results for our customers alongside our nearly 900 talented and passionate teammates globally.

Mr. Benson added, “We are thrilled to have Scott join our team. Scott brings a contagiously collaborative leadership style which will help Convergix reach new heights. His knowledge and passion for innovation will propel Convergix forward.”

About Convergix Automation Solutions 

Convergix Automation Solutions designs, engineers and integrates hardware and software to automate its customers’ operations. Convergix specializes in creative, custom solutions and serves customers in a broad range of industries. With approximately 900 employees and 20+ locations worldwide, Convergix is a leading global diversified automation provider. Our vision is to become the ultimate trusted partner, capable of solving any industrial automation challenge with our passionate people, world-renowned processes and diverse experience.

About Crestview Partners

Founded in 2004, Crestview is a value-oriented private equity firm focused on the middle market. The firm is based in New York and manages funds with approximately $10 billion of aggregate capital commitments. The firm is led by a group of partners who have complementary experience and distinguished backgrounds in private equity, finance, operations and management. Crestview has senior investment professionals focused on sourcing and managing investments in each of the specialty areas of the firm: industrials, media and financial services. For more information, please visit www.crestview.com.

For more information, please contact:

Katie Bartlett
Convergix Automation Solutions
(616) 510-4125

Jeffrey Taufield or Daniel Yunger
Kekst CNC
(212) 521-4800

6 Ways Augmented Reality Will Transform Manufacturing Automation

6 Ways Augmented Reality Will Transform Manufacturing Automation

Tablet showing augmented reality simulation

As factory automation begins to incorporate augmented reality into its processes, what should industrial manufacturers expect?

Of all the new Industry 4.0 technologies, Augmented Reality (AR) is the one that, to many people, seems the most surprising. AR devices are often worn like glasses upon which software can project images or instructions as an overly to reality. This technology is more or less sophisticated depending on the application. In some cases, it’s as simple as a way to project instructions to the user. In others, it combines GPS data with vision technology to add visual graphics to a user’s field of view that can accurately identify and track moving objects.

Despite the growing accessibility of this technology and the clear advantages, it offers when applied effectively, too many it still seems like a futuristic idea that’s more of a gimmick than a practical manufacturing tool. However, when used intelligently in an automated workflow, augmented reality can significantly improve manufacturing processes. Here’s how.

1) Providing workers with virtual assembly instructions

Many operators perform complex, semi-automated assemblies at work stations where they perform steps where use of robotics is unfeasible. These assembly steps are prone to human error and require a high degree of attention from the operator. Augmented reality can reduce the burden placed on operators by providing a visual feed to guide them through assembly steps.

2) Assisting quality assurance through error prevention and identification

While using AR to help operators perform tasks is outstanding, even more, exciting is the ramifications this will have on quality control. With AR-enabled devices there to guide operators, they are less likely to miss a step or perform an incorrect action. AR technology can even go a step farther by alerting a user to any mistakes before they are propagated or advance further down the assembly process.

3) Aiding operators while they work with robots

With the increasing roboticization of manufacturing, operators are more and more frequently finding themselves working alongside robots as they perform their duties. AR can help operators work more smoothly, by showing operators how the robots will be moving, and where a human operator might step in to do their part of the work.

4) Accessing data quickly from the factory floor

Managers can walk along the factory floor, and as they pass each station, their AR-enabled glasses show them production data about various components and the robots/machine work cell handling their assembly. The manager can quickly verify that production is meeting quality and output goals, check that the production equipment is operating smoothly, and quickly pull up any extra data they need without having to return to their workstation.

5) Training operators with virtual assistance

Manufacturers across industries are well aware of the gap in skilled labor among their workforce. One of the biggest challenges these companies face is the need to bring new hires up to speed quickly. AR offers an opportunity to narrow that gap by improving on-site training.

Operators could be on the floor, accessing data about the machine they’re working on, assembly instructions from a manual, or even live guidance from their trainer or from support personnel as they do their job. AR would make it easier for these workers to ask questions and receive answers without having to leave the manufacturing floor.

6) Guiding warehouse workers to components

While many warehouses now use robots to retrieve stock, human operators also often need to access the stacks to retrieve items, look for the lost products, or conduct inventory. AR technology can make it easier for workers to find the parts they’re looking for, by directing them to the appropriate shelf in the warehouse.

