Category: Blog

10th Anniversary Spotlight

Posted on by NMTA

Reaching 10 years with one company is a meaningful milestone, especially in an industry where expertise is earned through time, repetition, and problem-solving. This week, we are proud to recognize Ian Gargano, Parts and Service Sales Manager at NIDEC MACHINE TOOL AMERICA (NMTA), for a decade of dedication to our customers and our team.

We sat down with Ian to reflect on the past 10 years, what has changed at NMTA, and what continues to motivate him every day.

1. Thinking back to when you first walked through the doors ten years ago, what’s the biggest “then vs. now” change you’ve noticed?

Ten years ago, I walked into a very traditional corporate environment under the Mitsubishi Heavy Industries banner. Today, as NIDEC MACHINE TOOL AMERICA, the energy is more streamlined, agile, and forward-thinking. Personally, the biggest change is my perspective: “Then,” I saw complex boxes of steel I didn’t understand; “now,” I see the precision engineering and the vital role our machines play in the global supply chain.

2. If you could go back to your first week on the job, what’s the one thing you know now about our machine lineup that you wish you knew back then?


I wish I’d known that our machines, especially the gear hobbers and grinders, are essentially the “DNA” of the manufacturing world. In my first week, I was intimidated by the complexity. If I could go back, I’d tell myself: Don’t just look at the buttons; look at the precision of the parts coming out. Understanding the end-use makes the technology much more fascinating.

3. How has your role evolved over the years? Were there any pivotal moments that have shaped your career at NMTA?


I started with zero CNC knowledge, essentially learning the language of the industry from scratch. My role has evolved from being a student of the craft to a consultant who can anticipate customer needs. The transition from Mitsubishi to Nidec was a pivotal moment; it was a “sink or swim” era for many of us, and choosing to embrace the new Nidec philosophy really solidified my career here.

4. What were some of the biggest challenges you faced, and how did you overcome them?


The biggest challenge was the technical learning curve. There were days early on when I felt like I was reading a book in a different language. I overcame it by never being too proud to ask the veterans on the floor questions. I learned that in this industry, curiosity is your most important tool.

5. If you could give advice to yourself on your first day, what would it be?


Be patient with yourself. You aren’t going to master a gear shaver or a large-part milling machine in a week. Trust the process, take tons of notes, and don’t just memorize part numbers. Learn the why behind the machine. The faster you understand how these components work together, the better you can advocate for the customer.

6. What sets NMTA apart from other places you’ve worked?


 It’s the unique blend of Japanese precision and American grit. We have the backing of a global powerhouse like Nidec, but our local team feels like a tight-knit family.

7. Are there any company traditions, events, or moments that stand out to you?


The rebranding day when we officially became Nidec stands out. There was a mix of nostalgia for the Mitsubishi era and a genuine electricity about what the Nidec Green would bring to our future. It felt like the start of a new chapter for all of us.

8. How has teamwork and collaboration played a role in your success?


In the world of machine tools, there is no solo win. If engineering isn’t talking to sales, or service isn’t talking to parts, the customer feels it. My success is 100% tied to the fact that I can walk across the hall and get an answer from a colleague with 30 years of experience.

9. How do you approach building strong relationships with customers?


I approach it with radical honesty. Customers in this industry can smell sales speak a mile away. I build relationships by admitting what I don’t know, finding the answer quickly, and treating their machine downtime as if it were my own.

10. Can you share a memorable story of a time you went above and beyond for a customer?


I remember a situation where a customer’s production line was halted, and the lead time for a replacement part was weeks out. I knew they couldn’t wait. We coordinated with our team to pull a critical component off one of our floor machines so the customer could be back up and running the next morning. Seeing them go from panic mode to production mode because of our quick thinking is why I love this job.

11. What accomplishment are you most proud of during your time at NMTA?


I am most proud of my transition from being a “parts taker” to a technical consultant. I’ve made it my mission to educate our clients on the importance of OEM parts and factory-trained service. Helping a customer move away from quick fixes to embracing the Nidec standard, and seeing their machine longevity increase as a result, is incredibly fulfilling.

12. What has been the most rewarding part of your job?


It’s the tangibility. In a digital world, we work with things you can touch. Seeing a massive piece of equipment installed, running, and creating perfect parts is a satisfying feeling that never gets old. Knowing I played a part in keeping that machine running is a great feeling.

