Jenny Science AG

Direct Drive Achsen in Minuten in Betrieb nehmen | WebMotion® Quick Start Wizard https://www.youtube.com/watch?v=vnR2Sj0_ICE Jenny Science präsentiert den neuen Quick Start Wizard in WebMotion® für XENAX® Xvi Servo-Controller. Der Assistent vereinfacht die Inbetriebnahme von Direct Drive Achsen und reduziert den Aufwand auf wenige Minuten. 5 einfache Schritte: - Achse identifizieren - Bewegte Masse eingeben - Masse anpassen - Gain einstellen - Maximale Dynamik testen Keine Softwareinstallation. Keine komplizierte Parametrierung. Keine aufwendigen Tuning-Prozesse. Die browserbasierte WebMotion® Oberfläche ermöglicht eine schnelle und intuitive Inbetriebnahme direkt im Servocontroller. Vorteile: ✔ Vereinfachte Inbetriebnahme ✔ Weniger Konfigurationsfehler ✔ Schnellere Maschinen-Inbetriebnahme ✔ Browserbasierte Bedienung mit WebMotion® ✔ Optimiert für XENAX® Xvi Servo-Controller Jetzt herunterladen: https://ift.tt/u0AY7DL 🔔 Subscribe for more motion control insights: https://www.youtube.com/@JennyScienceAG/?sub_confirmation=1 🌐 Mehr über Jenny Science: https://ift.tt/bDp3znq 💼 LinkedIn: https://ift.tt/lIkpLg5 📩 Business Inquiries: [email protected] 🎥 Weitere Videos: • Force Measurement with Forceteq® Pro → https://youtu.be/JwsLVII3Stw • LINAX® Lxu F60S – Industrial Automation Demo → https://youtu.be/Qu3zm8G6XR4 • LINAX® Lxs F60S – Compact Precision Drive → https://youtu.be/SyFWXBQiTzA • How To Update Firmware & WebMotion on XENAX® Controller → https://youtu.be/bc6KesSkGfg #DirectDrive #ServoController #MotionControl #Automation #Maschinenbau #JennyScience © Jenny Science AG – Simplify Motion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww May 19, 2026 at 02:35PM

Injection Pen Testing | Real-Time Torque Control with ROTAX® Rxhq & Forceteq® pro https://www.youtube.com/watch?v=UPnvZLnbEX4 How much torque does it take to open an injection pen? We know. Down to 10 mNm. This application demonstrates precise torque measurement and active torque control directly in the automation process. ROTAX® Rxhq opens the injection pen, while the Signateq® measurement amplifier captures the torque in real time. Forceteq® pro does not just measure. It actively controls. What this enables: – live torque vs. position curve – active torque control directly in the process – immediate detection of deviations – highly repeatable testing processes – real-time quality monitoring One pen. Hundreds of data points. No room for error. Products used in this application: – ROTAX® Rxhq hollow shaft rotary stage – Forceteq® pro – Signateq® measurement amplifier – XENAX® servo controller 🔔 Subscribe for more motion control insights: https://www.youtube.com/@JennyScienceAG/?sub_confirmation=1 🌐 Learn more about our linear motors and servo controllers: https://ift.tt/heyEQcF 💼 Connect with us on LinkedIn: https://ift.tt/AWDSIpN 📩 For business inquiries: [email protected] 🎥 More Jenny Science videos: • Force Measurement with Forceteq® Pro → https://youtu.be/JwsLVII3Stw • LINAX® Lxu F60S – Industrial Automation Demo → https://youtu.be/Qu3zm8G6XR4 • LINAX® Lxs F60S – Compact Precision Drive → https://youtu.be/SyFWXBQiTzA • How To Update Firmware & WebMotion on XENAX® Controller → https://youtu.be/bc6KesSkGfg #JennyScience #SwissEngineering #Automation #LinearMotor #ServoController #Forceteq #PrecisionEngineering #MotionControl #SimplifyMotion © Jenny Science AG – Simplify Motion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww May 11, 2026 at 06:18PM