Augmented reality won’t disrupt the industry, but it will enhance it

While talking about “disruptive technology” continues to be a buzzword, this concept doesn’t do the technology justice. AR isn’t going to transform manufacturing, but it does provide a new means for manufacturers to improve their processes. Those who learn to integrate it into their systems will reap the benefits of greater efficiency, quality, data transparency, and safety. Those who do not work with the technology will gradually find themselves falling behind as their competitors edge them out in a tight market.

That said, AR doesn’t have a place in every system and assembly, and the benefits it brings are not the same for each company. For some manufacturers, AR will be integral. For others, it will be a “nice to have,” but hardly a necessity. If you want to know more about how AR can be incorporated into your automated workflows, contact Convergix. We can discuss your current automation setup and advise you as to where AR might provide your business with additional benefits.

8 Ways Automation is Transforming Last-Mile Delivery 

8 Ways Automation is Transforming Last-Mile Delivery 

Boxes on a conveyor belt in a warehouse

Automation solutions can help the transportation industry overcome the final hurdle in

last-mile delivery

Businesses around the globe pour seemingly endless amounts of energy into optimizing their supply chains, from sourcing and production to order fulfillment. The irony is that, after all this work, the final mile can be logistically the most difficult to get right.

It isn’t hard to see why. Earlier parts of the supply chain are more fully under a business’s control. Conditions within a factory are seldom influenced by the weather, and the middle stages of transportation often take advantage of economies of scale to get the most goods to the most people by the most efficient routes.

But the final mile, which is to say, the final leg of a journey from the nearest transportation hub to the customer, has any number of variables, most of which are difficult or impossible to control for. Poor weather, bad traffic, unforeseen road conditions, or broken down delivery vehicles can all upend a the most careful logistic planning and cause untold headaches.

However, last-mile automation, while still an emerging technology, is quickly proving itself to be an effective, low-cost solution for transportation companies. Here’s how.

1) More efficient parcel sorting

When packages come into a local transportation hub, several steps must first take place before they begin their last-mile journey. These steps include identifying them, determining which route will be the most efficient, and loading them onto the correct vehicle. Modern vision technology makes it easier to scan and sort parcels, while robots can lift and transport objects of irregular sizes and weights.

2) Round-the-clock delivery

Transportation automation means that traditional delivery hours may soon be a thing of the past. With autonomous vehicles able to operate around the clock, there’s no reason you need to give up on a package if it doesn’t arrive with the four O’clock post. Deliveries could also be made over weekends and holidays without needing to schedule more drivers.

3) No unplanned downtime

Downtime is a part of any process, but there’s a big difference between downtime that has been planned for and that which comes as a surprise. Autonomous vehicles can reduce both planned downtime (no need to stop for lunch or to use the bathroom), and unplanned downtime (sensor monitoring to determine when a vehicle is due for repair).

4) Easy scalability

In 2020, ecommerce orders rose over 30% compared to the year before. The rise in sales, combined with increased Covid disruptions and supply chain shortages, meant many businesses struggled to scale smoothly. But although the pandemic is abating, e-commerce is as strong as ever. Automated systems are an efficient way to grow the size of a last-mile fleet, without the need to hire and train more workers.

5) Transportation safety

Traffic accidents are a nightmare for any transportation company, for obvious reasons. They’re also an unavoidable risk. However, autonomous driving systems combined with the newest generation of delivery vehicles can drastically lower these incidents. Autonomous vehicles aren’t hindered by weariness or distractions, and delivery technology that doesn’t use the roads is less likely to be involved in an accident.

6) Purpose-built transportation technology

We’re used to packages being delivered by a mail truck, but this may not be the case for much longer. Some large companies, such as Walmart, are already investing in drone delivery as a viable way to deliver products directly to a customer’s door. Another option would be small delivery droids that could move down sidewalks. Both these options could effectively bypass traffic, and would be more space-efficient than a truck, making it possible to keep a larger fleet.

7) Green delivery

Autonomous delivery technology can also take better advantage of green energy solutions than traditional delivery vehicles. Because they operate around the clock, they can better optimize charging time, and won’t have to plan for gas stops. Deliver solutions that move down the sidewalk or fly through the air also spend less time idling in traffic.

8) Efficient returns

Returns are a necessary evil for most companies. As much as businesses don’t want the hassle of processing them, they also recognize them as a reasonable expectation for online shoppers. At the same time, most consumers find the returns process to be onerous, increasing their purchasing hesitations. Autonomous delivery vehicles could also make it easier for customers to handle returns by providing a way to schedule a robot or order a drone to pick up their packages.

