Today, A3 represents more than 1,400 member companies worldwide and serves as a unifying force across an increasingly complex and interconnected automation landscape. Its work spans safety standards, education and certification programs, and industry events, all with a shared objective: to help manufacturers and technology providers realize the full value of automation.

At the center of that mission is Automate 2026, North America’s largest automation and robotics trade show. Set to take place in Chicago, the event reflects not only the rapid advancement of automation technologies but also the growing urgency for manufacturers to adopt them.

A3’s origins trace back to a time when industrial robotics as a field was still emerging. The organization initially focused on supporting the development and adoption of robotic systems in manufacturing. Over time, however, the scope of automation expanded significantly. As technologies such as machine vision, motion control, and artificial intelligence (AI) became more integral to industrial processes, the organization evolved alongside them. This expansion led to it rebranding in the 2010s as the Association for Advancing Automation, reflecting a broader mandate that encompasses the full automation ecosystem.

Today, A3 operates as a cohesive global organization that brings together technology developers and system integrators. Its leadership in areas such as robot safety standards and workforce development has helped establish a foundation for responsible and effective automation adoption across industries. “We’re passionate about advancing automation and helping more people realize the value of using it,” says Alex Shikany, Executive Vice President of A3.

The history of Automate closely mirrors the evolution of A3 itself. First launched in 1976, the event initially focused on robotics before expanding to include additional technologies as the industry matured. Over the years, it has been known as the Robots and Vision Show and the Robots, Vision and Motion Control Show, before officially becoming Automate in 2011.

That rebrand marked a turning point, positioning the event as a comprehensive showcase for all automation technologies rather than a single segment of the industry. Since then, Automate has experienced significant growth, driven by increasing demand for automation solutions across sectors. The 2026 edition is expected to draw more than 50,000 attendees and feature over 1,000 exhibitors, making it the largest event in its history. For manufacturers and technology providers, it offers a rare opportunity to engage with the full breadth of the automation ecosystem in one place.

One of the defining characteristics of Automate is its broad, industry-agnostic appeal. Unlike events that focus on a single sector, Automate brings together stakeholders from across manufacturing, logistics, agriculture, construction, food production, and more. This diversity reflects the reality of modern automation. Technologies such as robotics and AI are no longer confined to specific industries; they are foundational tools with applications across virtually every sector.

As Shikany explains, attendees do not come to Automate in search of a single technology—they come with problems to solve. “Customers come to Automate for solutions to their problems,” he says. “They’re not necessarily looking for one discrete technology. They want to see how everything works together to address their challenges.”

That focus on solutions is evident on the show floor, where technologies are presented not in isolation but as part of integrated systems. Robots are paired with vision systems, powered by AI software, and supported by motion control and sensing technologies. The result is a more complete and practical understanding of how automation can be applied in real-world environments.

Indeed, a key theme shaping Automate 2026 is the convergence of automation technologies. Rather than operating as standalone tools, these technologies work together to create smarter, more adaptive systems. A robot, for example, may rely on vision systems to interpret its environment, while AI algorithms enable it to make decisions in real time. Motion control systems ensure precision and efficiency, while digital tools such as simulation and digital twins enhance planning and optimization.

This convergence is transforming how manufacturers approach automation. It is no longer about implementing a single piece of equipment but rather about designing integrated solutions that address complex operational challenges. At Automate 2026, this shift will be on full display, offering attendees a firsthand look at how these technologies interact and deliver value in practical applications.

Artificial intelligence has become one of the most influential forces in automation, and its role continues to expand. While early discussions around AI were often met with skepticism, the industry has reached a point where adoption is accelerating rapidly, and Shikany notes that this shift is particularly evident in how AI is being deployed. “People are embracing AI in solutions more than ever before,” he says. “When they walk the show floor, they’re going to see real-world applications, not just theoretical possibilities.” Examples such as AI-powered bin picking demonstrate how the technology is being applied to solve specific manufacturing challenges.

This practical focus is critical for manufacturers evaluating automation investments. Seeing technologies in action provides a clearer understanding of their potential impact and helps bridge the gap between concept and implementation.

Among the most anticipated features of Automate 2026 is the continued expansion of humanoid robotics. Once largely confined to research and experimentation, humanoid robots are now gaining attention as potential solutions for real-world industrial applications.

A3 introduced its Humanoid Robot Forum as a standalone event two years ago, and its rapid growth has led to its integration into Automate. The 2026 show will feature both the forum and a dedicated humanoid robotics pavilion on the show floor, sponsored by NVIDIA. The pavilion will bring together leading companies in the field, offering attendees an opportunity to explore the latest developments and engage directly with industry experts.

“It’s one of the hottest topics in our space,” says Shikany. “Our role is to show the technology and its practical use cases so customers can understand where it fits.” While it is still early to define the full scope of humanoid applications in manufacturing, the technology is advancing quickly, and Automate provides a platform for companies to showcase new developments, with several exhibitors expected to make major announcements during the event.

Beyond technological innovation, automation is playing a critical role in addressing one of the manufacturing sector’s most pressing challenges: workforce shortages. Many industries are struggling to fill roles that are physically demanding or hazardous, and automation offers a way to address these gaps while also improving safety and efficiency.

Shikany emphasizes that automation is not about replacing human workers but equipping them with better tools. “These are 21^st-century tools for human employees,” he says. “They help companies stay competitive, but they also make those companies more attractive places to work.”

As automation becomes more user-friendly, with advances such as collaborative robots (cobots) and intuitive software interfaces, the barrier to adoption continues to drop. At the same time, companies are investing in upskilling their workforces to support new roles, including robot technicians and system operators. This dual approach, combining technology adoption with workforce development, is helping manufacturers build more resilient and adaptable operations.

Looking ahead, the integration of automation is reshaping how factories are designed and operated. Increasingly, manufacturers are planning facilities with automation in mind from the outset, rather than adding it later, a shift that enables greater flexibility and scalability. Factories are becoming more modular, allowing for easier reconfiguration as production needs change. Intelligent systems provide real-time insights, enabling more informed decision-making and continuous improvement.

Shikany believes this evolution will continue as technologies mature. “You’re going to see factories become more intelligent, more flexible, and designed around automation from the beginning,” he suggests. In such an environment, the role of human workers remains essential. Automation enhances their capabilities, allowing them to focus on higher-value tasks while machines handle repetitive or hazardous work.

For companies considering automation, the decision-making process can be complex; evaluating technologies and identifying the right partners all require significant time and resources. Automate addresses these challenges by bringing the entire automation ecosystem together in one place. Attendees can explore a wide range of solutions and engage directly with technology providers. “There are so many questions that go through the mind of someone looking to deploy these technologies,” says Shikany. “Automate is designed to be the place where they can find those answers.”

Over the course of four days, attendees can gain insights, build connections, and, in many cases, take concrete steps toward implementation. This concentration of knowledge and expertise makes the event a valuable resource for organizations at any stage of their automation journey.

As manufacturing continues to evolve, the importance of automation will only increase. Advances in robotics and integrated systems are creating new opportunities for innovation and growth. At the same time, the challenges facing the industry, from workforce shortages to global competition, underscore the need for forward-thinking strategies. Through its leadership and events, A3 is helping to guide this transformation, providing a platform for collaboration and innovation.

Automate 2026 stands as a reflection of that mission, bringing together the technologies and ideas that are shaping the future of manufacturing. For those seeking to understand where the industry is headed, and how to be part of it, it offers a clear and compelling starting point.

The post Powering the Next Era of Manufacturing<p class="company">A3 and Automate 2026</p> appeared first on Manufacturing In Focus.

Formerly known as Pinnacle Technology Group, this Michigan-based electronics contract manufacturer has spent more than four decades building a reputation rooted in craftsmanship and customer partnership. Today, under the leadership of second-generation President Nick Wasserman, PTG is boldly reimagining its identity, operations, and future trajectory.

From humble beginnings in hand-assembled circuit boards to a sophisticated, technology-driven manufacturing enterprise serving high-reliability industries, PTG’s story reflects both the resilience and reinvention defining American manufacturing today. The company traces its roots back to 1984, when it was founded as a small electronics assembly operation in Toledo, Ohio. At the time, production relied heavily on manual labor, with technicians carefully assembling through-hole electronic components by hand.

That changed in 1996, when Nick Wasserman’s father acquired majority ownership of the company and renamed it Pinnacle Technology Group. Under family leadership, the company began charting a path toward modernization and long-term growth.

In 2001, the company acquired an Ann Arbor-based operation that specialized in surface-mount technology (SMT), significantly expanding its technical capabilities. The acquisition allowed PTG to integrate automated equipment into its processes, dramatically increasing production speed and complexity. By 2005, it became clear that continued growth required a purpose-built facility. The company secured land in Ottawa Lake, Michigan, just across the Ohio border, and constructed a modern production plant designed to support long-term scalability. In early 2006, operations consolidated into the new headquarters, setting the stage for nearly two decades of sustained expansion.

Since then, PTG has grown substantially in size, sophistication, and market reach, now operating two facilities and employing 65 team members across Michigan and Ohio.

In January 2026, Pinnacle Technology Group officially became PTG Electronics, a change driven by both strategic necessity and long-term vision. What began as a conversation about digital marketing and online visibility soon evolved into a broader reflection on brand identity. As customer engagement increasingly moved online, the leadership team recognized the importance of differentiation and searchability in an overcrowded digital marketplace.

“We were talking about how our marketing efforts were a little behind the curve,” says Wasserman. “The way business development happens today is fundamentally different; you’re not just walking into buildings anymore or relying on phone calls, you must show up digitally, and you must be visible.”

During those discussions, the leadership team confronted a recurring challenge: brand confusion. The name Pinnacle, while familiar, had become overly saturated across industries, leading to misdirected calls and marketplace ambiguity.

The result was PTG Electronics, a name that preserves the company’s heritage while instantly communicating its purpose. “At the core of it, we are an electronic contract manufacturer,” says Wasserman. “By putting ‘Electronics’ in the name, anyone coming across our business can immediately understand what industry we serve and the services we provide.”

The rebrand also symbolizes the company’s generational transition, as Wasserman leads PTG into its next chapter with renewed energy and ambition.

Today, PTG Electronics delivers fully integrated electronic manufacturing services, supporting original equipment manufacturers (OEMs) across a wide range of industries. Its capabilities span the entire production lifecycle, from printed circuit board assembly to full electromechanical box builds.