13. What do you see for the future of your department and the company?


I see us becoming even more integrated with automation and Industry 4.0. Under the Nidec umbrella, our capability to provide turnkey solutions is only growing. For the Spare Parts department, I see us becoming more agile and data-driven while keeping that core human touch that our customers rely on.

Congratulations, Ian, on 10 years with NMTA, and thank you for the expertise, care, and consistency you bring to customers every day!

Gear History: Euler and the involute tooth

Posted on by NMTA

Circa 1754, Leonhard Euler helped put gear tooth geometry on a solid mathematical foundation. His work is often cited in early treatments of the involute profile and why it works so well for power transmission in the real world.

By the 1700s, gears were already essential in clocks, mills, and early machinery. Tooth shapes back then were usually guided by workshop practice, available tools, and whatever worked reliably for a specific build. As gear theory matured, the involute profile emerged as the clear winner because it combines predictable motion with manufacturing practicality.

1) The involute’s real superpower: center distance forgiveness

In a perfect drawing, the center distance never changes. In a real gearbox, it does. Housings deflect under load, bearings wear, temperatures shift dimensions, and tolerance stack-ups happen. The involute profile’s key advantage is that it maintains a constant angular velocity ratio even with small variations in center distance.

2) Line of action: connecting shape to force

The involute tooth form is inseparable from the line of action. This is the path along which force is transmitted during meshing. In a standard involute mesh, the common normal at the point of contact always lies on the same line of action. That line is a common tangent to the base circles of both gears. In a properly functioning system, the gear teeth engage along this line. This ties tooth geometry directly to load direction and outcomes like efficiency, heat generation, and wear.

3) Why manufacturing adopted it and never looked back

The involute is not just mathematically convenient, it is also manufacturing-friendly. Generating methods like hobbing and shaping align naturally with involute geometry, which supports scalable production. As requirements tightened for speed, noise, and durability, the same involute foundation carried forward into finishing processes like grinding, where repeatability and accuracy matter.

What this means today

Modern gear programs add profile and lead modifications, surface engineering, and heat treat control, but the baseline assumption is still the involute. It is a tooth form that is predictable and compatible with modern production methods.

This is the bridge from 18th-century mathematics to today’s factories. At NIDEC MACHINE TOOL AMERICA, we help manufacturers turn that theory into consistent results through the machines used to cut and grind gears to meet modern demands for accuracy, durability, and throughput.

Learn more about NIDEC MACHINE TOOL AMERICA’S products: https://www.nidec-machinetoolamerica.com/products/

Photo: Involute Spur Gears Meshing By M. D. Lebedev – Own work, CC BY 4.0, https://commons.wikimedia.org/w/index.php?curid=157464942

Gear History: How Winter Driving Depends on Gear Kinematics

Posted on by NMTA

February brings the toughest testing ground for any drivetrain: the icy corner.

When your vehicle enters a turn, geometry dictates that the outside wheel must travel further than the inside wheel. If both wheels were locked to a single shaft, one would be forced to skid. On a dry summer road, this causes tire wear. On an ice patch, it causes a loss of control.

The solution to this problem is the differential, a masterpiece of gear logic that has remained largely unchanged since Onésiphore Pecqueur patented it in 1828.

Schematic diagram of a ring-and-pinion differential

The Geometry of Control

Pecqueur’s design uses a “planet and sun” arrangement of bevel gears. Power enters through a ring gear, which rotates a carrier housing. Inside, small pinions mesh with side gears on each axle.

In a straight line, the gears do not rotate relative to each other. The whole unit spins as one.

In a turn, the pinions begin to “walk” around the side gears, allowing the outside wheel to speed up exactly as much as the inside wheel slows down. The carrier speed is always the average of the two axle speeds. This mechanical averaging is what allows a car to maintain power through a curve without breaking traction due to geometric constraints.

The Traction Tradeoff

While the differential solves the kinematic problem of turning, it introduces a traction limitation. In a standard open differential, torque is split equally between the two wheels. This means that if one wheel is on ice and requires almost no torque to spin, the other wheel, even if it’s on dry pavement, also receives almost no torque. The result is a spinning tire and a stationary vehicle.

This is why limited-slip differentials, locking differentials, and modern traction control systems were developed. They detect when one wheel is slipping and redirect torque or apply braking force to restore forward motion. But even these advanced systems rely on the same fundamental bevel gear architecture that Pecqueur introduced nearly 200 years ago.