Customers care the most about the last mile, that’s why automation can be the key to delivering satisfaction

After all the work that goes into transporting a product hundreds of miles from the warehouse to the final destination, it can feel unfair that so much of the customer experience depends on the last mile. Industry leaders, such as Amazon, have only raised the bar, providing consumers with affordable same-day delivery and tracking that will notify customers when their parcel is only a few stops away.

The good news is that this experience doesn’t have to be limited to Amazon, nor does it have to come at the cost of stressed or overworked drivers. Last-mile automation may soon mean faster, safer, and more reliable delivery for all customers—and at a reasonable price.

Convergix can help transportation and logistics businesses be part of this transformation. From parcel sorting to delivery, our automated solutions can help your business across the finish line. Contact us today to learn more.

8 Applications for Automation in Cannabis Production

8 Applications for Automation in Cannabis Production

Masked worker inspecting row of cannabis plants

With a boom in demand for CBD oil and marijuana, cannabis producers need efficient ways to increase production

It should come as no surprise that today’s cannabis industry is thriving. In 2020, legal marijuana sales hit a record of USD 17.5 billion, and that number is only rising for the foreseeable future. Another cannabis product, CBD oil, is seeing even steeper market growth, with projections showing that it will grow another USD 29.9 billion by 2025.

While the high demand is good news for cannabis growers, it comes with a hitch. Producing a high-quality cannabis product is a lengthy, multi-step process that requires careful monitoring and delicate handling to avoid waste. For years, this process has been done largely by hand, and automated solutions are only beginning to emerge. This places cannabis growers under a lot of pressure to find efficient, cost-effective ways to get their product to market quickly.

Fortunately, while many cannabis growers have yet to automate, that doesn’t mean automation is a bad fit for the industry. In fact, there are several factors that make cannabis an ideal candidate for automation. The following are eight key points in the production process where automation can make a difference.

1) Planting

While cannabis can be grown indoors or outdoors, many cannabis cultivators have preferred indoor growing conditions due to the finer control over environmental conditions and the possibility for extra growing seasons. And for indoor gardeners, vertical farming is the best way to maximize space to get the highest crop yields for the smallest footprint.

At Convergix, we’ve developed automated systems that can plant crops in vertical towers, monitor growth, and clean and replant towers after harvesting.

2) Harvesting

When cannabis plants have reached maturity, they are harvested by either cutting them off at their base, or cutting off the topmost branches first, and the bottom branches a few weeks later to give them more time to mature. While this sounds simple, the trick is in the timing. It can be difficult to judge the appropriate harvest time without careful monitoring. The ideal time is when the trichomes (the sticky, resin-producing glands on cannabis flowers) turn from clear to milky or cloudy.

While this may sound like a difficult task to automate, modern vision systems can be programed to detect indicators of maturity on plants. A system that could visually inspect plants around harvest time and cut portions which are ready for processing could save labor while also improving product quality.

3) Drying and curing

After harvesting, cannabis plants go through a lengthy period of drying and curing. The initial drying process takes about a week, and requires careful temperature control to ensure the plants are neither too moist nor too dry before they are cured, which takes an additional several weeks.

Throughout this process, careful climate control is essential, both to help the plants dry correctly, and to prevent crop loss due to rot or mold. Automation can not only help move plants in and out of storage, but can monitor the storage conditions as well.

4) Bucking

Bucking is the process of removing the leaves, stalks, and stems from the cannabis flower, which has the highest concentration of cannabinoids. Done by hand, this process is tedious and time-consuming. However, an automated bucking machine can both remove the flower from the dried plant, and also grind the bud for optimal CBD extraction.

5) CBD Extraction

There are three main ways to extract CBD from a cannabis plant: ethanol extraction, CO2 extraction, and oil extraction. No matter what method is chosen, traditional factory automation techniques can help move product through the extraction process.

6) Production

Once CBD has been extracted from a plant, it can be added to a range of consumer products, from oils to creams to edibles. The popularity of these products has been a driving force behind the cannabis boom, and many automated solutions exist for traditional production methods of these consumer products to manufacture, package, palletize, and ship them to your supply chain.

7) Testing

Cannabis consumers have shown themselves to be savvy customers. Many go out of their way to search for products that are high in quality, even if it means paying a premium. Testing CBD oil for purity and potency is an important step to help producers verify the quality of their product.