The company operates four SMT production lines along with a suite of semi-automated assembly and testing systems. These allow PTG to rapidly place, solder, inspect, and validate electronic components with exceptional consistency and accuracy.

Beyond board-level assembly, the company offers a full suite of services including programming, functional testing, environmental coating, and turnkey box builds, delivering fully assembled and shipment-ready products. This end-to-end manufacturing approach reduces complexity for customers while ensuring quality and accountability throughout every stage of production.

Equally important is PTG’s experience as an OEM of medical training products, which gives the team unique insight into customer expectations. “As a successful OEM of medical training products, we understand firsthand what clients need from their electronic manufacturing service provider,” says Wasserman. “That perspective drives our focus on quality, efficiency, attention to detail, and excellent service.”

Indeed, PTG’s evolution over the past two decades has been driven by continuous investment in technology. What began as a hand-assembly operation is now a digitally connected manufacturing ecosystem. “We didn’t even really have automated equipment when we first got going,” says Wasserman. “Now we have four SMT lines and a whole complement of semi-automated equipment for assembly, testing, and box builds.”

The company has also begun integrating artificial intelligence into its operations, starting with AI-based quoting systems that streamline pricing and accelerate response times. Future plans include deeper system integration, allowing real-time data sharing across departments and automating data entry processes. “Soon we’ll be able to pull data faster and increase accuracy significantly. It’s going to save a tremendous amount of time,” shares Wasserman. Rather than viewing automation as a threat to employment, PTG sees technology as a way to enhance human capability and improve quality.

Another cornerstone of PTG’s operational philosophy is continuous improvement, not only in processes and technology, but also in people. For the past several years, the company has partnered closely with the Michigan Manufacturing Technology Center (MMTC) to strengthen workforce training and leadership development.

MMTC supports PTG by providing access to grant opportunities and leadership development initiatives. Recent collaborations have included supervisory training and advanced problem-solving courses designed to empower frontline employees.

“We’ve sent four people in the last year to supervisory training to understand leadership qualities, how to manage people and navigate different personalities,” says Wasserman. “We also use problem-solving courses that improve quality and operational efficiency. These programs give our people tools to make better decisions and reduce risk on the plant floor.” By investing directly in employee development, PTG builds a more capable and engaged workforce, one that can adapt quickly to new technologies and evolving customer demands.

Perhaps the most defining characteristic of PTG Electronics is its unwavering commitment to partnership. Rather than transactional manufacturing relationships, the company emphasizes long-term collaboration and mutual success. “One of our core competencies is truly taking a partnership approach,” emphasizes Wasserman. “We invest in our customers as if they are an extension of our business.”

This philosophy, rooted in the company’s family ownership, guides everything from engineering support to quality assurance. PTG prioritizes long-term outcomes over short-term margins, believing that sustained success comes from consistently delivering value.

The results speak for themselves. PTG’s longest-standing customer relationship spans 28 years, while its top clients have remained loyal for more than 15 years.

“We don’t take shortcuts,” says Wasserman. “We support our customers even when it’s not the easiest thing to do, because we know that if they succeed, we succeed.”

As reshoring efforts gain momentum across the United States, PTG finds itself well-positioned to benefit from a renewed emphasis on domestic manufacturing. All its production takes place within its U.S. facilities, allowing customers to maintain tighter supply chain control while reducing risk and improving responsiveness.

“There’s been a shift back toward manufacturing things in the United States,” Wasserman explains. “We only build here in America, and we’re very proud of that.”

Looking ahead, PTG has set an ambitious goal: doubling the size of the business within the next three to five years. Central to this strategy is expansion into high-reliability sectors, particularly aerospace. The company is currently pursuing AS9100 certification, which will qualify it to manufacture electronic systems for aerospace applications. This strategic move complements PTG’s existing strengths in the medical, industrial, and advanced technology markets, further diversifying its customer base while reinforcing its reputation for quality and precision.

As PTG enters its second generation of family leadership, Wasserman is keenly aware of the balance required between honoring legacy and embracing innovation. “We never want to lose that customer-first relationship mantra,” he says. “At the same time, we need to be quicker and more open to evolution and change.”

This stance informs PTG’s approach to AI integration and operational modernization. While the company may have entered some digital initiatives later than others, its leadership is now firmly committed to staying ahead of the curve. And, alongside its technological sophistication, PTG remains deeply grounded in its family values. The company culture emphasizes respect, accountability, collaboration, and pride in craftsmanship.

With 65 employees across two facilities, headquarters in Ottawa Lake, Michigan, and a secondary site in Maumee, Ohio, PTG fosters a workplace environment where individuals are empowered to grow and innovate. That human-centric approach not only strengthens internal culture but also translates directly into customer outcomes, creating a cycle of trust, loyalty, and excellence.

As PTG Electronics charts its course forward, the company stands at the intersection of tradition and transformation. With advanced manufacturing capabilities, a growing digital presence, expanding workforce development initiatives, and a renewed brand identity, PTG is positioned to play a leading role in the future of American electronics manufacturing.

Its journey, from a modest hand-assembly shop to a technology-driven, high-reliability manufacturing partner, serves as a compelling example of how thoughtful leadership and unwavering values can shape lasting success. For Wasserman and the entire PTG team, the mission remains clear: deliver exceptional quality, build enduring partnerships, and engineer solutions that empower customers to thrive in an increasingly complex world.

The post From Hand Assembly to High-Tech Manufacturing<p class="company">PTG Electronics</p> appeared first on Manufacturing In Focus.

As Canway Equipment marks its 40^th anniversary, the milestone offers a moment to reflect not only on where the company has been, but on how it continues to adapt and innovate in an increasingly complex manufacturing landscape.

“The company was started in 1986 by two gentlemen, Paul De Vries and Adrian Hovestad, and when they started, they were primarily involved in hand trucks and ladders; that was their main focus,” says Roland Verhey, Director of Sales and Operations at Canway Equipment.

What began in a small facility has since grown into a modern manufacturing operation powered by advanced automation, precision engineering, and a deeply embedded culture of safety, quality, and customer responsiveness.

In its earliest years, the company operated from a modest location, producing equipment in small batches, often building “ones and twos” to meet immediate customer needs. By the 1990s, increasing demand and expanding product lines prompted a move to the company’s current facility, a shift that laid the groundwork for decades of sustained growth.

A significant turning point came in 2001, when the business was acquired by its current owners. The transition brought new strategic direction and operational focus, enabling the company to scale its capabilities while preserving its core values of craftsmanship and reliability.

Verhey, who joined the company five years ago, has had a front-row seat to Canway’s latest phase of expansion. He credits much of the company’s evolution to continuous improvement across both design and production. “As the volume increased, it gave us opportunity to improve on the design of many of the different components and find efficiencies,” he explains. “Once you start building 50 at a time, you can do things quite a bit more efficiently.”

This mindset, that growth should unlock smarter processes rather than simply more output, has driven many of Canway’s most transformative investments. Among the most impactful upgrades in recent years was the installation of a fully integrated powder coating line, which fundamentally reshaped Canway’s production flow.

Before the upgrade, the company relied on a wet-based enamel paint system that required large drying areas and careful handling to prevent surface damage. Products often spent up to 24 hours drying, tying up valuable floor space and introducing environmental and safety challenges. The new powder coating line changed everything. “More or less, the ladders would be hung on the line, they would get washed and rinsed and dried, painted and cured within about two hours,” Verhey says. “As the products would come off the line, we could then assemble with wheels and casters, package it up, and roll it onto a truck.”

Beyond dramatically shortening production cycles, the new line improved coating durability and reduced environmental impact. It also pushed design teams to rethink product geometry to accommodate hanging, drainage, and curing processes, a shift that elevated engineering precision across the board.

The result: a leaner, faster, safer, and more sustainable manufacturing workflow that positioned Canway for its next decade of growth.

If the powder coating line represented operational evolution, the pandemic-era supply chain crisis triggered a manufacturing revolution. Historically, Canway produced perforated ladder treads in-house, while diamond channel grating, a key ladder component, was sourced from China. When global shipping delays stretched lead times beyond a year, production bottlenecks forced leadership to rethink their dependency on offshore suppliers.

“We had containers of treads floating off the coast, waiting for availability at the port,” Verhey recalls. “During that time, it really forced us to rethink our process of importing these treads.”

The solution came in the form of a fully automated step manufacturing line, installed in 2024. The new system allows the company to produce both perforated and diamond channel treads entirely in-house, using locally sourced steel coils.

This strategic shift delivered multiple benefits: shorter lead times, improved quality control, supply chain resilience, and reduced exposure to global disruptions. It also marked a major technological leap, introducing advanced automation into a process previously dominated by aging equipment.

Today, one operator can oversee the fully automated line, producing large volumes of precision-formed treads with remarkable consistency, a powerful example of how necessity can fuel innovation.

At the heart of Canway’s business lies its core product: rolling steel ladders, which account for roughly 70 percent of production. While ladders may appear simple, Canway’s engineering approach reveals a sophisticated blend of durability and ergonomic design.

One key differentiator is the company’s fully welded construction method. Unlike bolted systems that loosen over time, Canway ladders are welded into rigid, integrated structures that arrive fully assembled. “The main thing that differentiates us in the ladder world is that we feature all welded construction,” says Verhey. “Over time, it’s a more durable ladder because there’s not all these fasteners that will slowly loosen. It’s sturdier, more rigid, and easier to install.” This design philosophy reduces on-site assembly and delivers a safer experience for end users, many of whom rely on Canway’s ladders in demanding industrial environments.

Some of Canway’s most successful products were not born in design labs, but in direct response to customer challenges. One standout example is the Safeguard Ladder, developed after a customer requested a safer platform solution that eliminated fall risk at the top of the ladder. Traditional chains and barriers proved cumbersome, so Canway engineered a double-gate system that automatically closes behind the user.

“Once you walk through the gate, it self-closes behind you. When you’re on the top platform, you’re safe, you can’t fall down the ladder section,” explains Verhey.

Originally created for a single client, the product quickly gained traction across multiple industries, ultimately becoming a full product line, a testament to the company’s customer-driven development model.

Indeed, customization lies at the core of Canway’s value proposition. Rather than forcing customers to adapt to standard equipment, the company engineers solutions around spatial constraints and safety requirements.

Cantilever ladders are a prime example. Designed for environments where obstructions prevent standard ladder placement, these models feature extended platforms balanced by counterweights at the base, enabling safe access beyond the ladder’s footprint.

