choose your color

Author: admin

The Evolution of Metalworking in 2024: Embracing Digital CNC and Smart Factory Integration

The metalworking industry is undergoing a transformative shift in 2024, driven by digital CNC machining, interconnected smart factories, and the emergence of the industrial metaverse. These advancements are redefining manufacturing processes, pushing companies to adopt user-friendly, adaptable technologies to remain competitive. Hakan Aydogdu, General Manager at Tezmaksan Robot Technologies, delves into these pivotal trends and their implications for manufacturers.


Driving Forces Behind Industry Growth

According to Deloitte, annual construction spending in manufacturing reached $201 billion by mid-2023—a 70% year-over-year surge. This momentum is expected to fuel further expansion in 2024, propelled by several key factors:

  • Demand for Advanced Materials: Aerospace and automotive sectors are increasingly favoring lightweight, durable materials such as aluminum and titanium to boost energy efficiency.
  • Electrification and Sustainability: Companies are investing heavily in green technologies, aligning with global decarbonization efforts.
  • Innovation and Market Diversification: A report by Aptean highlights manufacturers’ focus on R&D and product development to attract new customers and explore untapped markets.

Key Technologies Shaping 2024

AI and Machine Learning

Artificial Intelligence (AI) and Machine Learning (ML) are reshaping the metalworking sector by enhancing precision and productivity. AI-driven design tools streamline the creation of complex components, while ML algorithms process extensive datasets to optimize decision-making.

Deloitte’s analysis reveals that 86% of executives see smart factories as a cornerstone of competitiveness within the next five years. These factories leverage AI, 5G, IoT, cloud computing, and data analytics to create integrated, efficient production environments. Examples include predictive maintenance powered by AI, IoT-enabled real-time monitoring, and seamless device communication facilitated by 5G networks.


The Rise of Digital Twins and the Industrial Metaverse

Once a concept limited to science fiction, digital twins now replicate real-world assets virtually, enabling manufacturers to simulate processes, equipment, and workflows for improved decision-making.

In 2024, digital twin technology is expected to merge with smart factory tools like IoT and cloud computing, creating expansive industrial metaverses. These virtual replicas of factories, machinery, and even cities will foster collaboration and connectivity on a global scale.

  • Enhanced Collaboration: According to a study by Deloitte and MLC, 92% of manufacturers are experimenting with metaverse initiatives, which are anticipated to boost productivity, quality, and sales.
  • Advanced Modelling: The integration of 3D scanning, immersive environments, and real-time data analytics will push the boundaries of simulation and optimization.

Automation and Interconnected Machinery

Automation continues to be a focal point in 2024, particularly in digital CNC machining. IoT sensors and generative AI tools are becoming integral to production lines, enabling streamlined processes and reduced manual intervention.

One standout innovation is the CubeBOX system, a robotic solution capable of running up to three CNC machines simultaneously. Its unique features include:

  • 24/7 Operation: Continuous production without downtime during loading or unloading.
  • Simplified Programming: The ROBOCAM software converts 2D CAD designs into CAM files, eliminating the need for complex coding skills.
  • Flexibility and Adaptability: CubeBOX works with various CNC machines and control units, meeting diverse manufacturing needs.

By reducing operator involvement and maximizing output, CubeBOX exemplifies the future of lean, automated production.


Preparing for the Future

To stay ahead in 2024’s rapidly evolving industrial landscape, manufacturers must embrace transformative technologies and innovative approaches. Concepts like AI-driven automation and the industrial metaverse, once considered futuristic, are now essential tools for success. By integrating these advancements with Industry 4.0 principles, businesses can not only meet the challenges of tomorrow but also thrive in a competitive, interconnected world.

ABB Robotics Partners with MassRobotics to Drive Innovation in Automation

In a move to foster advancements in robotics and automation, ABB Robotics has joined forces with MassRobotics, a premier U.S.-based innovation hub and accelerator for robotics startups. This partnership aims to empower emerging companies with cutting-edge technology to develop solutions that address pressing challenges in various industries.

ABB’s Contribution to the Partnership

As part of this collaboration, ABB Robotics will provide MassRobotics with several GoFa 5-kg collaborative robots (cobots) along with licenses for its RobotStudio simulation and programming software. These resources will give startups access to industry-leading tools, enabling them to create, test, and refine innovative robotics applications in a supportive environment.