INTAX | Plug & Work Motion Control | Jenny Science https://www.youtube.com/shorts/-SLD0EREOYE Complexity is history. This is INTAX. • Integrated servo controller • Absolute position sensing no homing required • USB C web interface no setup • Compact design with fully integrated wiring Plug and Work INTAX makes high tech simple. Jenny Science – Simplify Motion. 🔗 Learn more: https://ift.tt/KV1kzEC #JennyScience #INTAX #MotionControl #Automation #SwissEngineering © Jenny Science AG – Simplify Motion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww April 17, 2026 at 10:00PM

Injection Pen Assembly | Faster. Safer. Simpler. | Jenny Science https://www.youtube.com/shorts/C1Z0HTohZsI 💉 Precision matters in injection pen assembly. With Forceteq®: → 10,000 updates/sec → No external force sensors → Faster & safer processes #Automation #MedicalTech #Precision #MotionControl © Jenny Science AG – Simplify Motion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww April 8, 2026 at 10:00PM

Automatic Diamond Sorting | Zero Backlash Precision | Jenny Science https://www.youtube.com/shorts/jZUjRapUzmg 💎 Tiny. Valuable. Zero margin for error. Automatic diamond sorting demands absolute precision. The DMS/8 Fancy Unit, developed by BUKO in Belgium, combines: → Optical inspection → Flexible feeding (Asyril) → High-speed automation At its core: Jenny Science linear motor technology ensures precise positioning – every single cycle. No vibration. No backlash. Just controlled motion. Simplify Motion. #Automation #MotionControl #SwissEngineering #Precision #LinearMotor via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww April 1, 2026 at 07:00PM

When the servo controller is the brain and the motor is the muscle | Jenny Science https://www.youtube.com/shorts/AbFbp4MAUoU A direct drive works when intelligence and force move in perfect synchronisation The brain thinks steers connects The muscle delivers force dynamics repeatability In our systems both become one The controller provides intelligence The linear motor provides movement Direct synchronised without mechanical loss From idea to finished motion system Engineered for maximum performance This is Jenny Science Knowledge Thinking Precision Jenny Science Simplify Motion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww March 10, 2026 at 10:00PM

Implementing Feedback Mechanisms in Linear Actuators for Better Control https://www.youtube.com/watch?v=mEZDMOuOoy8 Linear actuator feedback systems and limit switches — motion control vs. motion protection explained. In this video, we explain how linear actuator feedback systems and limit switches work together to control and protect industrial motion systems. If you are designing automation equipment, understanding the difference between feedback and safety functions is essential for reliable operation. What you’ll learn in this video: • How a linear actuator with limit switches protects the mechanical end of travel • The role of a limit switch for a linear actuator in system safety • How a linear actuator proximity switch works for non-contact detection • Why precise motion control depends on linear actuator feedback systems, not on limit switches • How feedback and limit switches complement each other in industrial automation Feedback systems in linear actuators: In modern electric linear actuators, motion control is based on continuous feedback. Servo-controlled linear axes constantly measure position and speed, enabling closed-loop regulation with high accuracy and repeatability. These linear actuator feedback systems are essential for: • Assembly and insertion processes • Testing and inspection • Precise positioning and handling • Repeatable, cycle-stable motion At Jenny Science, linear axes such as LINAX® and ELAX® operate with integrated position feedback as part of a servo system. Motion data is processed by XENAX® servo controllers and communicated to the PLC via industrial fieldbuses such as EtherCAT, PROFINET, Ethernet/IP, or POWERLINK. Limit switches — protection, not control: A limit switch for a linear actuator serves a different purpose than feedback. Limit switches define the mechanical end of travel and prevent motion beyond the allowed range. They are used for safety, commissioning, and fault protection—not for precise positioning. Common implementations include: • Internal end-of-travel switches • External mechanical limit switches • Linear actuator proximity switches for non-contact detection • How they work together In industrial systems, feedback handles accurate motion control, while limit switches provide an independent safety layer. In machines with multiple linear actuators, this combination ensures each axis moves precisely while the overall system remains protected against unexpected conditions. Conclusion: Accurate linear motion is achieved through servo-based linear actuator feedback systems, not through limit switches. Limit switches exist to protect the mechanics—not to control motion. Understanding this distinction is key when designing reliable, industrial-grade linear actuator systems. 🔔 Subscribe for more motion control insights: https://www.youtube.com/@JennyScienceAG/?sub_confirmation=1 🌐 Learn more about our linear motors and servo controllers: https://ift.tt/twU0RQf 💼 Connect with us on LinkedIn: https://ift.tt/IDiHfRw 📩 For business inquiries: [email protected] 🎥 More Jenny Science videos: • Force Measurement with Forceteq® Pro → https://youtu.be/JwsLVII3Stw • LINAX® Lxu F60S – Industrial Automation Demo → https://youtu.be/Qu3zm8G6XR4 • LINAX® Lxs F60S – Compact Precision Drive → https://youtu.be/SyFWXBQiTzA • How To Update Firmware & WebMotion on XENAX® Controller → https://youtu.be/bc6KesSkGfg #JennyScience #SwissEngineering #Automation #LinearMotor #ServoController #Forceteq #PrecisionEngineering #MotionControl #SimplifyMotion © Jenny Science AG – Simplify Motion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww March 10, 2026 at 02:00PM