Beyond ladders, Canway’s customization expertise extends into material handling solutions, including lift baskets, engineered bins, service carts, and specialty platforms. These products, too, often emerge from customer requests that reveal broader market needs, and the company’s in-house engineering and fabrication capabilities allow it to respond quickly and deliver highly tailored solutions without compromising quality or lead time.

For Canway, quality assurance is not an isolated checkpoint; it is embedded throughout the manufacturing process. Each ladder passes through multiple inspection stages, from component assembly to final packaging. Operators review parts at every station, while dedicated QA checks occur both before painting and after final assembly.

“A ladder must ensure the safety of its user,” Verhey emphasizes. “If there’s a missing weld and a tread fails, that could be catastrophic. We take quality in that sense very, very seriously.”

This rigorous approach ensures that every product leaving the facility meets stringent safety and durability standards, a non-negotiable expectation for customers in industries such as healthcare, manufacturing, construction, and energy.

Canway’s success is anchored in its people. With a workforce of approximately 40 employees, 30 in manufacturing and the remainder in engineering, sales, and administration, the company operates on a culture of transparency and long-term development. Rather than simply filling positions, Canway invests in career pathways, aiming to cultivate today’s operators into tomorrow’s leaders.

“We’re always looking at skilled labour and hiring for the future,” says Verhey. “The people we hire today, someday we want them to be lead hands and eventually leaders.” This philosophy extends into training programs and skills development, ensuring employees understand both current expectations and long-term opportunities.

As manufacturing technology evolves, Canway is embracing automation strategically—not to replace people, but to enhance efficiency and consistency. The automated step line marked a major leap forward, and future investments are already underway. Robotic welding stands out as the company’s next major frontier, offering opportunities to increase throughput while reducing physical strain on skilled welders.

In parallel, plant safety upgrades, including modern shears and press brakes equipped with light curtains, reflect Canway’s commitment to protecting its workforce through intelligent engineering. These investments signal a forward-looking mindset, positioning Canway to compete effectively in an increasingly automated global manufacturing environment.

Of course, distribution plays a pivotal role in Canway’s business model. With ladders that are large and costly to ship, the company relies on a trusted distributor network to provide nationwide reach and logistical efficiency. Rather than competing with its distributors through direct sales, Canway operates exclusively through these partnerships, a strategy rooted in trust and shared success.

Through distributor feedback, Canway also gains invaluable insights into customer needs and industry trends in real-world environments, which directly inform design improvements and product innovation.

Looking forward, Canway sees strong opportunity in expanding its material handling portfolio, particularly in service carts, dollies, and retail equipment, sectors where quality and customization remain in high demand. By leveraging its engineering capabilities and manufacturing expertise, the company aims to fill market gaps with domestically produced, high-quality solutions that outperform imported alternatives. At the same time, ongoing investments in automation and robotics will continue to enhance operational efficiency, enabling Canway to scale without sacrificing craftsmanship.

After 40 years, Canway Equipment Mfg. Inc. stands as a testament to what sustained innovation and operational discipline can achieve. From its origins in hand trucks and ladders to its present role as a technologically advanced manufacturer serving industries across Canada, the company’s journey reflects a deeper commitment to safety, quality, and solving real-world challenges.

As Canway enters its fifth decade, the mission remains unchanged: build better products and continuously raise the standard for what Canadian manufacturing can deliver.

The post Engineering the Future<p class="company">Canway Equipment</p> appeared first on Manufacturing In Focus.

By any measure, HumanWare is a company built not just on technology, but on empathy. Founded in 1988 as a small startup in Quebec, HumanWare began with a bold and deeply human mission: to create independence and accessibility for people who are blind or have low vision. Nearly four decades later, that mission continues to guide every product decision and manufacturing process, now on a global scale.

From its headquarters and production facility in Drummondville, Quebec, to research and development teams in the Montreal area, sales teams across the United States, offices in the United Kingdom, and partnerships spanning Europe, Australia, and beyond, HumanWare has grown into a global leader in assistive technology. Yet, despite its expansion and its integration into the EssilorLuxottica group, the company remains deeply rooted in the same values that shaped its earliest days: innovation, agility, quality, and above all, human impact.

Addressing real-world needs
“Everything we do is centered around independence and accessibility,” says Marc Jiona, Senior Director of Operations at HumanWare. “Our products are not conveniences; they are lifelines. People rely on them every day to work, study, navigate their environment, and live independently. That responsibility shapes everything we do.”

From its inception, HumanWare has focused on addressing the real-world challenges faced by individuals with visual impairments and sight loss. In its early years, this mission required developing solutions from the ground up, often before the necessary technology even existed. Nearly every component of a HumanWare product—tools, platforms, hardware, and software—had to be created in-house, demanding exceptional creativity and resourcefulness from the team to design, prototype, and deliver functional, reliable solutions.

That pioneering spirit remains central to the company’s DNA. While HumanWare now benefits from the resources and global reach of EssilorLuxottica, its leadership team works deliberately to preserve the agility and innovation of its startup roots.

“Our challenge today is to maintain that speed and flexibility,” says Jiona. “We want to keep moving fast, responding quickly to needs, and staying deeply connected to our users.”

This connection is more than philosophical. Roughly nine to ten percent of HumanWare’s global workforce lives with a visual impairment, including product testers and customer service representatives. Their lived experience ensures that products are not merely functional, but intuitive and practical. “They help us build better,” says Myriam Champagne, Director of Marketing. “They understand firsthand what works, what doesn’t, and what could make daily life easier.”

A different way of doing business
HumanWare’s Drummondville facility is where ideas become reality. Home to approximately 40 employees, the site houses production, quality control, technical support, and repair operations. Additional R&D teams in the Montreal area expand the company’s engineering capacity, bringing the total Quebec workforce to nearly 75. Globally, HumanWare employs approximately 150 people, supported by regional teams in the United States, United Kingdom, Australia, and Europe.

What sets the manufacturing operation apart is not just technical excellence, but emotional investment. “Every single device that leaves this building will change someone’s life,” says Jiona. “That creates pride. People here know they’re doing something meaningful,” and this sense of purpose drives exceptional attention to detail. The company’s products undergo extensive durability testing, including extreme temperature exposure and drop tests designed to reflect real-world conditions.

Even the materials are thoughtfully chosen, combining durability with easy cleanability to ensure both hygiene and lasting performance. Designs are optimized for everyday use across a wide range of environments and conditions around the world, ensuring reliability wherever the device is used. Some video magnifier models experience return rates as low as two percent, an extraordinary figure in consumer electronics, particularly in a category where products endure heavy daily use.

Emerging innovation
Among HumanWare’s most revolutionary products is the tactile and multi-line braille tablet, Monarch, a device that has fundamentally transformed access to education, information, and professional opportunity for blind individuals.

Named one of TIME Magazine’s Best Inventions of 2025, the Monarch is the world’s first multi-line tactile display capable of rendering both text and graphics in real time. “It’s like an iPad for someone who is blind—but with the ability to dynamically render tactile text and graphics in real time,” says Jiona. For blind students, this represents a monumental leap forward.

In traditional learning environments, braille textbooks can be on average ten times thicker than standard books. Locating chapters and navigating complex subjects becomes an enormous logistical burden. “The Monarch removes that barrier,” says Champagne. “Now students can scroll through digital textbooks, read equations, feel graphs, and explore maps, all in one device.”

The implications are enormous. Mathematics, geography, physics, and data-driven disciplines suddenly become far more accessible, and students no longer face delays waiting for specialized embossed materials. Learning becomes immediate and interactive.

The Monarch’s impact has been especially profound in educational settings, supported by HumanWare’s partnership with the American Printing House for the Blind (APH). Through government funding programs in the United States, eligible students can receive advanced assistive technology, ensuring that financial limitations do not restrict access.

One such student, Emma Olech, who is homeschooled, describes the impact: “I think the most beneficial part of using the Monarch is being able to easily access the tactile graphics… it is much easier than flipping through unwieldy hardcopy books.” These experiences reaffirm why HumanWare continues to invest heavily in innovation, even when product development timelines stretch over years.

Support at every step
The company’s value proposition extends well beyond hardware development, encompassing a fully integrated support ecosystem designed to optimize user performance and long-term reliability. Each product launch is supported by comprehensive technical documentation engineered for compatibility with screen-reader technologies, detailed audio-based instruction systems, and structured video-based tutorials, including guided installation and setup protocols.

These resources are reinforced by direct access to trained customer service specialists who provide real-time troubleshooting and product guidance. In parallel, HumanWare deploys dedicated field trainers to educational institutions and partner organizations to deliver hands-on demonstrations, structured onboarding, and in-situ technical support, ensuring effective deployment across diverse user environments.

“We want people to feel supported at every step,” says Champagne. “From the moment they open the box, they should feel confident.”

Of course, customer service is another pillar of the company’s philosophy. Unlike some technology companies that rely heavily on automated systems, HumanWare ensures that customers speak directly to trained professionals, many of whom are visually impaired themselves. “When someone calls, they talk to a real person,” says Jiona. “And often that person understands their challenges personally.” This approach fosters trust and a deep sense of partnership between HumanWare and its users.

A commitment to quality
Underlying every HumanWare product is a rigorously structured and continuously audited quality management system designed to meet the highest international standards. The company operates under ISO 9001:2015 certification and complies fully with the stringent requirements of the European Medical Device Regulations (MDR), ensuring consistent product quality and regulatory compliance across global markets. And in parallel, HumanWare’s designation as a Certified B Corporation reflects its commitment to responsible business practices, encompassing environmental stewardship, ethical governance, workforce wellbeing, and social impact. This commitment has also been recognized externally, most notably through its inclusion in the Forbes Accessibility 100 in Spring 2025, highlighting the company’s leadership in advancing inclusive innovation.

Collectively, these certifications and recognitions underscore not only HumanWare’s engineering and manufacturing excellence, but also its broader responsibility to operate with integrity across its entire value chain. The company’s B Corp certification underscores its commitment to balancing profit with purpose, ensuring positive outcomes for employees, customers, communities, and the planet.

In addition to its collaboration with the American Printing House for the Blind (APH), the company works closely with organizations such as the Canadian National Institute for the Blind (CNIB), the Royal National Institute of Blind People (RNIB) in the United Kingdom, Vision Australia, ONCE in Spain, and multiple United Nations–supported accessibility initiatives. These partnerships serve as continuous feedback channels, enabling HumanWare to refine product functionality, anticipate emerging user requirements, and validate new technological concepts through real-world application. “These organizations give us invaluable feedback,” says Champagne. “They help us refine products and validate new ideas.”