The GoFa cobot, known for its flexibility and safety features, is designed to perform a variety of tasks such as assembly, material handling, and testing. Its ability to work side-by-side with human operators without the need for protective barriers makes it a versatile addition to MassRobotics’ state-of-the-art facilities.

Advancing the Robotics Ecosystem

MassRobotics provides startups with a collaborative workspace, advanced equipment, and robust support programs to nurture the next generation of robotics companies. ABB’s contribution enhances these resources, equipping innovators with powerful tools to turn their concepts into market-ready products.

John Bubnikovich, President of ABB Robotics, US, highlighted the significance of the partnership:

“By offering our cobots and software to some of the most creative minds in robotics, we’re enabling groundbreaking innovations while gaining valuable insights from this dynamic community. This collaboration reflects ABB’s commitment to pushing the boundaries of automation.”

Tom Ryden, Executive Director of MassRobotics, shared similar enthusiasm:

“ABB’s cobots are a game-changer for our members. With access to these advanced tools, startups can experiment and prototype more effectively, accelerating the development of their robotics solutions. This partnership will undoubtedly inspire new breakthroughs in the field.”

Real-World Applications of GoFa

The GoFa 5-kg cobot is designed to handle tasks across multiple sectors with efficiency and precision. Its ability to operate safely alongside humans eliminates the need for bulky enclosures, making it an ideal choice for modern workplaces aiming to enhance productivity while maintaining safety.

Collaborative Innovation

By combining ABB’s state-of-the-art robotics technology with MassRobotics’ vibrant innovation ecosystem, this partnership is set to accelerate the pace of development in robotics. Together, they aim to address real-world challenges and support startups in creating impactful solutions that shape the future of automation.

For more information on ABB Robotics and MassRobotics, visit their respective websites.

An Overview of the Wood Furniture Production Process

In recent years, understanding the steps involved in wood furniture production has become increasingly vital for creating durable, high-quality pieces. Each phase of the process, from sourcing raw materials to the final packaging, plays a crucial role in ensuring the furniture meets industry standards and has a long lifespan. This guide outlines the comprehensive journey of wood furniture manufacturing, from logs to the finished product.

Sourcing the Logs

The production of wood furniture begins with logs, the primary raw material sourced from trees. Once harvested, these logs are transported to a sawmill for processing to prepare them for subsequent stages.

During the initial preparation, it’s essential to assess the logs based on tree species, size, and moisture content. At the sawmill, logs are examined and categorized according to their quality and type. Careful handling during this stage minimizes waste and damage, ensuring the wood remains suitable for future processing.

Sawmilling Operations

Sawmilling represents a significant step in the furniture-making process. Here, logs are cut into manageable panels and blocks based on specific size requirements. This allows for efficient drying in the next stages.

Initially, the wood is air-dried outdoors to allow excess moisture to evaporate before it undergoes kiln drying. Exposing the logs to ambient conditions for at least a week is crucial for proper preparation. Efficient sawmilling streamlines subsequent processes by organizing wood pieces by size and type, reducing the risk of damage during drying.

Kiln Drying

To ensure the wood is properly dried, kiln drying is performed to remove moisture. Achieving a moisture content of approximately 12–15% is vital to prevent issues like warping and cracking. This drying process can take between two to four weeks, influenced by the wood type, thickness, and drying conditions.

Both hardwood and softwood require effective kiln drying to maintain stability, especially softwoods that are prone to cracking if dried too quickly. Utilizing appropriate equipment is crucial in this phase to preserve the integrity of the wood, setting the stage for the next steps.

Cutting and Shaping

Once dried, the wood undergoes cutting and shaping. This involves using CNC machines or saw cutters to slice the wood into precise dimensions required for furniture pieces. Accuracy during this stage is essential to ensure all components fit seamlessly during assembly.

Effective cutting reduces waste and minimizes delays in the later stages. CNC technology is particularly beneficial, providing both precision and efficiency. Once cut, the components are ready for the next step: planing and drilling.