Automation helps ensure consistency at all stages of production, but when it comes to testing, it affords an efficient and reliable way to demonstrate your commitment to high standards.

8) Hemp Biomass Management

Waste is an unavoidable part of agriculture, whether it comes from lost crops due to pests or inclement weather, or as a result of growing an entire plant just to harvest the buds. While vertical farming can significantly lower crop loss, it’s simply not possible to grow and harvest cannabis without producing a large volume of excess biomass.

Fortunately, the leftover stalks, seeds, and leaves can all be transformed into useful products, including biofuel, fiber products, and oils. Automation can be used not just to produce these products, but to gather, package, and ship biomass to the appropriate facilities for processing.

Agricultural automation lowers production costs and keeps crops from going to waste

To produce high-quality cannabis products, cultivators need systems that can accurately monitor their crops while also handling their product with delicacy and care. While these may seem like difficult tasks, the reality is that modern automation solutions are not only capable of handling these procedures, they can often do so more efficiently and with less waste than traditional growing and harvesting methods.

At Convergix, our experience in the agriculture industry includes work with vertical farming as well as traditional agriculture. We are also automation experts in the consumer goods manufacturing space, and in developing automated logistical solutions to get products from one location to another. If you would like to discuss how automation could aid your cannabis business with us directly, contact us today.

5 Advantages of Robots in the Machine Tending Space

5 Advantages of Robots in the Machine Tending Space

Robotic dispensing arm

Using advanced robotics for material handling in a space already occupied by automated equipment offers numerous benefits to both manufacturers and machine operators. 

Modern manufacturing has advanced so far in recent decades that almost every factory includes some kind of automation. As automation has become more ubiquitous, the role of human beings within manufacturing has gradually changed. People have transitioned from craftwork, producing whole goods by hand, to being line operators who complete only one task at a time, to being the operators of advanced machinery that accomplish thousands of tasks a minute. 

Now, modern robotics is beginning to take over the operation of automated machinery, with humans moving to jobs that involve the large-scale tending and overseeing of factory operations. While this may seem like bad news for workers, it is actually great news for both factory floor operators and manufacturers as a whole. Here are 5 advantages robots offer manufacturers in the machine tending space.

1) Reduce the number of human operators needed for undesirable jobs

Automation—and especially robotic automation—is often presented as a threat to the workforce. However, robots are often replacing human workers in jobs that are dull, dirty, dangerous, and often a combination of all three. 

The repetitive nature of many factory tasks leads to repetitive stress injuries in workers. Operating with mechanized parts exposes workers to grease, grime, and other particulates. And being in close proximity to heavy industrial equipment moving at lightning speed poses obvious safety risks. 

Most workers don’t want dirty jobs that can lead to injury, and no good employer wants to see their workers injured. Robots provide a solution that benefits both parties and frees human workers for higher-level tasks that can’t be automated.

2) Improve production speed, quality, and consistency

One of the proven advantages of automation is that it improves production quality by reducing opportunities for human error. If this is true for the automated tasks themselves, it is just as true for the material handling tasks that prepare machines for those automation. Whereas many factory jobs involving human operators currently require humans to place and position parts for an automated task, robots can take over this material handling process with greater precision and often greater speed. 

Speed, in these circumstances, is a particularly important factor. Faster production processes mean higher output, but asking workers to work faster is a surefire recipe for accident and injury. Robots can increase their speed more reliably, and their components can be monitored for wear and tear, and scheduled for maintenance before a breakdown occurs.

3) deploy robots in tight spaces to handle difficult-to-reach components

On top of increased speed and accuracy, there are some tasks for which human operators are simply not suited. Reaching inside an assembly to attach a component at an awkward angle, for instance, can be difficult for many human operators to achieve. In some specific applications, it may not even be possible. Human arms are only so long, after all. Robots, on the other hand, can be designed to reach difficult places, and have fewer constraints when it comes to the angles and positions at which they place objects. 

Robots are especially applicable for material handling in injection molding, where the plastics involved are heat sensitive. Robots can pick and place newly molded parts using pneumatic grips and vacuum-powered suction attachments and quickly and accurately place them on the production line for the next step in the process.

4) Repurpose robots for different tasks

One of the biggest advantages robots have over built-in-place machinery designed to accomplish one specific task is that robots can be repurposed for multiple uses. This reduces the risk any manufacturing company takes by investing in robots. If they change product lines or come out with an updated version, robots can be easily reprogrammed to handle the new task. 

