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Ready to dive into the 2024-2025 FIRST® Tech Challenge (FTC) season? Whether you’re a seasoned competitor or just starting, Studica Robotics has your back with the perfect solution to help you build, prototype, and compete—the FTC Starter Kit! This kit is crafted to power up your skills and boost your team’s confidence as you design, build, and test your robot for the season ahead.

 What's in the FTC Starter Kit?

The FTC Starter Kit (2024-2025) packs a range of high-quality robotics components designed for hands-on competition prep. It includes sturdy structural pieces, essential brackets, and reliable motion components, giving you everything you need to bring your robot to life. (Controllers not included.) View the full list of components.

Why Choose the FTC Starter Kit?

What’s New in the 2024-2025 Kit?

This season, we’ve upped the game with exciting updates tailored for the INTO THE DEEP challenge:

Ready to Start Building?

Your FTC Starter Kit has all the structural items and motion components needed to build a solid starter bot for this season’s INTO THE DEEP challenge. To compete in FTC, add a FIRST-approved REV Control Hub and Electronics Set, available through your FIRST Dashboard. At Studica Robotics, we’re dedicated to more than just selling components—we’re here to provide solutions. From top-quality products to expert support, our mission is to make robotics accessible and inspiring for students. We can’t wait to see what your team creates. Visit our website, get your FTC Starter Kit, and let’s build something amazing together. Best of luck to all teams competing this season!

In the fast-paced world of FTC robotics competitions, every component matters. Selecting the right actuator can make the difference between smooth, efficient performance and costly breakdowns during a match. Linear actuators offer mechanical advantages that can be used in different robotics applications, especially when precision and controlled movements are key. In this guide, we’ll explore the purpose of these important, compact, and simple linear motion tools and how to select the best linear servo RC actuator to boost your FTC robot's performance. Whether you need power for heavy lifting or speed for quick extensions, the right actuator can make all the difference.

How to Choose an Actuator

Imagine your robot extending its arm with lightning speed or smoothly lifting heavy objects easily—that’s the power of selecting the correct linear actuator. An actuator converts electrical signals into motion. While standard servos control angular movement, linear actuators move in a straight line, making them ideal for precision tasks—such as lifting, extending, or pushing parts of your robot. Here are key factors to consider:

Max Force and Speed:

Force is measured in newtons (N), and speed is the rate at which the actuator extends. Choose according to your needs:

• 190N (Approx. 43 lbs): Built for high load capacity, operating at 6 mm/s. Perfect for heavy-duty tasks like suspending or lifting robots.
• 95N (Approx. 21 lbs): Offer a balance of power and speed, extending 13 mm/s. Ideal for tasks requiring strength without compromising speed.
• 40N (Approx. 9 lbs): Designed for lighter tasks, with fast movement at 24 mm/s. Great for applications needing quick extension with minimal force.

Stroke Length:

• 50mm Stroke: Ideal for compact builds or tasks where reach isn't crucial.
• 140mm Stroke: Suited for tasks requiring greater reach, like extending arms or hanging mechanisms.

Linear Servo Actuator Comparison

Here’s a breakdown of Studica Robotics’ linear servo RC actuators:

1. • 140S-190N Actuator: With a 140mm stroke and 13 mm/s speed, this actuator provides 190N of force. It’s ideal for mechanisms that need both power and speed, such as extending arms or secondary slides in a multistage elevator. It’s powerful enough to suspend a robot on its own.
   • 140S-95N Actuator: This 140mm stroke actuator balances power and speed, with a 13 mm/s speed and 95N force. It’s perfect for lifting and pushing tasks where stability is key. It's slower than the 40N actuator but excels at handling heavier loads. (Note: This option is only available while supplies last, at our US website https://www.studica.com/studica-robotics-brand/linear-rc-actuator-140mm-50n)
   • 140S-40N Actuator: Featuring a 140mm stroke and fast 26 mm/s speed, this actuator offers 40N of force, making it ideal for fast extensions over long distances, such as in hanging mechanisms.
   • 50S-190N Actuator: This 50mm stroke actuator operates at 6 mm/s and delivers 190N of force, making it suitable for short-distance tasks requiring high load capacity, like cascading slides.
   • 50S-40N Actuator: Compact with a 50mm stroke and 26 mm/s speed, this actuator delivers 40N of force and is perfect for precision tasks like small arms or grippers, as well as pick-and-place mechanisms.

View details for these robot actuators in the table below!

*Available while supplies last!