The Precision Mandate

For manufacturers, the differential represents a significant challenge. Bevel gears are notoriously sensitive to mounting distances and tooth geometry. Even a few microns of error can lead to excessive noise or localized stress that causes failure under heavy loads.

The tooth contact pattern on a bevel gear is a localized ellipse. If the pinion is mounted too close or too far from the ring gear, that contact shifts to the toe or heel of the tooth. Under the sudden torque spikes common when a wheel regains traction on a patchy road, this misalignment can lead to tooth breakage.

The evolution of the differential is, in many ways, the evolution of the gear cutting machine. The demand for quieter, more durable drivetrains pushed the industry toward the processes we rely on today.

Engineering for the Elements

As we navigate the tail end of winter, the differential serves as a reminder that great engineering is often invisible. It works silently under the chassis, translating complex kinematics into predictable handling.

At NIDEC MACHINE TOOL AMERICA, we build the machines that make precision possible.

Building the Future of Manufacturing: How NIDEC MACHINE TOOL AMERICA Supports the Next Generation

Posted on by NMTA

Manufacturing is changing rapidly, driven by new technologies, new materials, and a constant push for greater efficiency and precision. At NIDEC MACHINE TOOL AMERICA, we believe that staying ahead in this environment starts with people. Supporting the next generation of engineers, technicians, and manufacturing professionals is part of our core mission.

Why Developing Future Talent Matters

Every meaningful advancement in manufacturing begins with skilled, curious, individuals. The industry depends on professionals who understand complex systems and know how to apply them in practical ways. Those skills are built over time through hands-on experience, mentoring, and exposure to real industrial equipment.

Our commitment to education and workforce development reflects this reality. We actively seek out opportunities to work with universities and research institutions, helping prepare students and early-career professionals for the challenges they will face in modern manufacturing environments.

Connecting Industry and Education

One of the most effective ways to support future talent is to bring industry and education close together. NIDEC MACHINE TOOL AMERICA regularly collaborates with academic partners to make that connection real.

Our recent work with The Ohio State University’s Center for Design and Manufacturing Excellence (CDME) included in-depth training on our LAMDA series. Visits like this give students and researchers direct exposure to industrial systems and workflows. They also give our team insight into the questions, ideas, and research priorities that are driving the next generation.

These interactions benefit both sides. Students and researchers gain experience that goes beyond the classroom. NIDEC gains feedback and perspectives that help shape future products, training programs, and support strategies.

Providing Access to Industrial-Grade Technology

To be ready for the workforce, future engineers and technicians need experience with the same level of technology they will encounter in the field. That is why we work to make our systems available in academic and research settings whenever possible.

When students and researchers can work directly with advanced equipment, they learn how these technologies behave in real conditions. They see how process parameters, monitoring, and part design come together. That understanding is difficult to achieve with simulation or theory alone.

This kind of exposure builds confidence, strengthens problem-solving skills, and often shapes long-term career interests in manufacturing and engineering.

Encouraging Curiosity and Innovation

Manufacturing grows when new ideas are put into practice. Our goal is to give emerging professionals the space and tools to explore those ideas. Training programs, research collaborations, and equipment placements all play a role in encouraging experimentation and careful, data-driven innovation.

We want future engineers and technicians to feel comfortable asking questions, testing assumptions, and refining processes. When they can do that on real equipment, guided by experienced professionals, they are better prepared to contribute on day one in an industrial setting.

Looking Ahead

The demand for skilled manufacturing professionals will continue to grow. Technologies will keep advancing, and expectations for quality and efficiency will rise along with them. NIDEC MACHINE TOOL AMERICA remains committed to supporting the people who will meet those expectations.

By working closely with educational institutions, sharing our expertise, and opening access to advanced systems, we are investing in the future of the industry and the communities we serve. The next generation of manufacturing professionals is already taking shape, and we are proud to play a role in their development.

NIDEC’s Three Essential Attitudes: The Operating System Behind Purpose-Driven Manufacturing

Posted on by NMTA

In an era of rapid change, tighter targets, and rising expectations for speed and quality, the companies that endure pair a clear purpose with decisive action. At NIDEC, our philosophy is straightforward and ambitious: design ever more efficient products and improve people’s lives.