This structured global feedback loop ensures that HumanWare’s solutions are informed by educational and operational environments, resulting in technologies that are both globally scalable and locally relevant.

For HumanWare, three principles guide manufacturing and operations: quality, availability, and cost. Quality remains paramount, as any failure could disrupt a person’s independence, safety, or livelihood. Availability ensures that devices reach users when they need them, even during unexpected demand surges. Cost, meanwhile, remains an ongoing challenge in a niche market. With relatively low production volumes compared to consumer electronics, maintaining affordability requires continuous optimization without sacrificing quality. “We work extremely hard to keep costs as low as possible,” says Jiona. “Accessibility must include affordability.”

As wearable technology and artificial intelligence continue to advance, HumanWare is positioning itself at the forefront of the next generation of accessibility solutions. Through its integration with EssilorLuxottica, the company collaborates closely with teams developing smart eyewear, including Ray-Ban Meta glasses, to explore new ways to combine hardware, AI, audio, and spatial awareness into seamless assistive tools.

And beyond education and employment, HumanWare devices also dramatically improve daily living for individuals with age-related vision loss. One veteran in the United Kingdom, living with wet age-related macular degeneration (AMD) while awaiting cataract surgery, described his experience using HumanWare’s Explore 12 video magnifier:

“As a wet AMD patient awaiting cataract surgery, optical magnifiers were of little use to me. However, after trying the Explore 12, I was amazed at what I could read compared to prescription glasses alone. The white-on-black feature is my favourite because it soothes the effects of my photophobia, and I love the device’s ease of use and portability. It makes my life 1000 times better.”

For many users, HumanWare technology restores confidence and independence, allowing them to continue living at home, working, and engaging socially. Rather than offering a single solution, HumanWare envisions a modular ecosystem: portable magnifiers, tactile displays, wearable navigation aids, AI-powered reading tools, and smart glasses that work together. “There is no one-size-fits-all,” explains Champagne. “People want options. They want technology that adapts to their lifestyle.”

Powered by purpose
Ask HumanWare employees what motivates them, and a common theme emerges: purpose. “The mission is powerful,” says Jiona. “It gives meaning to everything we do.” From engineers and assemblers to marketers and service technicians, the team understands that their work has real-world consequences, and this shared sense of impact creates deep loyalty and pride.

“It’s not just manufacturing,” Champagne adds. “It’s about leveling the playing field, from early childhood education to career development and aging with independence.”

In an evolving technological landscape, HumanWare remains firmly focused on human-centered innovation. Artificial intelligence, smart wearables, real-time tactile displays, and multi-sensory interfaces will increasingly converge, opening new possibilities for accessibility. Yet, amid this rapid change, HumanWare remains grounded in a simple philosophy: “Technology should serve humanity,” says Champagne. “Not the other way around.”

From a small Quebec startup to a global leader in accessibility innovation, HumanWare continues to redefine what inclusive manufacturing can achieve, proving that when engineering meets empathy, extraordinary things happen.

The post Engineering Accessibility and Independence<p class="company">HumanWare</p> appeared first on Manufacturing In Focus.

Stronix positions itself at the intersection of engineering, manufacturing, and supply chain support to help original equipment manufacturers (OEMs) meet those demands. The company works with equipment manufacturers from the earliest design stages through prototyping and production, delivering engineered components that improve performance, safety, and compliance.

With roots in the mining sector and a growing focus on broader heavy-duty markets, Stronix brings a collaborative approach to product development. Its team works closely with OEM partners to solve engineering challenges while providing the manufacturing capabilities required to turn concepts into production-ready components.

Mining environments demand durable equipment capable of operating under exposure to extreme temperatures and challenging terrain. Over time, the team behind Stronix develops specialized knowledge in designing components that meet those requirements.

That expertise forms the foundation for the company’s current business model. Rather than focusing exclusively on mining operations, Stronix works directly with OEMs that manufacture heavy-duty machinery across several industries.

“We realized that the solutions we provide can benefit more than mining,” Aleeya Laureola, Marketing Manager at Stronix, explains. “If we work with the companies that actually manufacture the machines and help them enhance their products, it improves the industry overall.”

Today, Stronix partners with OEMs producing equipment used in mining, forestry, agriculture, and power generation, industries where durability and operational reliability remain critical.

One of the primary advantages Stronix offers its clients is the ability to address multiple engineering challenges through a single partner. In many cases, OEM engineering teams must coordinate with several different suppliers to redesign or improve components such as exhaust systems or thermal insulation blankets, and that process can add complexity and slow product development timelines.

Instead of working with multiple vendors, an OEM can collaborate directly with Stronix to address several design requirements simultaneously. From there, the company works alongside the OEM to develop an integrated solution. That collaboration often begins long before physical prototypes are built.

Stronix engineers frequently engage with customers during the early design phase, reviewing concepts and refining designs through detailed discussions and simulations. By addressing potential challenges early, Stronix helps OEM partners shorten their development cycles while minimizing costly revisions later in the process.

The company’s production environment reflects the customized nature of its work. Unlike facilities dedicated to high-volume manufacturing of identical parts, Stronix operates in a high-mix environment where many components are tailored to specific applications.

A typical project begins with a detailed understanding of the customer’s needs and operating conditions. From there, engineers develop designs and production teams prepare specialized tooling, such as jigs, to ensure consistent fabrication and assembly. The manufacturing floor includes several specialized workstations supporting key processes such as fabrication, welding, thermal blanket production, and product testing.

Throughout production, communication with the client remains a central part of the workflow. “We test, we update them at every stage, and we show them how the component looks as it moves through fabrication,” Laureola explains. “That way they are involved throughout the process rather than only seeing the final product.” This approach allows feedback to be incorporated in real time, helping to reduce delays and improving the overall efficiency of product development.

In heavy-duty applications, component failure can have serious consequences for both safety and productivity, and as a result, quality assurance remains a critical part of Stronix’s manufacturing philosophy. According to Laureola, quality begins with ensuring that the engineering and production teams fully understand the purpose behind each design. “Quality starts with understanding the ‘why’ behind what we are doing,” she says.

Many members of the Stronix team bring firsthand experience working in heavy-duty environments, and that practical perspective informs the design and manufacturing process. When engineers and technicians understand the conditions a component will face in the field, they are better positioned to identify potential improvements during production.

Automation also plays an important role in maintaining consistency, and Stronix incorporates robotic welding where possible to ensure reliable weld quality across components. The company also conducts pressure testing to verify the integrity of exhaust systems and other assemblies. Before a product leaves the facility, detailed inspections, including photographic documentation, confirm that it meets both internal quality standards and customer expectations.

Stronix works with OEMs throughout the entire lifecycle of product development. That process typically begins with collaborative engineering discussions, followed by design refinement and prototype development. Once a prototype is approved, the company can support low-volume production runs before scaling manufacturing to meet broader demand.

Low minimum order quantities (MOQs) are an important part of this process. Many manufacturers require customers to commit to large production orders even during early testing phases, but Stronix takes a more flexible approach that allows OEM partners to validate designs before committing to full-scale manufacturing. “We are happy to work with OEMs to test prototypes in the field before moving to larger volumes,” Laureola says. This flexibility helps customers refine designs based on real-world performance while minimizing financial risk.

While Stronix built its early expertise in the mining sector, the company now sees significant opportunity in other heavy-duty industries, with forestry and power generation representing key areas of growth. Each of these sectors relies on machinery that must perform reliably under demanding conditions, making them natural extensions of the company’s engineering capabilities.

One area where Stronix hopes to expand awareness is sound attenuation. In regions such as Australia, noise regulation already plays an important role in mining operations, particularly when sites operate near residential communities. Through its experience in those markets, Stronix can develop solutions that reduce machine noise while maintaining performance.

Although noise regulation is less prominent in North America, Laureola believes the issue deserves greater attention. “Noise fatigue is real,” she says. “Reducing noise improves safety and communication among workers.” By introducing these solutions to North American OEMs, Stronix hopes to encourage manufacturers to address noise reduction proactively rather than waiting for regulatory requirements.

Of course, environmental regulations also continue to shape the design of heavy-duty equipment, and to this end, Stronix specializes in exhaust systems and after-treatment technologies that help OEMs meet increasingly stringent emissions standards. For instance, modern machinery must comply with standards such as Tier 4 and Stage V emissions requirements. However, many manufacturers still operate or maintain equipment originally designed under earlier regulatory frameworks. The company helps bridge that gap by integrating updated emission systems into existing designs. “We can work with existing machinery drawings and incorporate modern after-treatment systems,” Laureola explains. By upgrading older equipment designs rather than replacing them entirely, manufacturers can extend the lifespan of existing product lines while meeting current environmental standards.

In addition to custom engineering work, Stronix also provides contract manufacturing services for OEM customers. If a manufacturer encounters supply chain disruptions or production delays with existing suppliers, Stronix can step in to produce components based on the customer’s drawings. This flexibility allows OEMs to maintain production schedules even when unexpected challenges arise.

The company also offers consignment stocking arrangements that allow Stronix to hold inventory on behalf of customers. These arrangements help OEMs manage space limitations and respond quickly to fluctuations in demand. “As a diversified supplier, we can help customers reduce risk by being another reliable option,” Laureola says.

Two areas where Stronix especially stands out are metal fabrication for exhaust systems and the design of thermal protection solutions. The company produces large-diameter exhaust pipes and complex metal components used in heavy-duty equipment. These systems often require intricate engineering to maintain airflow efficiency while accommodating the physical constraints of the machinery. In some cases, redesigning an exhaust system involves repositioning the entire assembly.

In addition to metal fabrication, Stronix manufactures thermal covers and engine wraps designed to manage heat within heavy-duty equipment. These thermal blankets help protect surrounding components, reduce fire risk, and prevent burns for operators and maintenance personnel. By tailoring materials and designs to specific machines, Stronix can ensure the thermal protection systems perform reliably under demanding operating conditions.

For all the technical complexity of its work, Stronix emphasizes the importance of relationships. Working closely with OEM engineers, product managers, and production teams helps build trust and ensure that solutions align with real-world operational needs, a collaborative mindset that proves particularly valuable in industries where equipment designs are complex and highly specialized.

Stronix’s internal culture also reflects the collaborative approach the team brings to customer relationships. The company operates around four core values: responsiveness, ensuring customers receive timely support throughout the development process; quality first, maintaining strict standards for design and manufacturing; drive, pushing the organization to continuously improve its capabilities; and transparency, helping build trust with customers and partners. Together, these principles guide both day-to-day operations and long-term strategy.