Understanding Pulse Range Width

Linear servos have a different pulse width range compared to standard servos. While regular servos operate within a 500-2500 µs range, linear servos typically work within 900-2100 µs. Calibration is often needed, as each servo may have slightly different values for the fully retracted and extended positions. This is crucial for programming, especially when using Java.

 Maximize Your Robot’s Potential

Now that you know how to choose the best linear servo actuator, it’s time to put that power into action. Make sure your robot has the best chance to outperform the competition, equip it with the optimal linear servo actuator from Studica Robotics today!  

Exploring Linear Motion Tools for FTC Linear motion plays a vital role in achieving precise, stable movement by converting rotational motion into straight-line action. In robotics competitions like FTC, the ability to execute precise movements is crucial for success. Linear motion tools provide the precision and speed teams need to excel in critical tasks like lifting, extending, and placing game elements accurately and quickly. Common tools for linear motion include linear actuators, motion systems, robot transfer units (RTUs), slides, and guides. Each of these tools serves to maximize efficiency, accuracy, and reliability in the robot’s movement. Linear motion solutions enable robots to extend arms, lift mechanisms, or carry out tasks efficiently across the field. If you want your robot to reach for objects or transport materials, incorporating linear actuators, slides, and other motion tools will help you get there. Linear motion isn’t just crucial for robotics teams; it is also used in a variety of industries like manufacturing, the medical field, and transportation.

Applications of Linear Motion Systems

Linear motion systems are widely used across multiple industries including manufacturing, medical equipment, transportation, logistics, and robotics for improving productivity and reliability.

• Manufacturing & Automation: For manufacturing and automation, linear motion systems are essential in CNC machines for precision cutting and drilling. Just as CNC machines depend on precision, FTC teams can leverage these systems for repeatable accuracy in robot designs, ensuring every movement counts.
• Healthcare: In the medical field, linear motion systems improve imaging quality in MRI and CT scanners and ensure precise movements in surgical robots, particularly for minimally invasive procedures.
• Transportation and Logistics: In transportation and logistics, these systems streamline operations by powering conveyor belts and enhancing automated storage and retrieval systems in warehouses, boosting efficiency, and reducing labor costs.

While industries like manufacturing and healthcare rely on linear motion for precision, FTC teams can harness these same tools to gain a competitive edge on the field.

Linear Motion in Robotics

In robotics, especially for manufacturing and automation, linear motion systems allow robotic arms to execute precise and repeatable movements along straight paths. These systems are great for tasks like:

• Assembly: Assembling components with high accuracy and repeatability.
• Material Handling: Safely transporting materials between workstations.
• Packaging: Packaging products quickly and with precision.
• Inspection: Conducting quality control checks on products.

While linear motion systems are integral to these high-stakes industries, FTC teams use similar tools to achieve precision and control on the competition field.

Linear Motion Solutions from Studica Robotics

FTC teams can also use these linear motion systems for critical tasks in competitions to ensure accuracy and reliability in their robot’s movements. Studica Robotics provides various linear motion solutions, including linear actuators, rack and pinion systems, linear slides, and slide rails. Let’s explore the pros and cons of each.

Linear Actuators	Rack and Pinion	Slide Rails
Pros: High accuracy and repeatability. Can handle significant loads (up to 40 pounds). Easy to power and program like a standard servo.	Pros: Simple design, easy to implement. Can be optimized for different mechanical advantages (for example: higher load or compact designs).	Pros: Lightweight, sturdy aluminum build. Configurable to create mechanical advantages (for example: cascading lifts). Customizable for speed or torque with belt and pulley systems.
Cons: Requires calibration for accurate extension and retraction. Slower extension/retraction speeds due to higher load capacity.	Cons: Requires precise alignment to avoid wear and tear, which can result in decreased performance or component failure over time. Limited load capacity without additional support.	Cons: May add weight to the robot. Requires 3D-printed parts for some designs.

Linear Actuators

Actuators are devices that convert electrical signals into mechanical motion, enabling them to perform various actions. While multi-mode smart servos provide precise angular movements, linear actuators excel at producing straight-line motion. To achieve linear movement, you could use a regular motor or a servo motor in conjunction with a rack and pinion system. However, linear servo RC actuators offer a more streamlined and integrated solution for this purpose. Linear actuators provide the precision necessary for delicate scoring actions, such as placing game elements at precise heights during autonomous modes.

Rack and Pinion

Rack and pinion systems use a simple gear (pinion) that moves along a straight bar with teeth (rack), making it easy to convert rotary movement into straight-line motion.