Our Three Essential Attitudes, or the “NIDEC Way”—Passion, Enthusiasm, Tenacity; Working hard and smart; and Do it now, do it without hesitation, do it until completed—are more than values on a wall. They guide our teams, our projects, and our partnerships every day.

Below is how these attitudes take shape across our operations, and why they matter for our customers’ competitiveness and for a better industrial future.

Passion, Enthusiasm, Tenacity: Fuel for Innovation

Complex manufacturing challenges rarely resolve in a single sprint. They demand cross-functional collaboration, patience, and the will to iterate. Passion drives ambitious goals. Enthusiasm sustains energy through setbacks. Tenacity ensures we finish the job.

How this shows up at NIDEC:

  • Engineering depth with customer empathy: We don’t just tune specs. We understand throughput constraints, floor layouts, workforce skills, and maintenance cycles.
  • Iteration without fatigue: Whether refining hobbing parameters for micro-geometry accuracy or stabilizing thermal behavior on a machining center, we pursue precision with persistence.
  • Lifecycle commitment: From installation to optimization, we support the full lifecycle, not just the handoff.

Working Hard and Smart: Effort Meets Evidence

Advantage comes from pairing effort with data, process discipline, and the right tooling. That’s how we reduce variability and increase productivity without compromising quality.

How this shows up in our solutions:

  • Application engineering and prototyping: At the NMTA Gear Technology Center, we use our latest gear cutting machines in real-world trial cuts and prototyping to dial in optimal processes before they reach your production floor.
  • Gear inspection and data feedback: State-of-the-art gear inspection equipment verifies quality and feeds measurement data back into process adjustments, tightening tolerances and improving repeatability.
  • Rebuilding, reconditioning, and control retrofits: By rebuilding systems and modernizing older equipment, we extend the life of proven NIDEC platforms while elevating accuracy, reliability, and ease of use.
  • Lifecycle optimization: Through installation, training, maintenance, and ongoing process support, we keep machines running at peak performance and continuously identify opportunities for improvements in cycle time, quality, and uptime.

Outcome: Shorter cycle times, fewer rejects, lower operating costs, and more stable production windows, especially in high-precision environments.

Do It Now; Do It Without Hesitation; Do It Until Completed: A Bias for Action

Delayed decisions defer value. We move decisively, aligning stakeholders, clarifying requirements, and executing with urgency. That discipline accelerates learning and delivery.

How we put action first:

  • Rapid discovery: We define the problem precisely, from target tolerances to surface finish, and get aligned quickly.
  • Prototyping and validation: We run trials, gather data, and iterate to de-risk production.
  • Finish the job: Implementation is the start, not the end. We stay engaged through ramp-up, operator training, and process stabilization until performance holds.

Outcome: Faster time to value, fewer surprises during launch, and sustained performance in real production, not just in a demo.

Why This Matters Now

Manufacturers are navigating:

  • Labor constraints and the need for intuitive, reliable machines
  • Pressure to compress lead times while increasing customization
  • Tighter tolerances for gears and precision components

NIDEC’s Three Essential Attitudes speak directly to these pressures. Passion, enthusiasm, and tenacity keep teams moving through complexity. Working hard and smart grounds improvements in data and repeatability. A bias for action cuts time-to-outcome and keeps initiatives from stalling.

The result is better manufacturing systems: efficient, resilient, and ready for what’s next.

A Better Future, Built One Completed Task at a Time

NIDEC’s corporate philosophy guides our daily decisions. The Three Essential Attitudes turn that philosophy into action on the factory floor and in the boardroom. When teams embrace them, projects move faster, machines perform better, and the long-term impact compounds.

If you are pursuing aggressive performance targets, we’re ready to help. Explore how our manufacturing solutions can support your goals. See our full product line here: https://www.nidec-machinetoolamerica.com/products/.

Gear History at New Year’s: The Mechanics Behind the Date Jump

Posted on by NMTA

On New Year’s Day, it’s easy to focus on the countdown to midnight. But if you wear a mechanical watch, there’s another transition happening in the background: a small gear train advances the date disc by one exact step.

That seemingly simple jump is the product of more than a century of incremental work on calendar displays, culminating in the mid-20th century with robust date and day-date mechanisms that are still the template today.

How Mechanical Date and Day-Date Mechanisms Work

Mechanically, most traditional date and day-date systems share the same basic architecture.