Planing and Drilling

In this phase, wooden components are processed through a planer to achieve a smooth, even surface. Proper planing is critical for preparing the pieces for subsequent work.

Following planing, the components are drilled using specialized tools to create accurate joints for assembly. This step is vital for ensuring the strength and durability of the final product. Additionally, thorough inspection of the pieces for defects is conducted to meet quality standards before they move on to sanding.

Sanding the Components

Sanding is a key process in refining the surfaces of all components before assembly. It ensures each piece is smooth and correctly sized, while also eliminating any minor imperfections that may have occurred during earlier stages.

Effective sanding enhances the quality of the finished product and prepares the wood for any coatings that may be applied later. Well-sanded furniture is also more resistant to wear over time, making it ready for assembly into the final product.

Assembling the Furniture

The assembly stage is critical in the furniture production process. This involves joining various components to create the final product. Depending on the design, some parts may be pre-assembled before finishing, while others are joined afterward.

This process demands precision and attention to detail to ensure that all pieces fit together correctly. The application of glue is essential for creating a solid, sturdy structure. Any imperfections in joints are addressed during assembly to maintain quality. While assembly may take time, it is integral to the durability and longevity of the furniture. After assembly, the product moves to the finishing stage.

Applying the Finish

Finishing provides the final touch to furniture, enhancing its aesthetic appeal and protecting it from damage. Coatings are applied to safeguard the wood from moisture and pests.

Whether finishing occurs before or after assembly depends on the type of furniture. Proper application ensures a long-lasting and attractive outcome. This stage also allows for customization, as various finishes can be used to achieve different looks. Once finished, the product is ready for packaging.

Packaging for Shipment

After finishing, furniture is transported to the packaging area, where it is prepared for delivery. Necessary accessories like handles, keys, or wheels are affixed as needed. Packaging methods vary based on product quality and destination.

High-end items or those shipped long distances require robust packaging to avoid damage during transit. Effective packaging is crucial for ensuring that the furniture arrives in perfect condition, upholding the manufacturer’s reputation. With the packaging complete, the wood furniture production process comes to a close.

DN Solutions Introduces New DNX Multi-Tasking Mill-Turn Series at IMTS and AMB

DN Solutions, a leading global manufacturer of precision CNC machine tools, has unveiled its latest entry-level multi-tasking mill-turn machine series at two major international exhibitions: IMTS in Chicago (September 9-14) and AMB in Stuttgart (September 10-14).

As the third-largest CNC machine tool manufacturer worldwide, DN Solutions showcased its new DNX 2100 series, which is designed to offer advanced multi-functional capabilities at a more accessible price point. This new range fills the gap between the company’s popular Puma 2100SY turning centers, equipped with a Y-axis and sub-spindle, and its higher-end SMX 2100S/ST mill-turn models. With the DNX series, manufacturers can access more integrated machining functions than those offered by the Puma models but at a lower cost than the SMX series.

The DNX 2100 models, specifically the DNX 2100SB and DNX 2100S, come equipped with an 8-inch chuck, two built-in spindles (left and right), both capable of reaching 5,000 RPM, as well as a B-axis milling head with a speed of 12,000 RPM. The machine also features an automatic tool changer (ATC) with 40 tools as standard, with an option to upgrade to 60 tools, and it is controlled by the Fanuc 0i-TF Plus system.

This versatile machine series enables manufacturers to efficiently produce complex and high-precision components in a single setup. Compared to traditional Y-axis lathes with driven tools and a sub-spindle, the DNX 2100 offers greater productivity and flexibility, thanks to its larger tool capacity and multi-tasking capabilities.

With two model variants soon to be available, DN Solutions aims to provide component manufacturers with the tools to meet their diverse production needs, while maintaining cost-efficiency and high-quality performance.

Transforming Machining Processes Through Artificial Intelligence

The influence of artificial intelligence (AI) on machining is substantial. By offering intelligent suggestions, AI simplifies the programming phase, enabling novice operators to make informed choices and minimizing mistakes. George Chen, Senior Marketing and Business Development Manager at DELMIA, discusses how AI can streamline and enhance machining operations.