As the heavy-duty equipment industry evolves, manufacturers face increasing pressure to balance performance, safety, and environmental responsibility, and Stronix aims to support that transition by continuing to invest in engineering expertise and automation technologies that enhance responsiveness and scalability. Moving forward, the company also plans to strengthen its presence across industries where durable equipment and custom engineering solutions are essential.

For Laureola, the opportunity lies in helping OEM partners tackle complex challenges while delivering practical solutions that perform reliably in the field. “We are not focused on building parts in massive volume,” she says. “Our focus is on supporting complex applications where customization, durability, and engineering input really matter.”

By combining robust technical knowledge with collaborative development and flexible manufacturing, Stronix continues to position itself as a strategic partner for OEMs navigating the demanding world of heavy-duty machinery.

The post Supporting OEMs from Design to Production<p class="company">Stronix</p> appeared first on Manufacturing In Focus.

Founded in 1996, Columbia/Okura emerged from a deliberate partnership between two fourth-generation, family-owned companies: Columbia Machine of Vancouver, Washington, and Okura Yusoki of Kakogawa, Japan. At the time, robotic palletizing was just beginning to gain traction in North America. Columbia Machine had decades of experience with conventional palletizers, while Okura Yusoki had developed an articulated robotic arm designed specifically for palletizing. The joint venture was created to unite those strengths and bring purpose-built robotic palletizing to a market that was just beginning to understand its potential.

“The joint venture was formed in 1996,” says Michael Stuyvesant, Director of Sales and Marketing at Columbia/Okura. “It was a combining of two now-fourth-generation family-owned companies, and the values and the relationship made for a strong foundation.” That foundation was technical, but also cultural. Okura’s four-axis robotic arm was designed solely for palletizing, a distinction that set it apart from general-purpose industrial robots adapted for end-of-line use.

For Columbia, the partnership provided a path into robotic automation without losing sight of its deep understanding of palletizing applications. For Okura Yusoki, it created an entry point into the North American market through a trusted, established partner.

From the outset, Columbia/Okura was not trying to be everything to everyone. The company’s focus was clear: end-of-line automation, with palletizing at the core. Over time, however, what that focus meant in practice expanded significantly. In its early years, Columbia/Okura systems were typically single-line, stack-on-floor robotic palletizing cells primarily in agriculture. Over the past three decades, those systems have evolved into fully integrated end-of-line solutions that extend well beyond palletizing and into a wider range of industries including industrial products, food and beverage, and pharmaceuticals.

Today, Columbia/Okura designs and delivers systems that integrate conveyors, sortation, product validation, stretch wrapping, bagging equipment, and increasingly, autonomous material movement. “We started with just simple stack-on-floor robotic palletizing systems,” Stuyvesant explains. “Those have evolved into complete, fully integrated systems where we’re tying in with other pieces of automation equipment and automating the process all the way through the end of production.”

That evolution reflects broader changes across manufacturing. As labor availability tightened, product variation increased, and expectations around uptime and safety grew more stringent, customers began looking for solutions that could do more than simply stack product. They needed systems that could adapt, communicate upstream and downstream, and operate reliably over decades rather than years.

Columbia/Okura responded by strengthening its role as a systems integrator while maintaining a disciplined scope; this evolution is most visible in the launch of the dynaPAL^® product line, the company’s industrial robotic solutions. Rather than branching into unrelated automation domains, the company focused on complementary technologies that directly support end-of-line performance. A key milestone in that expansion came in 2017, when Columbia/Okura formed a partnership with STATEC BINDER to supply bagging equipment in the United States. For a company whose early growth was rooted in bag palletizing, the ability to integrate bagging upstream created new value for customers seeking a single partner from fill to pallet.

At the same time, advances in robotics were opening new opportunities at the other end of the spectrum. In 2019, Columbia/Okura introduced its miniPAL^® system, which uses a collaborative robot rather than a traditional industrial arm. Designed for lighter products, lower production rates, and smaller footprints, miniPAL^® allowed the company to bring robotic palletizing into environments that previously could not justify the space, guarding, or cost of conventional systems.

“What collaborative means is it’s a robot that’s designed to work in collaboration with humans,” Stuyvesant explains. “You don’t necessarily have the big physical guards, and operators can interact with the process without stopping everything.”

This approach reflects a broader shift in manufacturing automation, where flexibility and human-machine collaboration are becoming just as important as throughput. Columbia/Okura’s systems now regularly integrate collaborative robots, industrial robots, autonomous mobile robots, and automated guided vehicles into unified end-of-line architectures. In many installations, mobile robots have replaced fixed conveyors, allowing pallet movement between palletizing cells and warehouses to adapt dynamically as production needs change.

As systems have grown more complex, safety has remained a constant priority—not only a regulatory requirement for Columbia/Okura, but one of the company’s core values, alongside flexibility, integrity, reliability, and accountability. That emphasis is reflected in both system design and internal culture.

All Columbia/Okura systems are built to meet or exceed applicable A3, OSHA, and ISO standards, with Category 3 compliance as a baseline. Each system undergoes a formal risk assessment, and customers are encouraged to conduct site-specific assessments to ensure proper integration within their facilities. Physical guarding, Electro-Sensitive Protective Equipment (ESPE), and trap-key systems are designed to prevent access to energized equipment, while newer technologies such as radar-assisted safety monitoring enhance protection in collaborative environments.

On systems like miniPAL^®, safety scanners detect intrusion into defined zones while radar technology assesses the surrounding area before allowing the system to return to full operational speed. These layered safeguards are designed not only to meet standards, but to support real-world use cases where operators and automation must coexist efficiently.

Beyond technology, safety is reinforced through organizational structure and accountability. With just over 80 employees in the joint venture, Columbia/Okura operates as a tightly connected organization spanning marketing, sales, applications engineering, mechanical and controls engineering, manufacturing, supply chain, and service. The company’s service team supports a large installed base with 24/7 availability, ensuring that customers are not left to manage issues alone once systems are commissioned.

That long-term commitment is one reason many Columbia/Okura customers return time and time again. Some relationships date back to the company’s earliest installations, including a robotic palletizer sold and installed in 1996 that remained in operation until 2019. When the original system was finally replaced, the customer returned to Columbia/Okura for its next generation of automation.

“Our systems are in place for decades,” Stuyvesant notes. “That doesn’t happen if we’re not partnered with the customer throughout their journey.”

Partnership, in this context, goes beyond equipment delivery. Columbia/Okura offers structured ramp-up programs for new customers, ongoing training, and responsive service to support facilities as their production needs evolve. While repeat customers still account for a significant portion of business, the venture has also expanded into new industries and applications as its technology portfolio has grown.

Internally, Columbia/Okura prioritizes long-term investment in its people, a commitment reflected in an average employee tenure of 10 years and a tuition reimbursement program that facilitates career growth from shop floor roles to engineering and applications positions. This emphasis on stability and professional development is reinforced by a culture of transparency and open communication. By pairing an open-door management approach with these growth opportunities, the company maintains a workplace environment built on mutual trust, accountability, and a clear strategic direction.

Nicholas Shiraishi, Marketing Coordinator at Columbia/Okura, highlights the company’s commitment to workforce development beyond its own walls. “We support FIRST^® robotics programs,” he says. “It’s an organization that introduces kids to robotics early, and we sponsor several local teams.”

Through its involvement with FIRST^® and participation in industry programs such as The PMMI U Skills Fund, Columbia/Okura contributes to the development of future manufacturing and automation talent. Charitable donations made through these programs are often matched, extending the company’s impact within the broader community.

As manufacturing continues to evolve, Columbia/Okura faces many of the same challenges as its customers. Packaging materials are changing, product variability is increasing, and sustainability expectations are becoming more complex. While the company does not position itself as a sustainability solutions provider, it takes steps to minimize waste in its own operations, returning test product where possible, supporting donations, and avoiding unnecessary landfill disposal.

Ultimately, Columbia/Okura’s value proposition rests on clarity of purpose. Rather than chasing every emerging trend, the company continues to refine what it does best: designing and delivering safe, reliable, future-ready end-of-line automation systems. “We’re more than just an automation provider,” Stuyvesant says. “We’re a trusted partner dedicated to transforming businesses through safe, reliable, and innovative end-of-line solutions.”

As the company approaches its 30^th anniversary, that message carries weight. Three decades of operation in industrial automation is not simply a measure of longevity, but of relevance. Columbia/Okura’s history reflects an ability to adapt without losing focus, to integrate new technologies without abandoning core principles, and to build systems and relationships designed to last.

With a growing portfolio of integrated solutions, a strong culture of safety and accountability, and a proven record of customer trust, Columbia/Okura enters its fourth decade positioned not as a legacy brand, but as an active participant in the next phase of manufacturing automation.

The post Engineering the End of the Line: 30 Years of Purpose-Driven Automation<p class="company">Columbia/Okura</p> appeared first on Manufacturing In Focus.

Today, with approximately 50 employees across multiple California locations, Zemarc is using its anniversary not as a retrospective moment, but as a forward-looking platform. The company is expanding geographically, reshaping how engineering knowledge is developed and transferred, and responding to market volatility with faster, more flexible system design.

Zemarc’s 50^th anniversary will officially arrive in October 2026, with celebrations planned throughout the year. Internally, the milestone is being marked not by a single event, but by recognition of employee tenure, honoring team members with five, 10, 20, and even 30-plus years at the company. That focus reflects a core principle that has remained consistent since the company’s founding: Zemarc is, by design, an employee-first organization.

That philosophy has shaped not only how the company retains talent, but how it adapts during periods of economic instability. Manufacturing has faced extended lead times, shifting tariffs, supply chain disruptions, and unpredictable customer demand over the last several years, and Zemarc’s response has been to strengthen internal collaboration and decision-making rather than centralize authority at the top.

Employee-driven leadership structures now play a formal role in shaping the company’s direction. Two internal employee resource groups, the Customer Success Team and the Internal Resource Committee, serve as cross-departmental bodies that help leadership prioritize operational improvements and customer experience challenges. Rather than relying on a single executive viewpoint, Zemarc uses these committees to uncover issues early and align teams across locations. This bottom-up approach has become increasingly important as the company grows and diversifies its customer base, particularly in technically demanding sectors such as aerospace and space launch.

One of the most defining shifts in Zemarc’s evolution has been the deliberate build-out of a specialized engineering team focused on advanced applications. While the company supports a wide range of industries, aerospace has become a major driver of its technical development strategy.