The hour wheel drives an intermediate wheel. That intermediate wheel drives:

  • A star or date wheel with 31 teeth (date).
  • A star wheel with 7 teeth (day of the week) in day-date watches.

Each of these star wheels advances by one tooth every 24 hours.

The intermediate wheel is important: without it, the calendar would advance twice per day. With it, the system steps once per 24-hour cycle and typically changes around midnight.

To hold each indication precisely in place, the system adds:

  • A jumper spring that engages between teeth on the date (and day) wheel.
  • A shaped cam or finger that gradually loads the jumper and then lets in snap into the next tooth, depending on whether the change is standard, semi-instantaneous, or instantaneous.

From a gear-engineering perspective, that means very small modules and teeth must withstand:

  • Cyclic loading from the daily change.
  • Long-term boundary lubrication.

Backlash and tooth form must be controlled so the indication:

  • Lands on center.
  • Resists vibration or partial movement between jumps.

It’s essentially a micro indexing drive synchronized to a 24-hour input.

Short Months and Manual Corrections

Standard date and day‑date mechanisms are built on a simple assumption: every month has 31 days. In a non‑perpetual system, this means the date must be corrected five times each year, whenever the actual month length falls short of 31 days 

That simplification keeps the movement compact and relatively straightforward, but it pushes some of the complexity onto the user. To deal with real‑world calendars, watchmakers provide ways to “force” the date mechanism to advance. In modern quick‑set systems, the crown (or, on some watches, corrector pushers) lets the wearer rapidly click the date forward, and in some designs also change the day or month, one indexed tooth at a time. Earlier non‑quick‑set watches are less forgiving: the only way to update the date is to repeatedly rotate the hands past midnight, cycling the 24‑hour mechanism over and over.

In both approaches, the calendar train has to tolerate behavior that goes far beyond the gentle, once‑per‑day change it was nominally designed for. Rapid corrections impose many small, user‑driven shock loads in quick succession. On top of that, there’s the risk of overlap between human inputs and the watch’s own automatic changeover. If the wearer tries to adjust the date too close to midnight, while the change mechanism is partially engaged, there’s potential for damage. 

For gear designers, this will feel familiar. The mechanism is sized and optimized for the ideal operating case: one clean step per 24 hours. But its durability and real‑world reliability are defined just as much by edge conditions: irregular month lengths, impatient users advancing the date as fast as they can, and ill‑timed inputs right in the middle of an automatic change.

What This Means for Modern Gear and Mechanism Design

For engineers working on other gear-driven systems such as indexing tables, rotary actuators, and small step-feed mechanisms, there are a few direct takeaways:

  • Continuous rotation to discrete steps: Calendar mechanisms show a clean way to derive discrete, repeatable steps from a continuous drive, using gear ratios and spring-based jumpers rather than electronics.
  • Load and tolerance discipline at small scale: Because the teeth are tiny and the loads are light but persistent, tooth geometry, backlash, surface finish, and material choice become critical over long life.
  • Designing for human interaction: Manuals from brands and historical overviews emphasize care when changing dates, especially around midnight. The mechanisms are robust but not invincible, a reminder that real users will always push designs outside nominal states.

A New Year’s Perspective

Each New Year’s Day, when the date rolls over from 31 to 1, the same fundamental mechanism that advances the date every night does its job once more: a small, carefully cut set of wheels moves exactly one tooth.

2025 Year in Review: Advancing Manufacturing with NIDEC

Posted on by NMTA

As 2025 comes to a close, NIDEC MACHINE TOOL AMERICA is reflecting on a year that combined strong technical progress with deeper collaboration across our customers, partners, and global NIDEC teams.

From gear machining and broaching to advanced metal additive manufacturing, our focus remained constant: deliver reliable, production-ready solutions.

Meeting Customers Where They Are: A Year on the Road

In 2025, our team spent a significant amount of time in the field, at trade shows, technical conferences, and customer facilities. These interactions shaped how we think about the next generation of manufacturing challenges.

Formnext, ICAM, and Rapid +TCT: Advancing Metal AM

At Formnext in Frankfurt, we met with partners, customers, and additive manufacturing leaders to discuss the future of large-format metal AM, hybrid machining, and how to move directed energy deposition (DED) from the lab to the production floor. Conversations around industrial readiness and process standardization reflected the direction of the broader AM community.