Slide Rails

Slide rails are essential components in robotics, enabling the creation of linear motion systems for a wide range of applications for mobile robotics. They can be used for multistage slide systems, lift systems, extending arms, suspension, and reducing resistance.

Studica Robotics slide rails are designed for precision, strength, and ease of use, making them a trusted choice for teams worldwide. Constructed from lightweight aluminum, they offer durability without adding unnecessary weight. With pre-drilled, countersunk holes they make installation easy and offer you the ability to place two rails side-by-side to enhance stability and support. With smooth, precise movement thanks to ball bearings, these rails can handle significant loads, even allowing for applications like suspending a robot in the air! Our aluminum slide rails ensure smooth, efficient movement through rolling ball bearings, making them ideal for heavier loads and extensive reach. Slide rails are available in two sizes, providing fully extended lengths up to 468mm and 624mm. You can also find Linear Slide Sets in 400mm and 250mm length options.

Linear Motion Solutions for INTO THE DEEP

In many robotics competitions, including this INTO THE DEEP FTC season, teams are challenged to design robots capable of reaching areas beyond their drivetrain’s normal range. Robots must often start within a confined space—like the FTC’s 18" x 18" x 18" starting cube—while also being able to extend beyond this limit during gameplay. To achieve this, teams need innovative linear motion mechanisms that can extend and retract while staying within the competition's size constraints. For the 2024-2025 INTO THE DEEP challenge, here are some linear motion ideas that could give your robot a competitive edge:

• Cascading Rails: A two-stage lift system can be a powerful solution for reaching into submersible zones to collect samples. This mechanism allows the robot to access both the low basket and low chamber with ease, expanding its range without sacrificing stability.
• Single-Stage Extending Arm: This design uses a lever system powered by a servo to extend a linear slide. It’s a simple yet effective way to reach critical game elements while maintaining control over the arm’s movement.

Given the underwater theme of INTO THE DEEP, mechanisms like cascading rails and extending arms provide the reach and flexibility to collect samples or navigate tight spaces, all while staying within the competition's size constraints.

What FTC Teams Are Saying

We've gotten great feedback from FTC teams using Studica Robotics products!

• One user shared, “The slide rails are smooth, space-saving with their low profile, and the predrilled holes perfectly match the channel.”
• Another, "The Studica Linear Servo Actuators are excellent and cost us significantly less than anything else out there."
• Robotics teams also enjoy the convenience Studica brings. Instead of modifying drawer slides from home improvement stores, teams enjoy our slide rails, a simpler, more precise solution for their linear motion needs.

In summary, integrating linear motion tools into your FTC robot design can significantly enhance your team’s competitive performance in the INTO THE DEEP challenge. From linear actuators and rack and pinion systems to precision slide rails, these components provide the necessary flexibility, precision, and stability for executing complex tasks on the field. By leveraging the expertise and solutions offered by Studica Robotics, teams can streamline their build processes and focus on innovative strategies to achieve success. As you prepare for this year's competition, remember that the right linear motion systems can be the key to overcoming challenges and seizing opportunities.

Ready to Level Up Your Robot?

Explore our full range of linear motion solutions and actuators today, and let Studica Robotics help you build a winning robot for this season's INTO THE DEEP challenge. Don’t miss the chance to give your team a competitive edge!

We are thrilled to share the results from the WorldSkills Lyon 2024 Autonomous Mobile Robotics (AMR) Competition! Before diving into the details, we want to give a big shout-out to WorldSkills, the competitors, volunteers, and everyone who made this incredible event possible. This competition wasn’t just a showcase of skills, it was a celebration of how robotics is shaping our future. And, of course, we were especially excited to see our favorite skill, Autonomous Mobile Robotics, take the spotlight! It was amazing to watch these AMR competitors in action, demonstrating how robotics can revolutionize agriculture. They designed, built, and maintained robots while solving real-world problems on the fly. The challenge? Finding ways to boost farm production using robotics to increase efficiency and safety.

WorldSkills Lyon AMR Winners

Before we dive into the results, let's take a moment to celebrate every team and competitor. These teams truly raised the bar! Your dedication and skill were truly remarkable, and we deeply appreciate all your hard work. Now, let’s reveal the results of Skill 23, Autonomous Mobile Robotics, from WorldSkills Lyon 2024!

Gold Medal Winners We had a tie for the top spot! Congratulations to both Team China and Team Korea for an incredible performance!