This has the greatest advantage for small manufacturers, who produce at a lower volume, and may want a robot that can take care of multiple tasks in a production cycle. A robot can be programmed to handle one task at Station A, then relocated to Station B to perform a completely different task within the same production run. And this can be done as many times as needed to finish the cycle. For small manufacturing, this flexibility is crucial to maintain efficiency.

5) Future-proof your manufacturing company against the approaching skills gap

As we mentioned earlier in this article, many machine-tending factory jobs are undesirable, which has contributed to a large-scale exodus in the workforce from manufacturing jobs in general. Unfortunately, with fewer and fewer qualified manufacturing workers available, and a large portion of this workforce nearing retirement, many companies are approaching an employment cliff where they will no longer have the labor they need to complete projects. 

Robots help remedy this in two ways. First, they can take over the jobs that are soon to be left unfilled. Second, they create newer, higher-prestige jobs that pay better and are more likely to attract skilled laborers who want to work in a high-tech industry. Robots are showing that the days of gritty manufacturing are coming to an end. A sleek, high-tech industry lies ahead. 

Convergix can design robotic solutions for your machine tending needs

At Convergix, we have decades of experience designing automated solutions to improve the work environment for machine operators, the product quality for consumers, and the business efficiency for manufacturers. We can do the same for your company by putting our experience with advanced robotics to use in service of your manufacturing needs. 

Whether you are a large company trying to improve conditions on the factory floor across several locations, or a small manufacturer hoping to invest in a reprogrammable robot that can be used in numerous settings, we can help. Contact us today to get started. 

4 Manufacturing Advantages of Build-to-Print Fabrication

4 Manufacturing Advantages of Build-to-Print Fabrication

Build to Print Fabrication Machine

Avoid production delays with build-to-print manufacturers who deliver components built to specification. 

When a client approaches a manufacturer with a fabrication need, the work they are looking for can be split into two rough categories: design and spec, which involves developing a production process from scratch, and build-to-print, wherein the client already has blueprints and technical drawings and simply needs the component manufactured according to existing designs. Build-to-print manufacturing isn’t the star of the show in most cases, but in the right circumstances, it can be an invaluable tool for companies to have at their disposal. 

At Convergix, our most involved projects are design & spec, but our build-to-print capabilities are part of what allow us to be such an effective partner to our customers. If you’re wondering how build-to-print fabrication can be useful to you, here are its four greatest advantages.

1) Replace broken components with exact replicas

Say you have a production line that is essential to your business operations. One day, you notice that one of the components of that production line is wearing down and will soon break. You don’t have the replacement piece you need to get it up and running again—but you do have the blueprints. 

A build-to-print manufacturer can work from your blueprints to manufacture a replacement piece. Because the replacement will be an identical component, you don’t need to worry about whether it will fit or not, nor do you have to go through a more lengthy process of redesigning that portion of your production line. In fact, if you spot the issue soon enough, you can have the replacement component ready to go before your production grinds to a halt.

2) Scale Production by Duplicating Existing Machinery

If build-to-print can be used to replace components on existing machinery, it can also be used to duplicate an entire machine. This can be invaluable for businesses that need to scale production quickly, because it allows them to remain flexible and responsive to the demands of a shifting market. Being able to reproduce an entire production line means they can have confidence that the quality of the product will remain consistent. 

Build-to-print is also helpful in situations where the original equipment manufacturer may no longer be available to produce another round of machinery. So long as your business has the blueprints for your production line, you can replicate it down to the last detail.

3) Replicate proven processes for new iterations on old designs

In some cases, one portion of a design works perfectly, and a manufacturer wants to keep that component while updating other elements of the same design. Instead of starting the design over from ground up, build-to-print allows manufacturers to integrate the original components into the new model. 

In regulated industries, this poses a distinct advantage. If companies can show that one portion of a design matches a previously approved portion, it can expedite the approval process. Build-to-print can give the assurance that the manufacturing processes between versions are consistent.

4) Streamline handoff from R&D to manufacturing

Some businesses have highly-developed research and development departments that are in charge of the designing and prototyping of a manufacturing process. They may want to keep control over certain aspects of that process, and only work with fabricators on specific portions. 

Build-to-print gives companies the freedom to focus intensely on core research portions of their business, safe in the knowledge that when the time comes for production, they have a trusted partner who can work with their designs to manufacture components exactly to spec. 