Elizabeth Meyer, Principal Systems Engineer, describes aerospace engineering as fundamentally different from many traditional fluid power projects. Unlike repeatable industrial systems, aerospace and space launch applications often involve unfamiliar fluids, extreme temperatures, unique materials, and unconventional operating conditions. Engineers must adapt quickly and work directly with customers who may not be fluent in fluid power terminology.

“When you’re working with these newer space launch companies, it’s really important to be willing to try new things and push the boundaries of your knowledge,” Meyer says. “You can’t just fall into the same routine.”

Fluid power itself is a broad umbrella, encompassing hydraulics, pneumatics, and process gases. While these systems share common valving and control principles, each application introduces distinct engineering considerations. Zemarc’s engineering group spends significant time translating between customer language and system requirements, often educating client engineering teams along the way.

That educational role has become a competitive advantage, particularly as fluid power remains underrepresented in formal engineering curricula. Meyer notes that many engineers entering the workforce have little exposure to fluid power concepts unless they come from specialized programs or agricultural engineering backgrounds.

Zemarc’s engineering team is notable not only for its technical focus, but for its composition. The current engineering group is entirely women, a rarity in the fluid power and manufacturing sectors. Over the past year, the company added two new engineers, strengthening both its systems engineering and sales engineering capabilities.

The visibility of women in hands-on engineering roles has also influenced the company’s approach to internships and early-career development. Zemarc actively supports engineering internships, many of which have transitioned into full-time roles, and Meyer views these programs as essential to addressing the industry’s looming knowledge gap. “For engineering, some of these internships have led to jobs in the company,” she says. “Internships are incredibly important for getting this next wave of engineers.”

As veteran engineers across the industry retire, the loss of undocumented tribal knowledge has become a growing concern, and Zemarc has responded by investing in internal education and documentation efforts designed to capture experiential knowledge before it disappears.

One of Zemarc’s most influential initiatives is its Hydraulics 101 program, developed as both an internal training platform and an external educational offering for customers. Rather than focusing on individual products, the program emphasizes system-level thinking, how components interact, how applications drive design decisions, and how modern fluid power solutions differ from legacy systems.

Internally, the program supports continuous education across departments, helping sales and engineering teams align on application knowledge. Externally, it serves as both a customer education tool and a recruiting pipeline, attracting individuals interested in entering the fluid power field. “We realized this wasn’t just important for Zemarc; it was important for the industry,” says Lucy Chen, Director of Marketing.

The program also plays a role in correcting misconceptions about fluid power, particularly in comparison to electric systems. While electrification continues to grow, Meyer notes that hydraulics still excel in applications requiring high force, precise control, and durability in harsh environments. This educational emphasis has become increasingly relevant as Zemarc works with aerospace testing facilities in regions such as Mojave, where hydraulic systems are integral to test stands and validation environments.

Zemarc’s newest growth initiative, the opening of a ParkerStore™ in Lancaster, California, represents a targeted expansion aligned with industry geography rather than simple footprint growth. The Lancaster–Palmdale–Mojave corridor has become a hub for aerospace manufacturing, testing, and space launch operations, creating demand for rapid, localized service.

Leading the new facility is Branch Manager Jannett Andrade, who describes the Lancaster location as fundamentally different from a traditional branch. “We’re targeting to open Q1 of 2026, with an open house and a full team blitz,” Andrade says. “One of our main goals is to establish ourselves in the Palmdale–Lancaster area as a ParkerStore.”

The 5,000-square-foot facility is being built to function as both a warehouse and a storefront, complete with a showroom and point-of-sale system. The goal is to encourage foot traffic while showcasing not only Parker products, but Zemarc’s broader hydraulic and pneumatic offerings.

Opening a ParkerStore is not a routine expansion; it reflects a level of trust from the manufacturer, which grants Zemarc responsibility for the territory. Chen emphasizes that the decision was made collaboratively with Parker based on Zemarc’s track record of technical capability, investment, and customer engagement.

One of the Lancaster facility’s primary value propositions is speed. The store is being equipped with hose assembly and cleaning capabilities, supported by dedicated inventory to enable rapid turnaround. “We already have a crimper on site, and that’s going to be one of our biggest value-add services,” Andrade says. “We’re investing in inventory so we can assemble hose assemblies quickly and keep customers moving.”

The location is designed to serve customers who “needed things yesterday,” particularly in aerospace ground support, testing operations near Mojave, general manufacturing, equipment rental yards, and municipal service providers such as street sweeper fleets.

In addition to reactive service, the Lancaster team will emphasize preventive maintenance, a critical but often overlooked component of operational reliability. Zemarc will offer free on-site inspections, helping customers avoid costly downtime. “If you don’t maintain your system, it’s going to get very expensive,” Andrade says. “You end up down for a month or two waiting for a part you could have pre-ordered if you had seen the issue coming.”

Certainly, the company’s ability to deliver under pressure has been reinforced by strategic vendor relationships, particularly with U.S.-based manufacturers capable of customization and fast turnaround. One such partner is DMIC, a valve and manifold manufacturer that has supported Zemarc through periods of extreme supply chain disruption.

From an engineering standpoint, DMIC’s flexibility has been critical. Meyer highlights their willingness to machine customized manifolds and specialty valves, capabilities that are often difficult to secure from larger, more rigid manufacturers. “Being able to quickly customize something to fit customer specs has been really helpful,” she says, particularly in space launch applications involving unusual gases, temperatures, or materials.

Chen adds that DMIC’s responsiveness during tariff fluctuations and pandemic-era shipping delays provided stability when lead times elsewhere became unpredictable. The manufacturer also pursued additional certifications at Zemarc’s request, supporting applications in process gas and biomedical environments that require stringent cleanliness standards. These partnerships enable Zemarc to offer alternatives when a single supplier cannot meet customer needs, an increasingly important capability as manufacturers hedge against uncertainty.

Another major evolution at Zemarc has been the development of its Zemarc Power Unit (ZPU) program. Introduced two years ago, the program was designed to address a growing demand for fast-delivery hydraulic power units without sacrificing customization. Initially, adoption was gradual; over the past year, however, interest has surged. Meyer notes that Zemarc has completed more power unit projects in the last year than in the previous five combined, driven largely by customers who need systems quickly and are willing to collaborate on specifications to reduce lead times.

Traditional aerospace customers often require highly specific designs, while space launch companies prioritize speed and adaptability, and Zemarc works with both, helping customers understand where compromises can accelerate delivery without undermining performance. “We’ve been able to find happy mediums with them,” Meyer explains, enabling faster deployment while maintaining quality.

The ZPU program is supported by strategic inventory decisions at Zemarc’s Fresno facility, where commonly used components are stocked to enable rapid assembly. This approach reflects a broader shift toward responsiveness as a competitive advantage in manufacturing.

While sustainability is not positioned as a headline initiative, it increasingly factors into Zemarc’s engineering decisions, particularly through system footprint reduction and fluid selection. Custom manifolds, for example, allow engineers to consolidate components and improve energy efficiency over a system’s lifecycle. Meyer also points to a growing push for more environmentally sustainable hydraulic fluids, especially in coastal and water-adjacent applications such as space launch sites. These fluids can reduce environmental impact in the event of a spill but often introduce tradeoffs related to cost, viscosity, temperature sensitivity, and wear characteristics.

Rather than promoting one-size-fits-all solutions, Zemarc’s role is to educate customers on these tradeoffs and help them select fluids and system designs appropriate to their operating conditions.

Despite widespread enthusiasm for artificial intelligence across manufacturing, both Meyer and Chen are candid about its current limitations in fluid power engineering. The issue is not resistance to technology, but the lack of reliable data; much of fluid power knowledge exists as undocumented experience rather than published material, and existing textbooks are often decades old and fail to account for modern electrohydraulic and integration practices. AI tools, drawing from outdated or incomplete sources, struggle to distinguish between civil engineering hydraulics and mechanical fluid power applications. This reality reinforces Zemarc’s emphasis on documentation, internal education, and direct mentorship as the primary means of advancing expertise.

As the company enters its sixth decade, its strategy is defined less by scale than by depth. The Lancaster expansion, ZPU program, and educational initiatives all reflect a common theme: moving faster without losing rigor.

For Meyer, the most encouraging shift is the growing industry-wide recognition of the knowledge gap and the need to address it proactively. “We’re starting to see companies worry more about the long term,” she observes.

Zemarc’s approach suggests that the future of manufacturing will not be driven solely by automation or digital tools, but by organizations willing to invest in people and the difficult work of translating experience into shared knowledge. At 50, Zemarc is not simply reflecting on where it has been but actively shaping where fluid power goes next.

The post A Technology-led Approach to Serving Modern Manufacturing<p class="company">Zemarc Corporation</p> appeared first on Manufacturing In Focus.

For manufacturers, this means preparing for transformation that will touch every aspect of production, from design and automation to workforce training and logistics.

Headsets and smart glasses are two forms of tech that have had a turbulent history. Early virtual and augmented reality products were bulky, expensive, and often underwhelming. But two converging forces are about to change that: a rapidly growing extended reality (XR) market and a new generation of devices that blend improved optics, spatial computing software, and powerful miniaturized hardware.

Apple’s Vision Pro and upcoming products from Meta, Google, and others signal the arrival of spatial computing where digital layers like navigation cues, productivity tools, and real-time data overlays become seamlessly integrated into our field of view. Market analysts predict that the XR market will expand significantly over the rest of the decade, including for industrial use-cases.

Component-level advances such as micro-OLED displays, more efficient processors, and higher battery density are making smart eyewear practical for longer-term use. In manufacturing environments, this technology is already proving valuable for tasks like remote maintenance, assembly training, and real-time visualization of production data.

For example, a technician wearing AR glasses could see step-by-step repair instructions overlaid on the machine in front of them while an off-site engineer supervises through a shared video feed. These use-cases reduce downtime, minimize travel costs and enhance worker safety, all outcomes that directly affect the bottom line.

In the next five years, expect a bifurcated market: premium spatial computers for professionals and creators, and lightweight, internet-connected smart glasses for more widespread use. Industrial and enterprise sectors will win first, leveraging XR to train employees, streamline operations, and visualize complex systems in real time. Consumer adoption will follow gradually as devices become more affordable and applications broaden beyond niche experiences.

For manufacturing firms, adopting XR today is not just about novelty; it’s about embedding digital-physical workflows, creating new training paradigms, and gaining access to real-time context in service and assembly tasks.