• Team China: Canhao Fang and Jiajun Jiang – 763 points
• Team Korea: Gyeomon Gim and Yonghyeon Kim – 763 points

Bronze Medal           

• Team Chinese Taipei: Ming-Che Wu and Yuan-Chen Chiang – 738 points

Medallion for Excellence Recipients Teams that scored 700 or more points and achieved an exceptional level of excellence receive the Medallion for Excellence:

• Team Macao, China: Kin Hang Lai and Ka Wai Tou – 721 points
• Team Japan: Kentaro Toribami and Saya Sugimoto – 720 points
• Team Austria: Jan Trummer and Simon Stoisser – 713 points
• Team Indonesia: Denny Syahrul Arfiansyah and Ahmad Yogi Fernanda – 711 points
• Team Kazakhstan: Elnar Zhuasbayev and Timur Babenko – 710 points
• Team Singapore: Genisa Gabrielle Lee and Gan Kah Kheng – 710 points
• Team United Arab Emirates: Yahya Alzaabi and Bader Bin Rabaa – 704 points
• Team Brazil: Matheus Maus Gassen and Matheus Eichherr – 700 points
• Team Colombia: Juan Sebastian Ospina Manrique and Miguel Angel Quiza Neuto – 700 points

Honorable Mentions A special shout-out to all the other teams who competed and brought their best to the Autonomous Mobile Robotics competition, including Team Vietnam, Team Croatia, Team India, Team Thailand, Team France, Team Jamaica, Team Hong Kong, China, Team Saudi Arabia, Team Mexico, and Team Iran.

About this Year's AMR Competition

The WorldSkills 2024 Lyon Autonomous Mobile Robotics competition highlighted the vital role robotics plays in agriculture, where automation is rapidly transforming the industry. Participants will design and build Mobile Robots capable of collecting environmental data. This data is then used to guide both their mobility and object-handling capabilities. In the agriculture sector, robots are used for automating complex tasks, driving the demand for skilled AMR Technicians and Engineers. At WorldSkills, competitors demonstrated key skills, including autonomous navigation in unfamiliar environments and object manipulation. Their robots will handle and transport items of various sizes and weights, all while adapting to real-world challenges. The focus areas of this competition included:

• Prototyping: Competitors must build innovative solutions from scratch. The prototypes they create must solve specific problems.
• Navigation and Localization: Robots must navigate unknown environments, which is crucial for real-world applications.
• Vision: Competitors will create machine vision algorithms to detect and analyze objects. While using a robot is not mandatory in this module, it can be beneficial.
• Interaction: Robots must be able to work with the delicate precision of a human touch. This is important for handling fragile objects, like in the case of gathering eggs.
• Testing and Fault-Finding: Competitors must diagnose and fix issues of faulty equipment using provided datasheets.

The competition culminated in the final challenge where robots must perform autonomous tasks on a defined course. View the complete competition details. The equipment required for this event included the WorldSkills Lyon 2024 Mobile Robotics Collection. There are over 1,600 robotic components included in this kit.

The Growing Importance of Robotics in Agriculture

As the agricultural workforce ages and immigration policies shift, farm labor shortages are becoming a pressing issue. Robots offer a game-changing solution. By automating repetitive, time-consuming tasks, new opportunities emerge in areas like management, programming, and robot maintenance—opening doors to higher-paying, innovative careers. The potential is massive! The global agricultural robotics market is currently valued at $13.5 billion, and it's only growing from here. The future of farming is automated, and we are excited to see where it leads! The world of agriculture is evolving, and robots are leading the way. This competition highlighted this exciting future!

A global robotics community, FIRST^® (For Inspiration and Recognition of Science and Technology), is committed to sparking a passion for innovation in young minds. Through engaging, mentor-guided programs, students dive into engineering, programming, and robotics challenges, while developing critical technical skills, confidence, self-esteem, and communication abilities—empowering them to become the next generation of leaders and innovators. These programs provide a creative, inclusive learning environment that goes beyond robotics, helping students build a brighter future. FIRST offers hands-on learning opportunities for all ages and experience levels through FIRST^® LEGO League (FLL), FIRST^® Tech Challenge (FTC), and FIRST^® Robotics Competition (FRC).

 

The 2024-2025 FIRST^® season, FIRST^® DIVE℠ presented by Qualcomm, takes teams on an underwater journey to explore life beneath the ocean’s surface. Teams will use their STEM and collaboration skills to uncover how we can build stronger communities and innovate for healthier oceans.