The Role of AI in Automation and Manufacturing

In the fields of automation and manufacturing, the incorporation of AI into CNC (Computer Numerical Control) machining is rapidly reshaping the landscape. As organizations strive for greater accuracy, improved efficiency, and cost reduction, AI-enhanced CNC machining stands out as a revolutionary advancement. This article delves into the significant advantages of AI in CNC machining, bolstered by important data and insights highlighting its transformative effects.

Understanding CNC Machine Automation

At its core, CNC machinery operates through automation, utilizing computer programs to dictate the actions of tools such as lathes, mills, and grinders. This automation ensures high levels of precision and consistency throughout manufacturing processes.

With the integration of AI, CNC machines can further enhance their functionality. AI algorithms are capable of optimizing cutting paths, anticipating maintenance needs, and making on-the-fly adjustments during operations. This leads to less waste, quicker production timelines, and lower operating costs.

Machine learning, a key aspect of AI, also plays a vital role in CNC machining by boosting accuracy. By assessing historical performance data and current conditions, machine learning algorithms can predict tool degradation and fine-tune machining settings. This predictive ability extends the lifespan of tools and reduces downtime.

For instance, AI can sift through extensive datasets from prior machining activities to discern trends and enhance future operations, leading to more efficient production timelines and overall productivity improvements.

AI: A New Era for CNC Machining Techniques

CNC machining has long been essential to manufacturing, known for its precision and reliability. However, AI is introducing innovative capabilities that push beyond traditional boundaries, including advancements in predictive maintenance, process optimization, and real-time quality assurance.

  1. Precision and Quality Assurance AI improves CNC machining accuracy by utilizing real-time analytics. According to a 2023 Deloitte report, AI-driven quality control can reduce defect rates by nearly 50%. AI systems analyze sensor data from CNC machines, identifying inconsistencies that might escape human attention. This leads to more consistent product quality and greater customer satisfaction.
  2. Predictive Maintenance and Cost Efficiency AI is transforming how manufacturers manage equipment maintenance. Research from McKinsey indicates that AI-powered predictive maintenance can lower maintenance costs by up to 25% and decrease unplanned downtime by 30-40%. By evaluating historical data and real-time sensor information, AI can predict potential failures, allowing for timely maintenance that averts costly interruptions.
  3. Toolpath Optimization The importance of AI in refining production scheduling cannot be overstated. A 2024 study published in the International Journal of Production Economics revealed that AI-optimized scheduling can enhance production efficiency by up to 20%. AI can automatically generate and refine toolpaths, manage machine availability, and cut lead times, facilitating smoother operations and increased throughput.
  4. Advanced Automation Processes The introduction of AI in automating intricate machining tasks significantly boosts productivity. A Deloitte survey shows that nearly 70% of manufacturers implementing smart technologies are using AI to enhance operational efficiency. AI systems can handle setup tasks, tool changes, and adapt to new designs with minimal human oversight, resulting in shorter production cycles and reduced human error.
  5. Flexibility and Customization Rapid adaptability to changing production demands is becoming crucial. AI enhances the flexibility of CNC machining by enabling quick adjustments to manufacturing parameters. This discussion highlights the reduced time needed to reconfigure machinery for diverse products and the pivotal role AI systems play in achieving this flexibility. Such adaptability allows manufacturers to meet rising demands for customized and small-batch production without sacrificing efficiency.

Can AI Program CNC Machines?

Absolutely! AI can program CNC machines by utilizing advanced algorithms to automate and enhance various programming facets, such as generating essential G-code and M-code for machine control. Key steps include:

  • Evaluating 3D Models: AI examines CAD designs to comprehend the part’s geometry and features.
  • Simulating Tool Paths: The system tests different tool paths to identify the most efficient routes, minimizing material waste and machining duration.
  • Parameter Optimization: AI fine-tunes machining parameters like feed rates and spindle speeds based on material and equipment capabilities.

For instance, when dealing with complex shapes, AI can ascertain the most effective cutting strategies to ensure precise results, thereby reducing the necessity for manual programming and minimizing errors.

Real-World Applications and Outcomes

Leading companies are already benefiting from AI-enhanced CNC machining:

One prominent utility firm has integrated AI to enhance predictive maintenance and process efficiency, achieving a 20% increase in equipment uptime and a 15% reduction in maintenance expenses. By leveraging AI for machine data analysis and failure predictions, they have enhanced productivity while lowering operational costs through optimized maintenance scheduling.