Linear Drives vs Linear Motors: Choosing the Right Option https://www.youtube.com/watch?v=r18AFn_0mi0 Linear motors explained — how direct-drive linear motion really works. In this video, we explain what a linear electric motor is, how a linear electromagnetic motor works, and when it makes sense to use a linear motor instead of a mechanical drive such as a linear drive screw. A linear motor generates motion directly in a straight line. Unlike conventional systems, there is no spindle, belt, or gearbox between the motor and the load. Force is produced electromagnetically and applied directly to the axis, resulting in highly precise and repeatable motion. What you’ll learn in this video: • The working principle of a linear electric motor • How linear motors and actuators differ from mechanical linear drives • Why direct-drive systems eliminate backlash and mechanical wear • When a mechanical linear drive screw is sufficient—and when it becomes a limitation • Typical applications where linear motors clearly outperform mechanical solutions Linear motors vs. mechanical linear drives: Mechanical linear drives are widely used for basic positioning tasks. They are robust and cost-efficient, but friction, backlash, and wear limit their performance—especially at higher speeds or tighter accuracy requirements. A linear electromagnetic motor, on the other hand, produces force without mechanical transmission. This direct-drive principle enables: • No backlash • No mechanical wear • Stable accuracy over millions of cycles • High speed and dynamic response That is why linear motors are used in precision automation, inspection systems, assembly processes, and compact industrial machines where motion quality is critical. Integrated linear motor systems: At Jenny Science, linear motor axes such as LINAX® and ELAX® are engineered as integrated direct-drive units. Motor, guide system, and feedback are optimized together as one compact axis, ensuring predictable behavior in demanding applications. Control and system integration: Linear motors are always part of a controlled system. With XENAX® servo controllers, linear motors and actuators are integrated into PLC-based automation via industrial fieldbuses such as EtherCAT, PROFINET, Ethernet/IP, or POWERLINK. This allows linear motors to operate seamlessly within existing machine architectures. Choosing the right technology: • Mechanical drives solve basic linear motion tasks • Linear motors solve precision, speed, and repeatability challenges • Understanding this difference is essential when evaluating linear motors for sale and selecting the right linear motion technology for your project. 🔔 Subscribe for more motion control insights: https://www.youtube.com/@JennyScienceAG/?sub_confirmation=1 🌐 Learn more about our linear motors and servo controllers: https://ift.tt/NmalkhP 💼 Connect with us on LinkedIn: https://ift.tt/WvAx1ul 📩 For business inquiries: [email protected] 🎥 More Jenny Science videos: • Force Measurement with Forceteq® Pro → https://youtu.be/JwsLVII3Stw • LINAX® Lxu F60S – Industrial Automation Demo → https://youtu.be/Qu3zm8G6XR4 • LINAX® Lxs F60S – Compact Precision Drive → https://youtu.be/SyFWXBQiTzA • How To Update Firmware & WebMotion on XENAX® Controller → https://youtu.be/bc6KesSkGfg #JennyScience #SwissEngineering #Automation #LinearMotor #ServoController #Forceteq #PrecisionEngineering #MotionControl #SimplifyMotion © Jenny Science AG – Simplify Motion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww March 6, 2026 at 02:00PM