About FIRST^® Tech Challenge

FTC brings together students and mentors to design, code, build, and compete with robots in thrilling challenges. Geared towards students with some robotics experience, FTC bridges the gap between beginners and the more advanced FRC program. But FIRST Tech Challenge is more than just about building robots, it equips young people with the skills and confidence to tackle real-world problems and become global citizens. Gracious Professionalism^® is a core value of the FIRST ethos. Guided by the FIRST Core Values of Coopertition^®, discovery, innovation, inclusion, and fun, FTC fosters a sense of purpose and resilience, inspiring students to create a better future.

INTO THE DEEP: 2024-2025 Season

Get ready to dive into the ocean's depths with the 2024-2025 FIRST Tech Challenge season, INTO THE DEEP^℠ presented by RTX! This year’s game offers many opportunities for teams to display their skills and creativity. Imagine your robot exploring uncharted waters, uncovering hidden wonders, and taking on daring new challenges! With more scoring zones, a heart-pounding two-level climb, and an action-packed split game field, the possibilities are endless. Can your team rise to the occasion and conquer the depths? It's time to strategize, build, and compete in one of the most exciting FTC seasons yet!

 

 

What’s New in INTO THE DEEP?

While the INTO THE DEEP game shares some similarities with last year's FIRST Tech Challenge CENTERSTAGE game, several exciting new features set it apart:

1.  More Scoring Zones: This year, additional scoring zones give teams more opportunities to earn points and strategize.
2. Two Scoring Stations in Teleop: Each alliance now has two scoring stations during teleoperated play, doubling the opportunities to score compared to last year's single station.
3. Two-Level Climb Challenge: Robots must climb two levels this year! First, they must reach and hang from the first rung before progressing to the second.
4.  Split Game Field: The field is divided into two sections, ensuring each alliance has exclusive access to their side, allowing smoother gameplay.

How Studica Robotics Can Help

Having the right tools and components becomes critical to staying ahead of the competition. Studica Robotics is a comprehensive robotics building platform with everything you need to build, learn, and compete. To tackle any challenge INTO THE DEEP that comes your way, we have the products you'll need for your robot.

• Slides: Take your robot's performance to the next level with Studica’s powerful linear slides and pulley systems. Built for speed and precision, these components make scooping up samples a breeze. Explore our wide range of slides, pulleys, belts, and gears to find the perfect fit for your design!

SLIDES

PULLEYS

BELTS

GEARS

• Servo Motors:
  • Our lightweight, stackable slides, combined with the flexibility of the Multi-Mode Smart Servo, ring serious power without the bulk—perfect for keeping your robot fast and nimble! The servo can function as a continuous rotation or standard servo, making it perfect for active intakes or gripping mechanisms.
  • The Multi-Mode Smart Servo 200 – FAST rotates at 200RPM which can be useful for instances such as an inactive intake.
• Power Block: The Servo Power Block ensures your servos run at peak performance by supplying 6V, enhancing the efficiency of any mechanism.

MULTI-MODE SMART SERVO

MULTI-MODE SMART SERVO 200 - FAST

SERVO POWER BLOCK

• Structure: Crafted from 3mm thick, 6061-T6 aluminum, our structure components are anodized, deburred, and polished for maximum durability and safety. Despite being lightweight, they’re incredibly strong and built to last. With a wide range of options—from U-Channels to various brackets and beams—our versatile hole pattern allows for endless customization.
• Intake Wheels: For reliable intakes, our Flex (Compliant) Wheels offer excellent grip, especially when picking up specimens available in 35A, 40A, 50A, and 60A.
• Chassis Kit: The FTC Drive Base Kit, featuring a robust Mecanum drivebase, remains a top choice for navigating the competition field with ease.

STRUCTURE

FLEX WHEELS

FTC DRIVE BASE KIT

The 2024-2025 FIRST Tech Challenge season, INTO THE DEEP,  takes robotics teams on an exciting underwater adventure. This season's game introduces new challenges, such as more scoring zones, a two-level climb, and a split game field, giving teams plenty of opportunities to score big. Teams will need to strategize around collecting game pieces, placing them in baskets, specimen scoring, and the endgame climb. Studica Robotics offers a wide range of tools and resources, including linear slides, servo motors, and our chassis kit, to help teams build versatile robots capable of tackling these underwater challenges. As your team prepares to dive INTO THE DEEP, make sure you’re equipped with the tools to succeed. Check out Studica Robotics today, and get ready to take on the depths of competition!