Similarly, an engineering and technology enterprise that adopted AI in its CNC machining processes saw a remarkable 40% decrease in defect rates. AI-driven quality monitoring continuously analyzes production metrics and sensor data, quickly detecting and addressing discrepancies. This proactive strategy mitigates potential issues before they affect the final product, improving overall quality.

Revolutionizing Machining with AI Innovations

AI-driven solutions, like DELMIA Machining, are leading the charge in automation and manufacturing innovation, significantly refining CNC machining practices. One of their standout features includes the capability to automatically recommend optimal toolpaths based on selected geometries. This feature is particularly advantageous for less experienced users in the programming phase.

When novice programmers tackle new parts, they often struggle to identify the best machining operations. However, an AI-guided toolpath proposal system alleviates this challenge by offering smart recommendations rooted in historical data. This system employs a neural network trained on various common geometries, identifying patterns to suggest suitable machining operations.

The ramifications of this AI functionality are considerable. It streamlines the programming process by delivering informed suggestions, aiding less experienced users in decision-making, and reducing the risk of errors. This automated guidance accelerates setup times and improves machining accuracy, leading to greater efficiency, reduced programming durations, and more consistent product quality for manufacturers.

Acumatica to Present New Supply Chain Management Tools and Upcoming User Interface at IMTS 2024

Acumatica is unveiling key updates to its Manufacturing Edition ERP software, showcasing the company’s continued dedication to addressing the evolving demands of its customer base. As part of its mission to improve offerings for manufacturers, Acumatica has introduced several new features aimed at helping businesses manage the complexities of modern supply chains and optimize inventory forecasts with precision.

These innovations will be presented at IMTS 2024, the largest manufacturing technology exhibition in North America, taking place from September 9-14 in Chicago, Illinois. During the event, Acumatica will demonstrate its recent advancements, with a particular focus on upgrades to its Material Requirements Planning (MRP) system. The MRP system streamlines supply chain operations by enhancing demand forecasting, supporting time-phased purchase and production planning, recommending kit assembly, and facilitating warehouse transfers.

“Attendees at IMTS will have the chance to explore how our latest solutions allow manufacturers to enhance their workflows and maximize productivity,” commented Debbie Baldwin, Acumatica’s Director of Product Management for Manufacturing. “Our innovations are inspired by our customers’ needs, and we’re confident the new MRP tools will bring considerable improvements to their daily processes.”

The updated MRP solution delivers a range of advanced functionalities designed to support manufacturers, such as:

  • Predicting stock and non-stock component needs to better inform material demand.
  • Customizable planning horizons that permit businesses to define time-specific data for more precise supply and demand analysis.
  • Improved MRP and Distribution Requirements Planning (DRP) settings, allowing the inclusion or exclusion of certain sales orders, making planning more accurate by omitting returns or irrelevant orders.
  • The option to mark certain warehouses as inactive in the MRP/DRP settings, excluding them from future inventory predictions.

Acumatica’s team will also introduce the platform’s redesigned user interface (UI) to visitors at IMTS. Initially previewed at the Acumatica Summit 2024 and currently in development, this upcoming UI promises an elevated user experience with extensive customization options and an intuitive layout.

“At Acumatica, we’ve always focused on usability as a priority in our product development,” Baldwin noted. “We know that technology must be both powerful and easy to use. Our new UI reflects our commitment to offering manufacturers tools that not only solve complex challenges but are also enjoyable to work with.”

For more information about Acumatica’s solutions for manufacturers, visit booth 133112 at IMTS or check out www.acumatica.com.

Comau Unveils Comprehensive Manufacturing Solution for Hairpin Stators

In response to the rising demand for electric motors within the automotive industry, Comau has introduced an advanced suite of automated machinery tailored for the efficient production of hairpin stators.

With over half a century of experience, Comau has solidified its position as a global provider of assembly and machining solutions for the automotive sector. Their expertise spans the development of industrial robots and IoT platforms. Recently, the company expanded its offerings with a full lineup of machines dedicated to producing hairpin stators—key components in electric motors that power electric vehicles and require specialized production techniques.