Speed is easy. Synchronization is not. | Jenny Science https://www.youtube.com/shorts/imDnJ8ve9xs Dual linear motors. Real-time synchronization. Full speed. Full control. Jenny Science Simplify Motion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww March 2, 2026 at 11:00PM

When a motion system is built as one instead of assembled from compromises | Jenny Science https://www.youtube.com/shorts/UjoAymHR3Vg In modern automation performance comes from the interaction of motor guideway measurement and controller Not from a single component Mixing parts from different suppliers adds complexity Costs time Creates risk We remove that complexity A complete motion system from one source Perfectly aligned Consistent in design Swiss precision from the first millimeter to the last Newton Our portfolio XENAX servo controllers LINAX linear motors ELAX linear motor slides ROTAX hollow shaft rotary motors INTAX integrated motor axis Jenny Science Simplify Motion #JennyScience #SwissEngineering #MotionControl #DirectDrive #Automation #Precision #EngineeringExcellence #LINAX #ELAX #ROTAX #XENAX #INTAX #SimplifyMotion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww February 27, 2026 at 09:00PM

Top Micro and Miniature Linear Actuators for Compact Applications https://www.youtube.com/watch?v=upyI8AkhLXk Micro and Mini Electric Actuators – precise linear motion for compact systems. In this video, we explore mini electric actuators and how they enable accurate, repeatable linear motion in very limited installation spaces. Whether you are designing laboratory equipment, medical devices, or compact automation modules, choosing the right small linear actuator is critical for performance and reliability. We explain how tiny linear actuators and micro actuators are designed, where they are used, and how servo-based solutions improve motion quality in compact systems. What you’ll learn in this video: • The difference between a mini electric actuator, small linear actuator, and tiny linear actuator • Typical use cases for micro actuators in precision engineering • When a micro linear servo or mini linear servo motor is the better choice • How closed-loop control improves accuracy, repeatability, and smooth motion • Key selection criteria for compact linear motion systems Micro and Mini Linear Actuators Explained: A micro linear actuator is optimized for very small strokes, low moving mass, and fine positioning tasks. These actuators focus on precision rather than force and are commonly used for alignment, dosing, testing, and positioning lightweight components. As requirements increase, mini electric actuators and small linear actuators provide higher stiffness, longer stroke lengths, and better dynamic behavior—while remaining compact enough for space-constrained designs. Servo Control in Compact Actuators: For applications requiring consistent accuracy over many cycles, servo technology is essential. A micro linear servo or mini linear servo motor operates in closed loop, regulating position, speed, and motion profiles in real time. This enables: • Smooth acceleration and deceleration • Precise stopping points • Stable, repeatable motion over long operating periods • How to Choose the Right Small Linear Actuator When selecting a compact actuator, always consider: • Available installation space • Required stroke length • Positioning accuracy and repeatability • Speed and dynamic behavior • Controller and feedback integration Size alone does not define performance. The true value of micro actuators and mini electric actuators lies in controlled motion, predictable behavior, and reliable operation in compact designs. Conclusion: Mini and micro linear actuators enable precise, servo-controlled linear motion where conventional actuators are simply too large. With the right actuator and control concept, they become a key building block for modern compact automation systems. 🔔 Subscribe for more motion control insights: https://www.youtube.com/@JennyScienceAG/?sub_confirmation=1 🌐 Learn more about our linear motors and servo controllers: https://ift.tt/lwyHgN5 💼 Connect with us on LinkedIn: https://ift.tt/jT2iLf9 📩 For business inquiries: [email protected] 🎥 More Jenny Science videos: • Force Measurement with Forceteq® Pro → https://youtu.be/JwsLVII3Stw • LINAX® Lxu F60S – Industrial Automation Demo → https://youtu.be/Qu3zm8G6XR4 • LINAX® Lxs F60S – Compact Precision Drive → https://youtu.be/SyFWXBQiTzA • How To Update Firmware & WebMotion on XENAX® Controller → https://youtu.be/bc6KesSkGfg #JennyScience #SwissEngineering #Automation #LinearMotor #ServoController #Forceteq #PrecisionEngineering #MotionControl #SimplifyMotion © Jenny Science AG – Simplify Motion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww 2026-02-25T08:00:00Z