In the deep-diving world of FTC robotics, precision is everything. One of the key techniques that can give your team the edge is odometry—a method that uses data from motion sensors to track your robot’s position with pinpoint accuracy. This method is beneficial for autonomous mobile robots in circumstances where executing complex tasks requires the robot's precise positioning. Implementing odometry in robotics competitions, such as the FIRST® Tech Challenge (FTC), significantly enhances the performance and reliability of your robot during autonomous operations. Odometry will help your robot navigate when it travels INTO THE DEEP^SM this season!

Navigating FTC with Odometry

Odometry helps robots navigate the FTC game field, particularly during the autonomous period, by estimating their position relative to their starting point. This positioning makes it easier to execute tasks on the game field. There are several methods for using odometry in FTC, each has pros and cons. Let's explore the two most common methods:

Drive Encoder Localization

The Drive Encoder Localization method is a straightforward approach. By attaching encoders to the robot's drive motors, teams can estimate their robot's position by monitoring the rotation of motor shafts.

Advantages:

• Cost-effective.
• Easy to set up.
• No extra hardware required.

Considerations:

• Not fully reliable.
• Factors like wheel slippage, especially with Mecanum wheels, can lead to inaccuracies due to drifting or inconsistent traction.

Odometry Pods/Dead Wheels

Mecanum drivebases, popular in FTC, often struggle with traction on the game field particularly at high speeds. This can cause robots to drift, leading to inaccuracies in positioning. Even minor collisions or bumps during a match can increase these errors, which can accumulate and negatively affect performance. Odometry Pods utilize small, unpowered wheels connected to external encoders, reducing the risk of slippage inaccuracies, and providing more reliable tracking.

Odometry pods with dead wheels can better track a robot's movement because they are designed to maintain constant contact with the ground, ensuring more accurate positioning throughout the match. Typically, 2-3 small omni wheels are used. In a two-wheel system, one wheel tracks movement in the x-direction and the other in the y-direction. A three-wheel system has two wheels parallel to each other and one perpendicular. While two-wheel systems are cheaper, they tend to drift more than three-wheel systems.

Advantages:

• More precise.
• Greater accuracy over short distances.

Considerations:

• Additional costs involved.
• Requires extra components.
• It is more complex to design.
• The wheels must stay in constant contact with the ground for accurate tracking.

Odometry Pod Assembly

Dillan from Rust Belt Robotics generously shared his design for an odometry pod he created integrating the Cypher MAX Encoder and the 38mm Omni Wheel into a single, compact casing. The wheel shaft passes through the Cypher MAX, which counts the rotations to determine the distance traveled from the robot’s starting position. The pod is designed to fit seamlessly into a robot's drivebase without occupying excessive space, ensuring the omni wheel remains in constant contact with the field surface for accurate data collection.

Odometry Solutions from Studica Robotics

To implement precise odometry, Studica Robotics offers cutting-edge odometry tools like the Cypher MAX Through Bore Encoder, which delivers accuracy for your FTC robot. This powerful sensor combines absolute and incremental encoder technologies into one convenient solution. With 2048 counts per revolution, it provides precise relative and absolute position data. The Cypher MAX operates smoothly at either 3.3V or 5V, making it adaptable to various power setups. You can easily convert a 3/8-inch Hex to a 6mm D-Shaft bore, 5mm Hex, or 7 mm Hex, providing you with flexibility for your application needs. It is a versatile advanced sensor for enhanced localization and control.

Designed for odometry systems and to complement the Cypher MAX, Studica Robotics offers the 38mm Omni Wheel.  This small, yet powerful wheel, when paired with the Cypher MAX, creates a robust solution for tracking and control during autonomous periods. This Omni wheel fits the need for a small and compact dead wheel for tracking. Combined with the Cypher MAX, the 38mm Omni-wheel creates a robust odometry solution for tracking and control during autonomous periods.  

Odometry enables robots to accurately track their position while diving INTO THE DEEP, or navigating the game field, during autonomous periods. Methods like Drive Encoder Localization and Odometry Pods, allow teams to enhance their robots’ navigation and task execution. Each approach has advantages and considerations, but the goal remains improving a robot's ability to understand and respond to its environment. Consider both options when designing your robot to determine the solution that best meets your needs. Odometry tools, such as those offered by Studica Robotics, make it easier for FTC teams to achieve the best performance possible for their autonomous strategies. At Studica Robotics, we're here to provide the advanced tools you need to build accurate and reliable odometry systems.