New Hairpin Stator Manufacturing Solutions

To meet the evolving needs of electric vehicle manufacturers, Comau has launched an extensive range of machines specifically engineered for hairpin stator production. The new portfolio includes equipment for wire forming, insertion, twisting, and laser welding. Unlike one-size-fits-all systems, these machines are designed with flexibility and scalability in mind, enabling manufacturers to adapt as production requirements evolve.

Each unit has been optimized for a compact footprint and streamlined production setup. The automated process allows for real-time monitoring, ensuring that potential issues are identified early, minimizing downtime. Additionally, Comau focused on energy efficiency during the design phase, in line with the sustainability goals of electric vehicle production.

Advanced Wire Forming and Insertion Technology

The wire forming machine offers a fully automated process that handles tasks such as unwinding, straightening, paint stripping, cutting, 2D numerical control (NC) forming, and 3D mold shaping. The machine achieves a rapid cycle time of under 2 seconds. It also ensures high precision, with less than 0.2 mm deviation during the straightening phase. Configurable options for paint removal allow for either laser or mechanical processes, depending on specific needs.

This machine operates without manual intervention and features a high-speed gantry system for inserting formed wires into the stator. Insulating material is pressed between wires using a corolla press. The insertion machine accommodates various wire shapes, making it versatile for different product types.

Precision in Wire Shaping, Twisting, and Cutting

The process continues with specialized machines for wire widening, twisting, and cutting. These machines leverage precision servo and cam-driven technologies, offering customization based on specific end-product requirements. The design reduces burrs during cutting and ensures smooth twisting actions, with programmable settings for different stator models.

Laser Welding for High-Quality Connections

Comau’s wire welding machine utilizes laser technology to deliver deep weld penetration and high pull-out strength. The system supports multiple welding programs, catering to different part configurations. Manufacturers can choose between a standalone welding unit or a combined cutting and welding solution for increased production efficiency.

Global Production Capabilities

The hairpin stator modules are manufactured at Comau’s E-Motor Technology Center of Excellence in Shanghai. This strategic location allows Comau to efficiently serve a global market while staying connected to one of the world’s most dynamic hubs for electric vehicle development.

Mitsubishi Electric Expands Investment in Realtime Robotics to Boost Factory Automation Innovations

Mitsubishi Electric has significantly increased its stake in Realtime Robotics to bolster its advancements in factory automation solutions. This move underscores Mitsubishi’s commitment to integrating Realtime Robotics’ cutting-edge motion planning technology across its industrial automation offerings.

For years, Mitsubishi Electric has been a key player in providing a wide range of factory automation solutions, from PLCs to robotic systems, supporting automation projects in assembly and process industries. Since May 2019, Mitsubishi has been utilizing Realtime Robotics’ proprietary motion planning technology to enhance its industrial robot product line.

In a recent development, Mitsubishi has announced a substantial increase in its initial investment in Realtime Robotics. This strategic decision reaffirms Mitsubishi’s dedication to embracing digital transformation and optimizing technological capabilities.

Motion planning, also known as path planning, is a critical computational process used in robotics, computer animation, and gaming to determine the most efficient movement of objects from one point to another. As automation evolves, motion planning is increasingly applied to other devices like PLCs and CNC machines to optimize their operational efficiency and safety.

Mitsubishi aims to leverage Realtime Robotics’ software and control systems further by integrating motion planning technology into its simulation software. This integration will enable machine builders and robot programmers to develop precise programs and conduct accurate reach studies in a digital environment. Additionally, it supports the creation of digital twins for troubleshooting and maintenance in manufacturing facilities.

Another strategic initiative involves embedding motion planning technology into control system devices such as PLCs, servo drives, and CNC machines. By integrating efficient path calculation technology, Mitsubishi aims to enhance productivity, reduce energy consumption, and optimize operations across manufacturing processes.

As Mitsubishi Electric competes in the competitive landscape of factory automation, its increased investment in Realtime Robotics positions it as a leader in driving digital transformation and optimization within the industry. By expanding its collaboration with Realtime Robotics, Mitsubishi seeks to innovate and integrate advanced technologies into various factory automation devices, aiming to establish itself as a comprehensive digital engineering enterprise.