At ICAM and Rapid + TCT, our experts took a closer look at the economics of metal AM, especially when comparing DED and laser powder bed fusion (LPBF) for parts above 300 mm. The takeaway: when the right geometry, material, and application are matched with the right process, DED can open the door to larger, more complex parts with competitive cost structures and shorter lead times.

Motion + Power Technology Expo and EMO

Events such as Motion + Power Technology Expo and EMO Hannover gave us a chance to reconnect with long-time partners and meet new ones.

At these shows, we highlighted technologies including:

  • High-speed hobbing for higher throughput and lower noise gears
  • Internal gear grinding and finishing solutions
  • Broaching systems designed for precision, rigidity, and flexible productivity
  • Cutting tools engineered for consistency, tool life, and surface finish

Gear Manufacturing Highlights: GE25CF, MGC300, and Beyond

2025 was a year of meaningful progress, strong customer adoption, and important new product introductions.

GE25CF: Integrated Hobbing and Chamfering on a Single Platform

A key highlight was the continued momentum of the GE25CF, our hobbing machine that integrates gear cutting and defined chamfering on a single platform. Customers are leveraging the GE25CF to:

  • Combine hobbing and chamfering in one process
  • Achieve precise root chamfers and improved surface quality
  • Shrink floor space requirements with the smallest-in-class footprint for its category

Powered by our ChamferX tooling, the GE25CF is enabling manufacturers to meet demanding requirements, especially for quieter, higher-efficiency gears.

Introducing the MGC300: Multitasking Gear Center for Small-Batch Flexibility

In 2025, we also introduced the all-new MGC300, a multitasking gear center now available. The MGC300 combines a vertical 5-axis machining center with advanced gear-processing functions such as hobbing, skiving, and chamfering, delivering precision and efficiency in a single setup. With:

  • A powerful spindle speed up to 15,000 rpm
  • A compact, rigid gantry design
  • An intuitive interface and seamless process integration

… the MGC300 is designed to reduce operator workload and streamline production for small-batch, high-mix gear manufacturing. By unifying milling and gear cutting processes, it helps manufacturers:

  • Boost productivity without adding multiple specialized machines
  • Reduce changeovers and handling
  • Lower total manufacturing costs
  • Stay competitive in a fast-evolving market

The MGC300 is a key example of how NIDEC is shaping the future of gear machining with multitasking platforms tailored to modern production realities.

End-to-End Gear Machining and Broaching Solutions

More broadly, our hobbing, grinding, shaping, and broaching solutions continued to help:

  • Consolidate legacy machines into smaller, more capable cells
  • Reduce setup and cycle times
  • Improve consistency and gear quality across a wider range of workpieces

For customers, these improvements translated directly into higher productivity, better machine utilization, and stronger ROI.

NIDEC also advanced its portfolio globally with the ZFA series, reflecting our ongoing investment in precision finishing for demanding applications.

Additive Manufacturing with LAMDA

On the metal additive manufacturing side, our LAMDA systems demonstrated what is possible when process expertise and innovation move in lockstep.

  • High-quality metal printing without an inert chamber is made possible by our unique local shield nozzle technology.
  • New material development, including the ability to mix powders and explore custom alloys for high-performance applications.
  • Hybrid and near-net strategies, where DED is used to add features and repair components.

These capabilities are especially relevant for aerospace, energy, and heavy industry applications, sectors where part size, lead time, and material flexibility all matter.

As DED adoption grows, we continue to support customers through application engineering, process development, and collaboration with universities and technology partners. Our goal is to help manufacturers move from pilot projects to repeatable, production-ready metal AM workflows.

One NIDEC in Practice: Global Collaboration and Customer Focus

Internally, 2025 highlighted the strength of the NIDEC family.

Cross-Company Collaboration and Best Practices

Joint meetings and events brought together teams from:

These sessions prioritized practical topics: best practices in service and applications, opportunities for integrated solutions, and strategies for supporting customers as they transition to more automated, data-driven manufacturing environments.

Unified Presence at Customer Events

Events such as GM Innovation Day underscored the breadth of the NIDEC portfolio, from EV drive units and window regulator motors to precision gear-making machines and advanced charging systems. For customers, this means not just individual products, but a cohesive ecosystem of motion and manufacturing solutions.