When is design & spec manufacturing a better option? 

While build-to-print offers clear advantages in many applications, it is not always the best choice. An automation partner who can work with your company at earlier stages of the design process has a level of production expertise that can yield a more efficient manufacturing workflow. They can also make it easier for smaller teams to work more quickly, by supplying the additional engineering manpower necessary to see a project through to completion. 

For instance, at Convergix, our engineers work with computer simulations to plan the layout of a production line. We’re also experts in testing and validation, which we can incorporate directly into a manufacturing process to ensure product quality. The earlier we can work with our customers and the design of their project, the more readily we can incorporate our expertise into a production design. 

Work with an automation partner who can handle both.

The bottom line is that you should find a manufacturing partner who can handle both design & spec and build-to-print. If your business needs to fabricate a component for an automated assembly on short notice, who better than the automation expert who helped you build the assembly in the first place? 

Convergix Automation Solutions has over 200 years of combined experience in the manufacturing space, and in that time we’ve learned to work with manufacturers of all sizes, on projects that range from full assembly builds to the reproduction of a single component. If you have a build-to-print need, contact us today. We can be sure you get the parts you need to keep your factory running. 

How Advances in SLAM Technology Are Expanding Robotics Applications

How Advances in SLAM Technology Are Expanding Robotics Applications

Robotic arm picking up a box

Simultaneous Location and Mapping (SLAM) technology is at the heart of many of the most recent advances in autonomous robotic capabilities. 

Simultaneous Location and Mapping (SLAM) is fundamental to autonomous robotics. While early visions depicted human-like robots navigating complex environments, achieving this required overcoming significant technical hurdles. SLAM systems, enabling robots to map their surroundings and localize themselves in real-time, are now transforming industries. Understanding their evolution and applications reveals their growing impact. 

Challenges of SLAM Technology and Current Advances 

Early SLAM relied heavily on LiDAR, which uses light pulses to create 3D point clouds. While effective for basic navigation, LiDAR lacks semantic understanding. It cannot interpret signs or recognize objects beyond their shape. 

Vision systems, employing multiple cameras, offer richer information. Machine learning allows them to interpret visual data, identify objects, predict movement, and utilize fiducial markers for precise localization. However, historical limitations included high computational demands. Recent advancements in processing power have significantly reduced these limitations. 

Another challenge is the “closed loop” problem, where accumulated mapping errors lead to localization failures. Combining LiDAR and vision systems, alongside grid maps and landmarks, mitigates this, creating more robust and accurate localization. 

Applications for SLAM Technology 

Improved machine vision is driving the adoption of mobile robots in diverse applications: 

  • Autonomous Vehicles: LiDAR already assists with collision avoidance. Machine vision enhances this, enabling interpretation of road markings, signs, and landmarks for advanced navigation and autonomous driving. This technology is essential for self-driving cars, allowing them to perceive and react to dynamic road environments. 
  • Factory Navigation for Robots: SLAM is widely used in manufacturing for inventory management, palletizing, and assisting human workers. Combining vision and LiDAR improves safety and expands robotic capabilities, enabling complex tasks with precision and efficiency. Mobile robots can handle large, complex parts, and adapt to changing factory layouts. 
  • Consumer Robots: SLAM enhances household robots. Roomba-like devices can navigate more efficiently, avoiding obstacles like pets and furniture. Vision-enabled lawnmowers can autonomously maintain lawns, staying within boundaries and avoiding flowerbeds. This technology expands the utility of consumer robots, making them more intelligent and adaptable. 
  • Logistics and Last Mile Delivery: Automation addresses logistical challenges, particularly “last mile” delivery. Mobile robots and drones, guided by SLAM, navigate streets and airspace, locate drop-off points, and avoid obstacles. This technology aims to streamline package delivery, reducing costs and improving efficiency. 

Mobile Technology is the Future of Modern Industry 

Innovation is crucial for businesses to remain competitive. Companies must adopt cutting-edge solutions, like advanced SLAM systems, to create new automation possibilities. These systems enable applications ranging from autonomous vehicles to vertical farming. 

The integration of advanced sensors and AI-driven processing is pushing SLAM systems beyond their previous limitations. The ability of robots to not only map but also understand their environment opens up possibilities in various sectors. In manufacturing, robots can now adapt to dynamic environments, collaborate with human workers, and perform complex tasks with precision. This leads to increased productivity, reduced errors, and improved safety. In logistics, SLAM enables efficient and reliable delivery systems, reducing costs and improving customer satisfaction. Autonomous vehicles, guided by robust SLAM systems, promise to revolutionize transportation, making it safer and more efficient. 