Understanding Linear Actuator Systems for Your Projects https://www.youtube.com/watch?v=oVSmkp3myiA Linear actuator installation and assembly — building modular motion systems. In this video, we explain how linear actuator installation and linear actuator assembly influence accuracy, reliability, and lifetime in modern automation systems. A motion system is more than a single axis—it combines actuator design, mechanical integration, wiring, control architecture, and coordinated operation. What you’ll learn: • Best practices for linear actuator installation to ensure alignment, stiffness, and repeatability • How proper linear actuator assembly prevents preload, wear, and performance loss • How to design systems with multiple linear actuators in modular machine concepts • Why clean actuator wire routing and strain relief are critical for long service life • How an actuator module approach simplifies integration and scalability • The role of actuator design in reducing backlash and improving motion quality Modular actuator systems in practice: At Jenny Science, linear actuator modules such as LINAX® and ELAX® are engineered as modular building blocks. These actuator modules can be combined into XY tables, gantry systems, or multi-axis arrangements while keeping integration effort low and system geometry compact. Assembly and wiring considerations: During linear actuator assembly, precise mechanical alignment is essential to avoid guide preload. Equally important is robust actuator wire management—strain relief and clean routing minimize bending stress and reduce long-term wear. A structured wiring concept also simplifies commissioning and maintenance. Coordinating multiple linear actuators: In machines using multiple linear actuators, synchronized motion is handled at the control level. XENAX® servo controllers integrate into PLC environments to manage sequencing, synchronization, and system logic. Support for industrial fieldbuses such as EtherCAT, PROFINET, Ethernet/IP, and POWERLINK enables seamless integration into existing automation architectures. Why actuator design matters: Thoughtful actuator design—especially direct-drive electric actuators—reduces mechanical complexity, eliminates backlash, and enables smooth motion profiles. With integrated feedback and optional force monitoring via Forceteq®, systems can be optimized for precise positioning and controlled-force applications. Conclusion: Reliable linear motion comes from correct linear actuator installation, clean assembly, modular actuator module design, and proper control integration. This system-level approach transforms individual linear actuators into scalable, predictable motion solutions. 🔔 Subscribe for more motion control insights: https://www.youtube.com/@JennyScienceAG/?sub_confirmation=1 🌐 Learn more about our linear motors and servo controllers: https://ift.tt/sDaW4Ct 💼 Connect with us on LinkedIn: https://ift.tt/BkHgtEp 📩 For business inquiries: [email protected] 🎥 More Jenny Science videos: • Force Measurement with Forceteq® Pro → https://youtu.be/JwsLVII3Stw • LINAX® Lxu F60S – Industrial Automation Demo → https://youtu.be/Qu3zm8G6XR4 • LINAX® Lxs F60S – Compact Precision Drive → https://youtu.be/SyFWXBQiTzA • How To Update Firmware & WebMotion on XENAX® Controller → https://youtu.be/bc6KesSkGfg #JennyScience #SwissEngineering #Automation #LinearMotor #ServoController #Forceteq #PrecisionEngineering #MotionControl #SimplifyMotion © Jenny Science AG – Simplify Motion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww February 20, 2026 at 02:00PM

When an autoinjector is tested more precisely than it is built | Jenny Science https://www.youtube.com/shorts/hliibc5aXCw This video shows how ROTAX and ELAX elevate autoinjector testing with exact force control dynamic motion and absolute repeatability Forceteq measures force and position directly inside the servo controller No external sensors No delay No added error sources What this enables • Instant detection of malfunctions • Precise testing of springs and dosing mechanisms • Shorter cycle times through direct force control • Stable and safe production processes • Maximum patient safety Autoinjectors are not only built They are tested More precisely than ever Jenny Science Simplify Motion #JennyScience #MedTech #MotionControl #DirectDrive #ForceControl #Forceteq #Automation #SwissEngineering #Precision #HighSpeedAutomation #QualityControl #SimplifyMotion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww February 18, 2026 at 10:01PM