Where there is a skill, there is a way! In less than two weeks, teams from around the world will meet in France for WorldSkills Lyon 2024. This 47th WorldSkills Competition will feature over 1,400 participants from more than 70 countries, all eager to demonstrate their expertise across 59 different skills. WorldSkills promotes the transformative power of skills, aiming to inspire more people to join the global skills movement. As they say, "WorldSkills builds confidence, empowers communities, and helps fuel economies."

WorldSkills Lyon - a Showcase of Excellence

From September 10th to 15th, participants will showcase their talents across six sectors: Manufacturing & Engineering Technology, Social & Personal Services, Transportation & Logistics, Information & Communication Technology, Creative Arts & Fashion, and Construction & Building Technology. Visitors will witness a remarkable display of skills, ranging from traditional skills like Stonemasonry, Jewellery, and Pâtisserie to cutting-edge fields such as Autonomous Mobile Robotics, Cyber Security, Cloud Computing, and Robot Systems Integration. Competitors will also demonstrate their abilities in diverse areas, including Mechanical Engineering CAD, Aircraft Maintenance, Beauty Therapy, Autobody Repair, and Heavy Vehicle Technology.

Spotlight on Autonomous Mobile Robotics

As a proud WorldSkills Global Partner and the official and exclusive AMR product supplier, Studica has developed the official WorldSkills Lyon 2024 Autonomous Mobile Robotics Competition Collection. This competition highlights the innovation and precision required in designing, building, and maintaining autonomous mobile robots (AMRs). These robots are crucial in various industries, including agriculture, manufacturing, healthcare, aerospace, and mining, and this year's competition will emphasize their role in enhancing agricultural productivity. By automating repetitive tasks and using advanced sensors for data collection, AMRs can help optimize farming operations, reduce labor costs, and promote sustainable practices through precise water management, fertilization, and pest control.

A Gateway to Future Careers

The field of autonomous mobile robotics is rapidly growing, with the demand for skilled professionals expected to generate 15 million new jobs by 2025 across sectors like manufacturing, healthcare, and logistics. The global market for autonomous vehicles is projected to reach $556 billion by 2026, underscoring the need for a highly skilled workforce. The WorldSkills AMR competition provides participants with hands-on experience in this dynamic field, equipping them with the critical thinking, problem-solving, and technical skills needed to excel in an increasingly digital and automated world.

Get Ready to Celebrate Skills

As WorldSkills Lyon 2024 approaches, excitement builds for this global showcase of talent and innovation. Whether you are a participant, supporter, or spectator, this competition offers a unique opportunity to celebrate the power of skills and their impact on our future. See you in Lyon!

In the fast-paced world of competitive robotics, teams constantly face the challenge of balancing innovation with efficiency. Robotics teams love intake systems and they are widely used in robotics competitions like the FIRST® Tech Challenge (FTC) because they are crucial for many robots to pick up and move objects. However, creating an intake system can be both time-consuming and expensive. The time and resources required for prototyping, CAD design, and 3D printing can slow down even the most experienced teams, putting them at risk of falling behind. This is where the Intake Hub Kit from Studica Robotics makes the difference. By providing a cost-effective, reliable, and efficient solution, teams can streamline their building process and focus on creating a winning robot.

Transform Your Intake Systems

The Intake Hub Kit is designed to transform how you build intake systems for robot projects and competitions like FTC. This innovative kit saves you valuable time and resources, eliminating the need for extensive prototyping, CAD design, and 3D printing. With its cost-effective and reliable design, you can quickly assemble your intake system and concentrate on refining other critical aspects of your robot. Experience the perfect blend of innovation and convenience. Order your Intake Hub Kit today and elevate your FTC robot to the next level!  

The Intake Hub Kit

Currently available with a 6mm D-shaft Bore, and soon to include a versatile Hex Bore option, the Intake D-Shaft Hub Kit is crafted to integrate with silicone rubber tubing (sold separately) seamlessly. This combination creates a straightforward yet robust intake system. Specifications:

• Main Piece: Hex width of 20.78mm and thickness of 10.0mm.
• Tapped Holes: Six M6 tapped holes and one M4 tapped hole for an M4 set screw.
• Diameter: 6.0mm D hole, additional dimension Φ7.5mm14.0mm.
• Material: AL6061-T6.
• Pins: Six pins per pack, each with an M 64.0mm thread, made from SS303 material.