The development of more powerful and efficient processors, coupled with advancements in machine learning algorithms, is accelerating the progress of SLAM technology. This rapid evolution will lead to more sophisticated and versatile robotic systems that can tackle increasingly complex tasks. 

The future of robotics is intertwined with the advancements in SLAM technology. As robots become more capable of navigating and understanding their environments, their applications will continue to expand, transforming industries and improving our daily lives. 

We Can Help You Integrate Mobile Robotics Into Your Processes 

At Convergix, we recognize that, for businesses to stay at the leading edge of their industry, they need access to the latest solutions. We make sure to stay on top of emerging technologies so that we can understand how they can be used to create new automation solutions. Our focus on innovation has helped us develop advanced systems in industries ranging from autonomous vehicles to vertical farming. If you have an automation need, contact us, and we would be happy to discuss solutions with you. 

4 Ways Automation Is Disrupting Agriculture 

4 Ways Automation Is Disrupting Agriculture 

Robotic arm inspecting grown strawberry plant

Farming may be one of the oldest industries, but it’s also one of the most innovative. 

Agriculture, while ancient, is a hotbed of innovation. Modern technology, often perceived as urban-centric, is profoundly impacting farming, from traditional fields to vertical farms. While vertical farms hold promise, especially in resource-limited areas, traditional agriculture is also undergoing a tech-driven transformation. Automation is poised to increase yields, reduce costs, address labor shortages, and promote sustainability.

1) Autonomous Equipment

Farming equipment has evolved from animal-drawn tools to sophisticated machines for various tasks. However, labor shortages persist. Autonomous vehicle technology is now applicable to farming. Unlike urban settings, farm environments are less complex for autonomous navigation. 

SLAM technology, coupled with industry advancements from companies like John Deere and Case IH, is paving the way for AI-operated tractors and harvesters. This automation enhances efficiency and addresses labor limitations, making large-scale farming more manageable.

2) Robotic Pollination

Declining pollinator populations, including bees, threaten crop yields. Hand pollination is labor-intensive and costly. Robotic pollinators offer a solution. Concepts range from micro-drone swarms to multi-armed robots. 

While still in development, robotic pollination promises to supplement or replace natural pollinators, ensuring consistent and efficient crop fertilization. This technology is crucial for maintaining food security in the face of environmental challenges.

3) Smart Crop Monitoring

Vertical farms demonstrate the benefits of controlled environments. In traditional farming, smart monitoring replicates this control through data-driven automation. Soil probes measure moisture and nutrients, triggering automated irrigation and fertilization. Drones monitor crops for pests, enabling targeted pesticide application. 

Smart monitoring conserves resources, reduces environmental impact, and optimizes crop health. This precision agriculture minimizes waste and maximizes yield, contributing to sustainable farming practices.

4) Dexterous Harvesting

Harvesting delicate crops remains labor-intensive. Vision systems and advanced robotic end effectors are automating this process. Robots can identify ripe crops and handle them with precision, mimicking human dexterity or using vacuum technology. 

Automated harvesting addresses labor shortages and improves efficiency. This technology is vital for maintaining productivity in specialty crops, ensuring a consistent supply of high-quality produce. 

Automation is the next step in farming innovation 

Large-scale farming machinery revolutionized agriculture, enabling mass production and affordable food. Today, automation addresses new challenges and offers further improvements. It promises higher yields, reduced costs, and enhanced sustainability. 

Automated agriculture minimizes environmental impact through precise resource management and reduced chemical usage. It also improves crop quality through consistent and careful handling. 

The integration of advanced sensors, AI, and robotics is transforming farming practices. This evolution ensures food security, promotes sustainable agriculture, and enhances the efficiency of food production. 

As automation experts, Convergix offers solutions for implementing these technologies in agricultural settings. We can help design and implement systems that leverage the latest innovations, ensuring your farming operations are efficient, sustainable, and future-proof.

How Manufacturers Are Achieving ESG Goals through Automation 

How Manufacturers Are Achieving ESG Goals through Automation 

Field of solar panels

The manufacturing industry is prioritizing environmental, social, and governance policies more than ever before. Here’s how automation is helping.