Linear Stepper Motors vs Servo Actuators: Which One to Choose? https://www.youtube.com/watch?v=HjX_eknkr2M Stepper motor linear actuator vs. servo linear actuator — why direct-drive linear motors perform better. In this video, we explain why Jenny Science does not use stepper motor technology in any of its linear actuators—and why all Jenny Science systems are based on direct-drive servo linear motors instead. If you work in automation, robotics, test engineering, or precision machinery, this distinction is critical. It directly impacts speed, accuracy, lifetime, and overall machine reliability. Stepper Motor Linear Actuators — strengths and limitations: A stepper motor linear actuator converts discrete motor steps into linear motion, typically using a spindle or mechanical transmission. They are commonly used for: • Low-cost positioning • Light loads • Short travel distances • Simple open-loop motion However, stepper-based solutions—including mini stepper motor linear actuators—reach clear limits in demanding applications: • Torque drops significantly at higher speeds • No true closed-loop control without additional feedback hardware • Mechanical wear, backlash, and friction • Limited dynamics and acceleration • Thermal buildup during continuous operation For modern automation, these factors quickly become performance bottlenecks. Servo Linear Actuators and Direct-Drive Technology: A servo linear actuator operates in full closed loop, continuously monitoring position and motion. A linear servo motor generates motion directly—without spindle, gearbox, or belt. Jenny Science exclusively uses direct-drive architectures such as: • ELAX® linear motor slides • LINAX® linear motor axes • This form of servo linear motion delivers: • High dynamics and acceleration (up to 3 m/s) • Repeatability down to ±1…5 µm • No mechanical backlash or wear • Long lifetime with minimal maintenance • Stable performance over millions of cycles With XENAX® servo controllers, these systems provide precise servo motor control and can integrate force measurement via Forceteq® when required. Where Direct-Drive Outperforms Stepper Systems: Compared to any servo motor linear actuator based on mechanical transmission, direct-drive systems offer: • Higher stiffness • Better thermal stability • Superior repeatability • Higher speed and acceleration • Consistent cycle-to-cycle accuracy This makes them ideal for assembly automation, material testing, pick-and-place systems, semiconductor handling, and laboratory automation. Conclusion: Jenny Science does not use stepper technology for one simple reason: Direct-drive servo linear motors deliver more precision, more speed, more lifetime, and more reliability. By eliminating mechanical transmissions entirely, direct-drive systems achieve motion quality that stepper solutions cannot match. If you want to learn more about direct-drive linear motor axes, force-controlled motion, or advanced servo motor control, explore our other videos. Thanks for watching. 🔔 Subscribe for more motion control insights: https://www.youtube.com/@JennyScienceAG/?sub_confirmation=1 🌐 Learn more about our linear motors and servo controllers: https://ift.tt/2oOMXyg 💼 Connect with us on LinkedIn: https://ift.tt/n4ip63U 📩 For business inquiries: [email protected] 🎥 More Jenny Science videos: • Force Measurement with Forceteq® Pro → https://youtu.be/JwsLVII3Stw • LINAX® Lxu F60S – Industrial Automation Demo → https://youtu.be/Qu3zm8G6XR4 • LINAX® Lxs F60S – Compact Precision Drive → https://youtu.be/SyFWXBQiTzA • How To Update Firmware & WebMotion on XENAX® Controller → https://youtu.be/bc6KesSkGfg #JennyScience #SwissEngineering #Automation #LinearMotor #ServoController #Forceteq #PrecisionEngineering #MotionControl #SimplifyMotion © Jenny Science AG – Simplify Motion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww February 14, 2026 at 02:00PM

When a smartphone is tested more precisely than it is built| Jenny Science https://www.youtube.com/shorts/3n_1tA8Qz88 This video shows how our direct drives test smartphone buttons with reproducible force and absolute repeatability What this enables • Precise button testing in tight spaces • Live force values in real time • Intuitive control with WebMotion • Dynamic motion with LINAX ELAX ROTAX This is modern electronics testing Fast Precise Efficient Jenny Science Simplify Motion #JennyScience #MotionControl #DirectDrive #ForceControl #Automation #SwissEngineering #SmartphoneTesting #Precision #EngineeringExcellence #HighSpeedAutomation #SimplifyMotion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww February 11, 2026 at 04:00PM