If 2023 was the year the world discovered generative AI, the next five years will be about turning that discovery into everyday business reality. Models that generate text, images, and code have moved from curiosity to core productivity tools in record time. Across sectors, organizations are embedding AI assistants into workflows for drafting reports, generating code snippets, and summarizing complex datasets in seconds. For manufacturing, that means spreadsheets, maintenance logs, and service workflows being automated and optimized.

What’s next is a shift from single purpose chatbots to autonomous, multi-step agents. These systems won’t just respond to prompts; they’ll plan and execute tasks, integrate with enterprise data, and collaborate across platforms. In manufacturing, that means AI systems capable of analyzing production data, predicting supply chain disruptions, and autonomously adjusting schedules or procurement plans.

Data supports that momentum: one McKinsey survey finds that 16 percent of C-suite respondents expect employees to start using generative AI for more than 30 percent of their daily tasks within less than a year. Meanwhile, a recent Smart Industry report states that depending on region, adoption has surged from 59 percent to 86 percent of manufacturers prioritizing AI. In terms of impact, adoption in industrial processing plants has shown operators reporting a 10 to 15 percent increase in production and a 4 to 5 percent EBITA (Earnings Before Interest, Taxes, and Amortization) uplift when applying AI into operations.

For manufacturers, the key is recognizing that AI is moving from generating ideas to executing actions. Digital systems that optimize supply chains, drive predictive maintenance, and automate service workflows will shift the competitive landscape. Early adopters should prioritize pilot programs and workflow integration, alongside pressing needs around safety and human-in-the-loop oversight.

Within five years, expect to see hybrid classical–quantum workflows delivering early advantages in specialized applications, particularly in materials science, chemistry, and optimization problems. For manufacturers, that could mean simulating new alloys or polymers at the molecular level, drastically shortening R&D cycles and unlocking bespoke materials that were previously too costly or time-consuming to trial.

The technology won’t replace traditional computing anytime soon, but it will complement it in areas where classical systems struggle. Parallel progress in quantum-safe cryptography is equally important, as governments and corporations prepare for a world where today’s encryption could be broken. Enterprises are already investing in readiness planning, ensuring that proprietary manufacturing data, supply-chain information, and IoT systems will remain secure in a post-quantum world. The next half-decade is about proof of concept turning into early practicality; businesses that experiment now will have a clear competitive edge when scalable quantum computing becomes available.

Brain–computer interface (BCI) research has also accelerated rapidly, moving from animal testing to human trials in just a few years. Companies such as Neuralink and Synchron, alongside major academic research centres, are developing both semi-invasive and non-invasive systems that enable direct communication between brain and machines. While consumer-grade “mind-control” headsets for gaming or remote work remain a long-term goal, therapeutic applications are moving much faster.

Initial applications focus on healthcare: helping paralyzed patients control cursors, prosthetic limbs, or communication devices purely by thought. These are not futuristic fantasies; they’re in clinical trial today. Over the next five years, BCIs are expected to expand in therapeutic settings, offering new possibilities for stroke rehabilitation and assistive communication.

For manufacturers in the medical technology and materials sectors, this presents a significant opportunity. Producing miniaturized biocompatible sensors, implant materials, and precision instruments for BCI systems demands advanced manufacturing expertise, an area where industrial firms can lead innovation. While mass-market consumer BCIs may lie beyond the five-year horizon, the initial value lies in medical and assistive devices where regulatory pathways exist, and the societal value is clear.

Few technologies will affect the manufacturing ecosystem as deeply as energy storage. Solid-state batteries, long considered the “holy grail” of electrification, are edging closer to commercialization. They promise higher energy density, improved safety, and much faster charging, attributes that could transform not just electric vehicles but also industrial robotics, drones, and portable electronics.

Major players such as Toyota, Samsung SDI, and BYD have publicised development plans targeting commercial production in the late 2020s. For instance, Interact Analysis projects that mass production of solid-state batteries will begin around 2026.

For manufacturers, this transition represents both opportunity and disruption. Supply chains, material requirements, and production methods will all evolve as solid-state cells start to replace today’s lithium-ion standards. Factories will need to adapt to new safety protocols, cleaner environments, and precise assembly methods that accommodate the unique properties of solid electrolytes. Early adopters that master this production shift could capture significant market share as electrification scales across industries.

Of course, the concept of flying cars has long been dismissed as futuristic fiction, but electric vertical take-off and landing aircraft (eVTOLs) are rapidly changing that narrative. Companies such as Joby Aviation, Archer, and Lilium have successfully tested aircraft capable of carrying passengers over short urban routes. While we won’t see private flying sedans parked in driveways anytime soon, urban air mobility is poised to debut as an airport shuttle or premium city-to-city service within the next five years.

Battery improvements and distributed electric propulsion have made short-range eVTOLs viable, while governments and city planners are developing frameworks for air traffic management, charging infrastructure, and noise regulation. For manufacturers, this represents an entirely new vertical, combining aerospace precision with automotive-scale production techniques. By 2030, limited commercial eVTOL operations could be a reality in select cities, marking the dawn of a new transportation era built on lightweight materials, advanced batteries, and automated control systems, all products of manufacturing innovation.

These technologies all share a defining trait: they’re no longer theoretical. Each is now in an active phase of commercialization, and manufacturers stand at the centre of this transformation.

We are on the edge of a decade where science fiction steadily becomes engineering fact. The intersection of physical production and digital intelligence will redefine not just what we manufacture but how we manufacture. From smart glasses guiding technicians to AI systems predicting failures before they happen, and from quantum computers designing next-generation materials to solid-state batteries powering electric fleets, the next five years will belong to the innovators who see what’s just around the corner and start building for it today.

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Today, Avon Food Company operates with two clear identities: a steward of beloved, multi-generational consumer sauce brands including Christie’s Salad Dressing, Porino’s Pasta Sauce, Medallion Teriyaki Sauce, and Javin Curry Powder; and a respected co-packer known for helping emerging and established brands alike scale with care.

Behind that dual mission is the Anastos family, led by second-generation leadership and proudly women owned. But perhaps most importantly, Avon Food Company’s story is still being written through continual reinvestment in advanced equipment, sustainability-centered processes, collaborative culture, and ahead-of-trend product development. The result is a business that honors where it came from while confidently charting a future all its own.

Many customers still associate Christie’s with its original family founders, and that connection is something Avon Food Company cherishes. The transition began when the Christie’s brand and several sister labels fell into private equity ownership that eventually ended in liquidation. When the business went to auction, Michael Anastos’ father—Stephen Anastos—who had not previously worked in food manufacturing—saw not only an opportunity, but a responsibility to preserve something meaningful.

Vice President Michael Anastos explains, “My dad had a friend in the business who asked him to attend the auction with him. And they were the lucky winner to carry on the Christie’s brand.”

Rebuilding the brand meant more than restarting production; it meant restoring trust. Those early years were spent returning recipes to their original form, rekindling supplier relationships, and regaining shelf placement. That effort worked and the family not only saved the brand but grew it. Now in its second generation of leadership, the company employs more than 25 people and operates four production lines, with both of Michael’s parents still actively involved.

Among the most defining features of Avon Food Company today is its woman-owned leadership. “My mom owns the company,” Anastos shares. “She has owned it since the beginning. She’s the principal owner, and she still supports operations day-to-day.”

In an industry often led by men, Avon Food Company stands out for its inclusive and empowering workplace culture, with mentorship playing a central role in day-to-day operations. This is a place where every individual is encouraged to grow, develop their skills, and advance within the company.

Sales and Marketing Manager, Carson Albright, highlights the significance of this presence: “In a predominantly male industry, it is nice to see and be a part of a business with women at the core.” This leadership identity has shaped a workplace that emphasizes collaboration and empowerment, a culture that’s equally felt on the production floor and in leadership meetings.

That spirit of mentorship extends beyond gender and titles. Longtime employees often describe the company as a place where ideas are welcomed, voices are heard, and innovation is encouraged. It’s a structure that blends small-company closeness with big-company capability, reflecting the same values that define Avon’s relationships with clients and suppliers.

While the heart of Christie’s products remains unchanged, with recipes preserved as they were decades ago, the equipment and processes used to make them have evolved dramatically. Over the past three years, Avon Food Company has invested nearly $3 million in production and facility upgrades. These include electromagnetic fillers, a technology typically only seen in major global manufacturers.

“Electromagnetic filling is the leader in sanitary design,” Anastos explains. “It’s the fastest, cleanest, and most efficient way to fill, but it’s usually something you only see in the Coca-Colas of the world, and we brought it down to a smaller scale.”

Along with electromagnetic filling, the facility hosts piston and pressure overflow filling lines, energy-efficient boilers and compressors, and dual-capability capping systems for both metal and plastic lids. These investments were deliberate, not just for efficiency, but to expand what Avon Food Company can offer and to make operations more sustainable.

Indeed, the company’s commitment to environmental responsibility extends beyond energy-efficient equipment. By focusing on reduced waste and local sourcing partnerships, Avon Food Company minimizes its environmental footprint while maintaining the quality customers expect.

The company now fills everything from 5oz retail bottles to gallon jugs and bulk pails, servicing both grocery shelves and national restaurant chains. In the co-packing segment, Product Specialist Natalie Steeves and the development team assist customers from formulation to scaling to distribution, making Avon Food Company a full-service partner, not simply a producer.

Though many co-packers simply replicate formulas and produce to spec, Avon Food Company takes a more experimental and collaborative approach. “The big driver for us is asking ‘why? Why is something done this way? Could it be done better?’ We ask that every single day,” says Anastos.

This forward-thinking mindset has driven the company to explore preservative-free and clean label formulations while helping partner brands rapidly scale and refine their products. Avon Food Company also experiments with emerging flavor trends and innovative ingredient profiles, all while guiding small-batch creators through the transition to large-scale production, ensuring their handcrafted essence remains intact.

Albright and the team closely track consumer shifts through trade shows, association involvement, distributor conversations, and on-the-ground feedback. As members of the Specialty Food Association, the team has a finger on the pulse of what’s coming, whether that’s plant-based innovations, functional ingredients, or nostalgic comfort flavors making a comeback.

This agility is one advantage of being mid-sized: large enough for industrial production, yet small enough to adapt to change quickly. Avon’s team thrives on this flexibility, often piloting new products or reformulations within weeks rather than months.