The manufacturing sector is increasingly prioritizing environmental, social, and governance (ESG) policies. Automation stands as a pivotal tool in this evolving landscape, enabling companies to meet their sustainability objectives.

In an increasingly interconnected world, responsible corporate stewardship is paramount. Organizations are adopting comprehensive ESG policies to meticulously manage their environmental and social impact, ensuring sustainable practices that resonate with stakeholders. Industry 4.0 provides a suite of sophisticated tools for the streamlined monitoring, analysis, and implementation of data-driven changes. Smart factories, leveraging advanced automation, are embedding best practices into daily operational workflows.

Smart Monitoring: Real-Time Insights for Environmental Accountability

Environmental concerns are driving significant regulatory changes on a global scale. Manufacturers are focusing intently on mitigating emissions and optimizing resource consumption, including water, energy, and raw materials. Stakeholders are demanding greater transparency regarding an organization’s environmental footprint.

Traditional monitoring methods, such as manual wastewater or gas sampling, often lack the granularity and real-time data necessary for effective management. Modern emissions monitoring sensors provide continuous, trackable data, ensuring accountability and fostering stakeholder confidence. Intelligent software analyzes sensor feedback, swiftly flagging anomalies and automatically adjusting processes to maintain compliance with environmental regulations.

Beyond emissions, automation plays a crucial role in monitoring resource usage. This ranges from sophisticated track-and-trace systems for raw materials to granular energy consumption analysis. This includes the identification of energy spikes and the automated adjustment of equipment power modes, minimizing waste and enhancing efficiency.

Waste Reduction: Optimizing Resources for Sustainable Production

Efficiency benefits both ESG initiatives and a business’s bottom line. Optimized resource utilization translates to reduced energy consumption and minimal waste. Automation provides consistent, precise task execution, minimizing worker injury and ensuring high-quality output. Sensor-equipped robotics refine production processes, increasing output and reducing material waste.

Advanced vision and metrology systems ensure rigorous quality control at each stage of the manufacturing process, effectively reducing rework, scrap, and costly product recalls. A high success rate in producing quality products from raw materials minimizes waste, lowering environmental impact and reducing operational costs.

Worker Empowerment: Enhancing Safety and Productivity

The “social” aspect of ESG emphasizes the well-being of the workforce. Automation, when intelligently implemented, enhances productivity and improves the work environment.

Advanced data systems and augmented reality provide workers with comprehensive training, instant data access, assembly instructions, and real-time quality assurance on the factory floor. Collaborative robots (cobots) assist with lifting and positioning, improving worker safety and enhancing the quality of finished products. A safe and supportive working environment fosters talent retention and attracts new workers. Cobots expand the potential labor pool, promoting workforce diversity and inclusivity.

Process and Policy Automation through Software: Ensuring Transparency and Compliance

Automation’s robust software infrastructure supports data security and governance. Digital process controls and manufacturing execution systems (MES) enhance transparency and strengthen cybersecurity measures. Granular software policies implement stringent security protocols, including activity logs and restricted file access.

Digitized processes streamline the implementation of corporate policies, including environmental compliance and equitable hiring criteria. Digital tracking ensures accountability and provides stakeholders with the necessary information to assess a company’s commitment to ESG principles.

Distributed Operations: Global Consistency and Local Optimization

Manufacturing is increasingly global, yet ESG and supply-chain lessons emphasize the importance of localized operations. Standardizing operations across diverse regulatory environments presents a significant challenge. Industrial IIoT and remote monitoring enhance visibility, consistency, and efficiency, reducing travel-related emissions. Centralized data analysis facilitates the consistent implementation of best practices across global facilities.

Advanced automation systems leverage machine intelligence and edge computing for decentralized process control. Localized data analysis reduces latency and energy consumption. Edge systems monitor equipment for preventive maintenance and tailor process recommendations to the unique needs of individual facilities.

Industrial Automation Empowers Manufacturers to Deliver on ESG Goals

Manufacturers are increasingly held accountable for their global impact. Implementing comprehensive ESG policies is crucial for creating sustainable industry practices that benefit corporations, investors, workers, and communities. Industrial automation enhances efficiency, flexibility, and transparency, supporting the achievement of ambitious ESG goals.

Convergix provides customized automation solutions tailored to the unique needs of each business. We assist in waste reduction, efficiency improvement, and smart monitoring implementation. Contact us for a tailored automation strategy that aligns with your ESG objectives.