Focusing on Support and Resources

Building on our technical and commercial advancements, we further enhanced how customers engage with us.

Website Enhancements and Digital Resources

In 2025, we relaunched our website, equipping it with powerful tools for comparing machines, a comprehensive library of videos, and in-depth product information. Concurrently, we refined our online service and support, making it easier to submit service requests, inquire about spare parts, and quickly connect with our technical experts.

Customer Success as the Primary Measure of Impact

We also shared more customer success stories, such as Circle Gear, highlighting quantifiable improvements in cycle time, setup time, machine utilization, and part quality.

While machines and tools are at the heart of what we do, our goal is to provide a complete experience, from first conversation to long-term support.

Looking Ahead to 2026

For more than 80 years, NIDEC has been guided by the same principles: precision, performance, and partnership. As we look beyond 2025, our direction remains clear. Our commitment to quality is unwavering and backed by comprehensive support services that keep our customers’ operations running at optimal efficiency. From initial concept through implementation and long-term service, our team of specialists works closely with manufacturers to deliver tailored solutions that match specific production requirements.

The Origin of Hobbing: From Craft to Scalable Precision

Posted on by NMTA

Before hobbing, cutting precise gear teeth was closer to an art than a repeatable process. Output depended on time, cost, and the operator’s touch. That began to change as innovators pursued a different idea: generate the tooth form through controlled motion rather than copy it one space at a time.

Three milestones set the trajectory:

  • In 1835, Joseph Whitworth patented hobbing for spiral gears.
  • In 1856, Christian Schiele patented an early hobbing machine, helping establish the generating approach that would define modern practice.
  • In 1897, Robert Hermann Pfauter patented hobbing for spur and helical gears, cementing the method as the backbone of production gear cutting.

Why hobbing changed everything

At its core, hobbing synchronizes a helical cutter with the rotating blank so the correct tooth geometry emerges from their relative motion. That shift delivered durable advantages:

  • Accurate involute profiles at speed, improving mesh quality and efficiency.
  • Much higher throughput at lower cost per part, enabling true volume production.

How it reshaped manufacturing

Hobbing didn’t remove the need for expertise; it codified it. Predictable kinematics lowered the skill barrier and made high quality teachable and repeatable. That predictability supported the rise of transmissions, differentials, timing drives, and industrial gearboxes across sectors, from automotive and energy to automation and robotics. Over time, hobbing helped drive standardization and rigorous inspection practices, while integrating naturally with heat treatment and finishing.

A line that leads to the future

Expectations keep rising: tighter tolerances, faster iteration, and greater sustainability. The principle Whitworth and his successors helped establish still underpins modern manufacturing, but today’s tools must scale precision and agility together.

This is where NIDEC’s hobbing machines fit. NIDEC machines are built around what matters most now:

  • Repeatable quality across programs and volumes.
  • Agile production that adapts to new designs and shifting demand.
  • Cohesive workflows so teams can move from prototype to production with confidence.

Hobbing turned gear cutting into a scalable science. The next chapter belongs to manufacturers who keep elevating the process. NIDEC machines are built for that future, helping engineers deliver the next generation of drivetrains, robotics, and industrial systems.

Check out NIDEC hobbing machines here: https://www.nidec-machinetoolamerica.com/products/gear-machines/#hobbing-machines

Monozukuri: Craft, Quality, and Continuous Improvement Powered by 80+ Years of NIDEC Precision

Posted on by NMTA

In a world where manufacturers can’t afford slowdowns, reliability isn’t a nice-to-have, it’s the core advantage. At NIDEC MACHINE TOOL AMERICA, reliability is not an outcome by chance. It’s the result of monozukuri: the Japanese, comprehensive approach to manufacturing that unites creativity with quality across design, process control, and people.

Monozukuri is how we think, how we work, and how we support our customers worldwide. It’s why gear manufacturers count on us for stable microns, higher uptime, and predictable throughput, backed by applications and service teams behind every machine.

What is Monozukuri?

Monozukuri literally means ‘making things,” but in practice it goes far deeper. It’s a culture of disciplined creativity: designing smarter, assembling with intent, and continually improving every link in the chain. It integrates:

  • Design excellence: Innovating with purpose, prioritizing precision in form and function.
  • Process control: Engineering repeatability into every step of manufacturing.
  • People and craftsmanship: Empowering skilled teams to solve hard problems and elevate quality with pride.
  • Continuous improvement: Iterating relentlessly to reduce variability and elevate performance.