Industrial robot vs. direct drive | Jenny Science https://www.youtube.com/shorts/QRwpG7cZJj4 Who wins the race against time An industrial robot Or a compact direct drive from Jenny Science Both place diamonds Both start at zero But only one keeps precision and dynamics over time The difference is mechanical A robot moves through joints gears transmissions Play friction wear grow with every cycle Our direct drive moves clean and direct No gears No joints No drift Stable for millions of cycles The result Higher dynamics Higher repeatability Less service Consistent process time for years Direct drive instead of complex kinematics Fewer parts Less wear More precision Jenny Science Simplify Motion #JennyScience #SwissEngineering #MotionControl #DirectDrive #Automation #Precision #EngineeringExcellence #HighSpeedAutomation #SimplifyMotion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww February 06, 2026 at 09:01PM

Best Linear Actuators for Robotics: What You Need to Know https://www.youtube.com/watch?v=7T-z3ZElQRc Actuators in robotics — combining linear and rotary motion for precise robotic systems. In modern robotics, motion is rarely purely linear or purely rotary. Most systems combine multiple actuator types to achieve compact design, high precision, and repeatable performance. In this video, we explain how electric actuators in robotics are used, how linear and rotary motion work together, and where each actuator type delivers the most value. What you’ll learn in this video: • The role of a robot arm actuator in robotic systems • How an industrial electric linear actuator is used for positioning, pressing, and testing • Where a robotic joint actuator fits into handling, orientation, and assembly tasks • How electric actuators in robotics enable flexible, modular system design • Why combining linear and rotary actuators improves performance and compactness Linear actuators in robotics Linear actuators are widely used in robotics for: • Vertical Z-motion • Precise positioning • Pressing and insertion tasks • Measurement and testing operations Compact linear axes such as LINAX® and ELAX® from Jenny Science are integrated around robots as modular motion units. These solutions provide accurate linear movement with high repeatability and are optimized for limited installation space. Rotary actuators for robotic joints Rotary motion is essential for orientation and handling. A robotic joint actuator enables: • Indexing and rotation • Tool and part orientation • Precise angular positioning Direct-drive rotary actuators such as ROTAX® eliminate mechanical backlash and deliver smooth, precise angular motion—ideal for robotic handling and assembly processes. Combining linear and rotary motion Many robotic systems use both actuator types together. A common setup combines: • A linear actuator for positioning • A rotary actuator for orientation • This modular approach allows machine builders to design flexible robotic cells without increasing mechanical complexity. • Control integration and force-sensitive processes Motion coordination is handled at system level. Servo controllers are integrated into the PLC environment, where synchronization, sequencing, and interaction with the robot controller are defined. Standard industrial fieldbuses such as EtherCAT, PROFINET, Ethernet/IP, and POWERLINK enable seamless integration. For sensitive robotic processes, actuators can be combined with position feedback and optional force monitoring. This supports force-limited tasks such as insertion, testing, and precision assembly. Conclusion: Actuators in robotics are not about a single motion type. By combining linear actuators and rotary actuators, robotic systems achieve higher precision, flexibility, and compactness—exactly where it matters most in modern automation. 🔔 Subscribe for more motion control insights: https://www.youtube.com/@JennyScienceAG/?sub_confirmation=1 🌐 Learn more about our linear motors and servo controllers: https://ift.tt/JG5dVxe 💼 Connect with us on LinkedIn: https://ift.tt/2r0aTxE 📩 For business inquiries: [email protected] 🎥 More Jenny Science videos: • Force Measurement with Forceteq® Pro → https://youtu.be/JwsLVII3Stw • LINAX® Lxu F60S – Industrial Automation Demo → https://youtu.be/Qu3zm8G6XR4 • LINAX® Lxs F60S – Compact Precision Drive → https://youtu.be/SyFWXBQiTzA • How To Update Firmware & WebMotion on XENAX® Controller → https://youtu.be/bc6KesSkGfg #JennyScience #SwissEngineering #Automation #LinearMotor #ServoController #Forceteq #PrecisionEngineering #MotionControl #SimplifyMotion © Jenny Science AG – Simplify Motion via Jenny Science AG https://www.youtube.com/channel/UCjWsIm0BVRObYMt9nmyn6ww February 02, 2026 at 02:00PM