Ooznest Unveils CNC Machine for Hobbyists

Ooznest, a UK-based supplier known for RepRap 3D printer components, has launched the Ooznest OX, a high-quality CNC router kit designed for hobbyists.

Building on its origins in 3D printing at Cambridge, Ooznest is expanding into the wider maker community with the Ooznest OX. This new CNC machine allows users to create functional parts from materials such as wood, plastic, and aluminum.

The Ooznest OX is a comprehensive kit aimed at the hobbyist CNC market. It employs the widely favored V-Slot extrusion system, providing the machine with exceptionally smooth and precise linear motion. The machine features NEMA23 stepper motors driving all axes, with GT3 belt motion on the X and Y axes, and an ACME lead screw system for the Z axis. It uses the CNC xPro for motion control and includes cable carriers to ensure safe operation.

The fully assembled Ooznest OX is available now at different price points and sizes to meet various needs. Options include a 500x750mm model priced at £969 and a 1500x1500mm model for £1202.50. For more adventurous makers, a mechanical kit version starts at £570, offering a base platform to customize with different electronics and motors.

4o

Discover Breakthroughs: Key Attractions at GrindingHub 2024

GrindingHub 2024 is poised to be the leading event in the grinding technology industry, scheduled from May 14-17 in Stuttgart. Prior to the main exhibition, 14 exhibitors offered a preview of their latest advancements to 30 international trade journalists on March 21. This exclusive event highlighted innovative products and technologies that will be featured, underscoring GrindingHub’s role as a global innovation hub.

“We are thrilled that so many international firms, ranging from start-ups to established global players, have taken this opportunity to connect with prospective visitors early and showcase their key innovations,” stated Martin Göbel, Head of Trade Fairs and Events at VDW (German Machine Tool Builders’ Association), the organizer of GrindingHub.

Prominent participants included Adelbert Haas GmbH (Germany), Amiad Machining Fluid Filtration (Israel), Anca Europe GmbH (Australia/Germany), CemeCon AG (Germany), DMG Mori (Japan/Germany), Erwin Junker Maschinenfabrik GmbH (Germany), Fives Group (France), Meister Abrasives AG & Alfons Schmeier GmbH & Co. KG (Switzerland), Mitsubishi Electric BV (Japan/Germany), Pureon AG (Switzerland), STA Separatoren-Technik & Anlagenbau GmbH (Germany), Spanflug Technologies GmbH (Germany), and United Grinding Group Management AG (Switzerland). The preview also highlighted umati, a joint connectivity initiative by VDW and VDMA, and the ‘Grinder of the Year’ competition aimed at young professionals.

Peter Breuer from the Manufacturing Technology Institute (MTI) at RWTH Aachen University, presented a keynote on ‘Digital Assistance Systems in Grinding Technology,’ stressing the importance of linking research with industrial applications. His address emphasized GrindingHub’s dedication to promoting the practical use of scientific advancements.

Significant Growth and International Engagement

Since its inception, GrindingHub has quickly gained significant attention. Göbel mentioned that exhibitor interest remains strong, with 487 exhibitors from 31 countries already registered, covering 40 segments of the grinding process chain. The largest groups of exhibitors hail from Germany, Switzerland, China, Italy, and Japan.

The grinding technology sector saw remarkable economic performance in 2023. German production surged by 15% to €1.1 billion, surpassing the overall growth of the machine tool industry, which was 9%. Exports increased by 15%, imports by 11%, and consumption by 13%, positioning Germany as the world’s second-largest market for grinding technology. These figures highlight the sector’s robustness and the vital role of events like GrindingHub in driving growth.

A Boost for Recovery

Despite the positive 2023 figures, the forecast for 2024 is less optimistic due to a slowdown in new orders. Göbel highlighted the crucial role of GrindingHub in stimulating recovery and growth within the sector. The exhibition offers an essential platform for companies to display their innovations, establish partnerships, and stimulate economic momentum during challenging periods.

GrindingHub 2024 is a must-attend event for anyone involved in the grinding technology sector, providing a glimpse into the latest advancements and opportunities to network with leading industry figures. Don’t miss the chance to witness the future of grinding technology firsthand.