The company’s recipe catalog is a unique asset, a living archive of American flavor history. Some formulas trace back nearly 75 years, developed by original Christie’s founder and food scientist Dean Christie. Others were created only months ago in collaboration with rising brands or restaurant groups. Avon Food Company has produced award-winning barbecue sauces, marinades, wing sauces, Bloody Mary mixes, and private-label lines that many consumers know, even if they don’t realize where they’re made. Many partnerships are protected under NDA, but the pride in the work is unmistakable.

“It’s really neat to collaborate with our new co-packers,” Steeves shares. “Some clients start out making as little as a gallon at a time, and we can scale their vision to 2,500 gallons. That’s one of the joys of working at a manufacturing facility.”

That blend of innovation and respect for tradition has earned Avon Food Company a trusted reputation among both up-and-coming food entrepreneurs and long-established household names. From craft startups debuting their first product to national brands expanding into new markets, Avon serves as the quiet force helping them make it happen.

Last year, Avon Food Company earned its first SQF certification, one of the most recognized and comprehensive food safety standards in the world. This year, the company raised the bar again by adding the Quality certification component, a step that only around 12 percent of manufacturers nationwide have taken.

“We wanted to be proactive about quality—not just meet expectations, but exceed them,” says Anastos. “Some people get SQF just to have it; we went after it so we can sleep at night. It’s about integrity and transparency.”

The certification reflects not only Avon’s dedication to safety but also its holistic approach to quality management. Every stage, from ingredient sourcing to final packaging, is governed by strict standards and meticulous oversight, and clients benefit from the assurance that their products are being made in one of the most advanced, compliant facilities in the region.

Behind every bottle and batch are relationships that make the company’s success possible. Avon Food Company works closely with family-owned suppliers like Holden Fruit and Produce, which provides fresh produce and ingredients tailored to the company’s exacting specifications. As Steeves notes, “They have been incredibly supportive and flexible partners. Aside from having high quality ingredients, they are always helping us to refine our process.”

On the equipment side, partners like DTM Packaging have been instrumental in helping Avon design customized machinery for its unique production needs. These collaborations reflect a broader company philosophy that strong partnerships lead to stronger products.

Equally important are the people inside the facility. “It makes me really happy when we have a group of people that love what they do,” says Anastos. “Culture has been number one for us from the beginning.”

That emphasis on culture isn’t lip service. Michael Anastos is known for being out on the floor, working hands-on with team members, solving problems side by side. “He’s amazing with the machines. He works closely with the team to teach our machine operators how everything works,” says Albright.

Steeves continues, “It’s pretty rare to have leadership so involved in the day-to-day.”

Looking ahead, Avon Food Company is focused on scaling with purpose by expanding its range of natural, preservative-free products, strengthening co-packing partnerships, and growing the presence of its beloved Christie’s brand. At the same time, the company remains deeply committed to nurturing its people through collaboration, and to the hands-on leadership that keeps a family-centered culture at the heart of everything it does. That focus on balance between growth and grounding, innovation and integrity, may be what defines Avon’s next chapter most of all.

The company’s evolution is proof that food manufacturing doesn’t have to sacrifice humanity for progress. It’s a business model that values curiosity, transparency, and relationships as much as revenue. In a marketplace where so many legacy brands fade into corporate anonymity, Avon Food Company continues to do what it has always done best: make great food, made by good people.

Through legacy and leadership, Avon Food Company stands as proof that the best future for the food industry is one that honors its past, invests in its people, questions what’s possible, and cares deeply about what it makes.

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With plastic pollution becoming a global crisis and governments in Canada, the United States, and beyond implementing stricter environmental regulations, packaging is being redefined. Companies, consumers, and policymakers are all participating in a shift toward more sustainable materials and innovative designs, with a growing focus on reducing plastic waste while maintaining product protection, convenience, and safety.

Plastic pollution continues to be one of the most pressing environmental challenges worldwide. Every year, millions of tons of plastic end up in oceans and landfills, posing threats to marine ecosystems, wildlife, and even human health through microplastics entering the food chain.

In Canada, the urgency of this issue has prompted concrete action. In 2022, the Canadian government announced a plan to ban single-use plastics such as plastic checkout bags, straws, cutlery, and stir sticks by the end of 2025. This move is part of Canada’s broader strategy to transition toward a circular economy where materials are reused, recycled, or composted rather than discarded.

In the United States, initiatives such as the U.S. Plastics Pact, a collaboration of businesses, policymakers, and environmental groups, aim to create a national framework to reduce plastic pollution and increase recycling rates. Corporate leaders have also stepped up, with Amazon committing to eliminating nearly 15 billion plastic air pillows annually by switching to recycled paper fillers in North America. L’Oréal USA has pledged to achieve 100 percent sustainable packaging, aligning with broader sustainability goals and consumer expectations. Such measures reflect an increased recognition that packaging is no longer just functional; it is a critical environmental and social responsibility.

While reducing plastic waste is central to sustainability, the conversation about packaging also encompasses the importance of safe-use plastics. Not all plastics are inherently harmful, and in certain applications, such as food storage, medical supplies, and pharmaceuticals, they play a vital role in protecting health and safety. Innovations in safe-use plastics involve the development of non-toxic, BPA-free, phthalate-free, and food-grade polymers that perform effectively while minimizing chemical leaching. These plastics ensure that essential products remain protected without introducing harmful substances into the environment or consumer products.

Innovations in packaging materials are a big part of the sustainability conversation. Traditional plastics, derived from petroleum, have dominated packaging for decades due to their durability, lightweight nature, and low cost. However, the environmental consequences of these materials are prompting companies to explore alternatives that can match their performance while offering improved ecological outcomes.

Biodegradable and compostable packaging materials have emerged as promising solutions. Notpla, a UK-based company, has developed packaging made from seaweed and other natural polymers. This material is fully biodegradable, does not require freshwater or fertilizer to grow, and can replace single-use plastics in applications such as food containers and sachets. Similarly, algae-based plastics offer an environmentally friendly alternative, breaking down more quickly than conventional plastics while reducing the carbon footprint of production.

Plant-based proteins and agricultural waste are also being leveraged to create sustainable packaging. Xampla, another innovative company, produces biodegradable films and linings derived from proteins in peas, sunflower, and canola. These films are compatible with existing industrial processes, making them a viable alternative for manufacturers seeking to transition from petroleum-based plastics without significant changes to production infrastructure.

Additional innovations are broadening the possibilities for sustainable packaging. Mushroom mycelium packaging is naturally insulating and biodegradable, making it ideal for protecting fragile items during shipping. Companies like Ecovative and TIPA are developing materials from agricultural byproducts such as sugarcane bagasse, wheat straw, and rice husks. These materials replace rigid plastics and foams while integrating into municipal composting systems, effectively closing the loop on the packaging lifecycle. Researchers are also exploring edible packaging solutions, such as rice-paper wraps and seaweed-based films, which offer the ultimate zero-waste solution for certain applications.

Emerging nano-cellulose packaging, utilizing plant-based fibers to create films and coatings that are both biodegradable and remarkably strong, have the potential to replace multi-layered plastic wraps while also improving oxygen barrier properties for food preservation. Similarly, water-soluble packaging made from polyvinyl alcohol is gaining attention for single-use applications, particularly in detergents and cleaning products. Such innovations combine functionality, biodegradability, and safety in applications where conventional plastics were previously unavoidable.

One of the most significant trends is the shift toward recyclable mono-materials. Multi-layered packaging, such as flexible pouches and snack wrappers, has historically been difficult to recycle because it combines different polymers. By using mono-material designs, companies simplify recycling and reduce contamination in the recycling stream. In North America, food packaging is increasingly being engineered to meet both environmental goals and consumer convenience without compromising protection or shelf life. The move toward mono materials is often complemented by improvements in label adhesives and inks, ensuring that packaging remains fully recyclable while maintaining the visual and branding appeal that consumers expect.

Smart packaging is another area of rapid innovation. Incorporating technology into packaging creates opportunities for enhanced consumer engagement and safety. Temperature-sensitive labels, QR codes, and RFID tracking systems allow better monitoring of perishable goods, ensuring safety while providing transparency. Smart packaging can also communicate sustainability credentials, letting consumers understand the carbon footprint, recyclability, or biodegradable nature of a product. Some brands are experimenting with AR-enabled packaging, connecting users to immersive content that educates on recycling and environmental stewardship while also enhancing brand storytelling.

Despite these advances, significant challenges remain. Sustainable packaging often comes with higher costs, which can deter smaller companies or limit adoption in cost-sensitive markets. Not all biodegradable materials yet meet the durability and functionality standards of conventional plastics, which is critical for safely transporting food, medical supplies, or fragile goods. Infrastructure limitations in North America also complicate the widespread adoption of new materials. Many municipal recycling and composting systems are designed for traditional plastics, meaning that new innovations may not be processed efficiently. And contamination and mismanagement can reduce the effectiveness of otherwise sustainable solutions. Educating consumers about proper disposal methods is crucial to ensuring the environmental benefits of these new materials are fully realized.

Globally, countries like Germany, France, and the Netherlands have implemented advanced recycling and composting systems that serve as models for effective circular economies. North American companies are increasingly collaborating with international innovators, adopting materials such as seaweed-based films, plant-protein linings, mushroom mycelium, and nanocellulose to create packaging that is both functional and environmentally responsible. Multinational corporations such as Unilever and Amazon are setting ambitious sustainability targets, ensuring that packaging is reusable, recyclable, or compostable while maintaining global supply chain integrity.

Indeed, the future of packaging will require ongoing collaboration among manufacturers, regulators, consumers, and innovators. Regulatory frameworks like Canada’s single-use plastics ban and initiatives such as the U.S. Plastics Pact provide a strong foundation, but continued investment in research, infrastructure, and consumer education is essential. Safe-use plastics must continue to play a role in sectors where protection and hygiene are critical, even as alternative materials become more prevalent. Ensuring that packaging is both safe and sustainable is not a contradiction but a necessary balance to protect consumers while preserving the planet.

The packaging industry is at a transformative juncture. While traditional plastics still dominate, innovations in biodegradable, compostable, plant-based, and smart packaging, combined with responsible safe-use plastics, are shaping a more sustainable and consumer-conscious future. Overcoming challenges related to cost, infrastructure, and consumer behavior will require ongoing innovation, education, and collaboration. North America is making significant strides, and global trends indicate a continued push toward circular economies. By embracing new materials, smarter designs, and collaborative efforts, the industry has the potential to redefine what packaging means for businesses, consumers, and the environment alike.

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