At NIDEC, monozukuri is the connective tissue that ties product development, machining performance, and field support into a single, customer-focused system.

80+ Years of Momentum and Shifting Into A New Gear

We are already a global leader in machine tools, and we’re accelerating. Grounded in over 81 years of history yet driven by a tradition of entirely new thought, NIDEC is leveraging our global network to bring advances never before seen in the gear market. The result: even greater accuracy, productivity, and reliability for our customers’ most demanding applications.

From Philosophy to Performance: What Manufacturers Gain

  • Stable microns: Precision that stays in tolerance, shift after shift, part after part.
  • Higher uptime: Machines built to run, supported by proactive service and preventative maintenance strategies.
  • Predictable throughput: Process capability you can plan around, reducing scrap, rework, and surprises.
  • End-to-end support: Engineers and service teams aligned to your production goals.

This integrated approach translates directly to lower total cost of ownership and higher confidence in delivery schedules.

Global Presence, Local Commitment: Precision, Performance, Partnership

With a worldwide network and deep regional expertise, NIDEC MACHINE TOOL AMERICA combines global innovation with local responsiveness. Whether you’re launching a new program, scaling production, or tightening tolerances, our teams meet you where you are, supporting process development, turnkey integration, and service.

Gear manufacturing is evolving: tighter tolerances, new materials, and smarter automation. In these exciting times, we continue to focus on our customers. Monozukuri ensures we don’t just keep up; we lead with solutions that raise the ceiling on precision, performance, and partnership.

Explore our Products: https://www.nidec-machinetoolamerica.com/products/

Gear History: From Shipwreck to Shop Floor–What the Antikythera Mechanism Teaches Modern Gear Engineers

Posted on by NMTA

Around 2,100 years ago, long before CNC and CMMs, Greek craftsmen built a compact, hand-cranked computer of bronze gears: the Antikythera Mechanism. Recovered from a Mediterranean shipwreck in 1901, it has been reconstructed from fragments and inscriptions; recent work proposes a coherent design that models the motions of the Sun, Moon, and planets according to ancient Greek astronomical theory. Beyond its historical significance, it offers practical lessons for anyone designing drivetrains, automation platforms, or precision instrumentation today.

A Compact Astronomical Computer

The Antikythera Mechanism is a densely layered assembly of bronze gears housed in a wooden case with engraved dials. Turn a hand crank and pointers sweep across scales that predict eclipses, track lunar phases, and represent planetary positions. Its gear trains encode astronomical periods such as the Metonic cycle (about 19 years) and the Saros cycle (about 18 years and 11 days), combining them into legible displays.

Engineering Ideas, 2,100 Years Early

  1. Differential thinking, ancient style
    • The challenge: The Moon’s apparent velocity varies because of its orbital anomaly.
    • The solution: Epicyclic trains with a pin-and-slot mechanism produce a modulated output from a uniform input—an analog “differential” that synthesizes non-uniform motion.
    • Today’s echo: The same logic underpins differentials, harmonic drives, and cam-like modulation in robotics and precision stages, where uniform motor input is transformed into time-varying motion at the load.

  1. Ratios as models, not just reductions
    • Tooth counts were not arbitrary; they encoded astronomical ratios. Preserving those integer relationships across multiple stages maintained phase fidelity.
    • Today’s echo: Start with a high-fidelity model to define ratio architecture. Whether mapping encoder counts to motion profiles or matching gear stages to spectral requirements, ratio selection should be driven by physics and output specifications.

How Well Did It Work?

Reconstruction studies show a kinematically consistent mechanism that aligns with surviving fragments and inscriptions and can demonstrate and predict astronomical cycles.

Why It Still Inspires

The Antikythera Mechanism compresses theory, design, fabrication, and communication into a unified product. It foreshadows differentials, compound reductions, and cam-like motion synthesis in today’s transmissions, robots, and metrology instruments. For modern engineers, it’s a reminder that lasting engineering couples precise internal models with trustworthy external displays.

If you build drivetrains, automation, or instrumentation, the lesson is timeless: let high-fidelity models drive your gear-ratio architecture, and let clear displays earn operator trust.

Sources:
Nature: A model of the Cosmos in the ancient Greek Antikythera Mechanism