 

Multi-Intake Hub Mechanism:

 

In this example, we created an intake system using multiple Intake Hub Kits with silicone rubber tubing attached to the screw inserts. Powered by a motor with a belt and pulley, it can be a part of an arm that slides in and out of the robot’s frame or in a stationary position. This system is ideal for picking up difficult items or gathering items in large quantities. The tubing length can be adjusted to suit the robot's needs.

 

 

 

 

Single Roller Intake:

 

One application for the Intake Hub Kit is to create a single roller intake mechanism with rubber tubing attached to the screw inserts. Driven directly by motors, this simple mechanism can pick up basic items like disks or balls. However, using multiple intake hubs would create a more robust system.

 

 

 

 

 In conclusion, the Intake Hub Kit from Studica Robotics is a transformative solution for robotics teams looking to simplify the construction of intake systems. If you are competing in the FIRST® Tech Challenge, this kit offers a streamlined, cost-effective approach that eliminates the need for extensive prototyping, CAD design, and 3D printing. With its easy integration and reliable performance, the Intake Hub Kit empowers you to focus on innovation and efficiency, giving your robot a competitive edge!

We’re excited to announce that several Studica Robotics products have been officially listed as FIRST^® legal for the upcoming FTC competition, INTO THE DEEP^SM presented by RTX. With the competition kicking off on September 7th, 2024, teams will navigate their robots through the mysterious depths of the ocean, uncovering wonders and exploring uncharted territories.

FIRST^® Legal Parts from Studica Robotics

Studica Servo Power Block - Part 75005

The Studica Servo Power Block is an essential tool for providing stable power to your RC servos.

Key Features:

• • 6V, 60W power injector that provides ample power.
  • Improves distribution of power to servos.
  • Does not interfere with input signal, replaces power to servo with 6V.
  • Includes XT30 Male to JST-VH Cable to plug directly into the REV Control Hub.

Studica Multi-Mode Smart Servo - Part 75002

The Studica Multi-Mode Smart Servo offers versatile functionality for precise angular movements.

Key Features:

• • All-steel gears
  • High torque
  • Can be configured to run in a variety of modes including standard, continuous, and a custom angular mode.
  • Note: The Multi-Mode Smart Servo FAST - Part 75007, which offers a much faster RPM, is also available.

Studica 12V 3000 mAh NiMH Battery - Part 70025

The Studica 12V 3000 mAH NiMH Battery ensures a reliable power supply for extended robotics operations.

Key Features:

• • 12V, 3000mAh
  • 10-cell pack
  • Includes 20 amp fuse
  • The recommended charger is the Studica Robotics NiMH Battery Pack Charger, PP45 ARES.

Studica Linear Servo RC Actuator - Part 75014

The Studica Linear Servo RC Actuator enables linear motion, perfect for tasks requiring precise force.

Key Features:

• • 140mm stroke
  • 190N max force
  • Compatible with RC receivers and servo controllers
  • Includes mounting brackets

Studica Robotics Maverick 12V DC Motor - Part 75001

The Studica Robotics Maverick 12V DC Motor is engineered for robust performance in competitive robotics.

Key Features:

• • 100 RPM motor
  • Rated torque of 139 oz-in
  • Stall torque of 708 oz-in
  • 61:1 Gearbox

Additional FTC Solutions from Studica Robotics

Studica Robotics delivers a top-notch robotics building platform that is perfect for teams and STEM education. Our design ensures effortless integration and compatibility with most FRC and FTC systems, eliminating the need for special equipment. We use durable 6061-T6 aluminum for strength and safety, and our resources include a vast library of 3D files, training videos, and build guides. With a comprehensive range of high-quality parts and kits, Studica Robotics makes building, learning, and competing in robotics straightforward and exciting. Explore these innovative solutions to help your team excel in FTC competitions.

FTC Starter Kit

The Studica Robotics FTC Starter Kit is a budget-friendly solution, offering a wide range of essential robot parts. It includes structural components, wheels, FIRST^® legal motors, a legal battery and charger, and a storage bin. Pair this with your FIRST^® Control and Communication Set and the REV Robotics Control Hub to create your competition-ready robot.

FTC Drive Base Kit

The Studica Robotics FTC Drive Base Kit is fully FIRST^®  legal and provides all the necessary components to build a basic Mecanum drive base. It includes a detailed Build Guide and programming instructions. Combine this with your FIRST^®  Control and Communication set along with your REV Robotics Control Hub and FIRST^®  legal battery to get started.