Programming Yaskawa Robots in INFORM
Advanced Control of Yaskawa Robots
Precision Automation in INFORM
Process Optimization in Industry
Programming Yaskawa Robots for Efficiency
Modern Control Technologies
Integrating Yaskawa Robots with Your Production Line
INFORM is a key language for programming Yaskawa robots, enabling precise control and optimization of industrial processes. NexaRob provides comprehensive support for configuring, implementing and integrating Yaskawa robots, tailoring them to specific customer needs.
Contact us Watch the videoDiscover why Yaskawa INFORM is an essential tool across many industries and how it supports precise control of Yaskawa robots
Programming Yaskawa Industrial Robots in INFORM
Yaskawa INFORM is a dedicated programming language for Yaskawa Motoman industrial robots. Thanks to its clear structure and flexible motion-management capabilities, INFORM facilitates development of precise and efficient applications for diverse production processes, from simple palletizing and advanced welding operations to complex assembly tasks in the electronics industry.
Why Yaskawa INFORM?
- Developer-Friendly Syntax: INFORM is designed so that teams with basic knowledge of control logic can quickly write and modify robot code.
- Flexible Motion Instructions: Supports both point-to-point, PTP, movements and more complex trajectories such as arcs, providing versatile application possibilities.
- Integration with Other Systems: Thanks to built-in communication functions, Yaskawa robots can work seamlessly with external PLC controllers, vision systems or force sensors.
How Can NexaRob Help?
- Requirements analysis: At the beginning, we define the objectives and operating conditions of your Yaskawa robot together to develop the optimal programming approach.
- Code Creation and Optimization: The NexaRob team designs applications in INFORM, tests them in simulation mode, and fine-tunes them on the actual workstation to ensure maximum smoothness.
- Operator Training and Service Support: We teach teams the basics of programming in INFORM, making it easier to introduce corrections independently and respond quickly to changing plant needs.
See What Distinguishes Yaskawa INFORM and Which Industries Particularly Value Yaskawa Robots
Key Functions and Application Examples in INFORM
Although robot programming languages have similar goals, INFORM provides a set of functions that streamline and simplify Yaskawa robot programming. Below we present the key elements of the language and examples of industries in which these robots offer significant advantages:
Extensive Motion Instructions
INFORM provides commands for controlling the robot in different modes (e.g. PTP, LINE, CIRC), enabling smooth and precise trajectories to be created.
Application: Multi-axis welding, palletizing products in warehouses, and tending machines requiring accurate part positioning.
Modular Code Structure
The program can be divided into modules corresponding to individual tasks, such as assembly, handling and quality control, improving code readability and making modifications faster.
Application: Production lines where a robot carries out several process stages, for example collecting a part from one machine and placing it in another section.
Integration with control systems
Yaskawa INFORM enables communication with PLC controllers, vision systems, and force sensors using network protocols.
Application: Automotive industry (complex welding and testing systems), electronics (precision component assembly with vision verification).
Applications Across Many Industries
Yaskawa robots offer a wide variety of models, from small, fast robots handling lightweight items to heavy manipulators with high payload capacities.
Application: Food (packaging), metal (processing and welding), pharmaceutical (quality control), logistics (sorting and palletizing).
Safety and Scalability
Thanks to built-in mechanisms for monitoring work zones and defining emergency procedures, the robot can respond quickly to unplanned events and minimize the risk of failure.
Application: Lines requiring a high level of operator protection, such as the chemical industry or the operation of high-power machinery.
Yaskawa INFORM provides Yaskawa robots a versatile and intuitive environment for creating complex, dynamic applications. NexaRob supports implementations at every stage, from needs analysis to optimization of everyday production operations. This enables your company to benefit from high-quality automation while reducing costs associated with downtime or process errors.
Explore Different Ways to Create Code for Yaskawa Robots and Choose the Solution That Best Fits Your Needs
Main Programming Modes and Methods in Yaskawa INFORM
Online, Offline, Freedrive, and More
Yaskawa robot programming in INFORM can be performed in several modes, from creating code directly on the robot panel to advanced solutions operating remotely or in simulation environments. At NexaRob, we help select the optimal method so application development and deployment are as fast, safe, and flexible as possible. The key modes are outlined below:
Teach Pendant (Online Programming)
- Direct editing: The operator uses the pendant to define movements point by point, saving them immediately in INFORM code.
- Quick Corrections on the Line: Ideal in situations where minor changes need to be made without interrupting operation for an extended period.
- Limitations: With more complex sequences, programming requires caution and is more time-consuming than working in an offline environment.
Offline Programming (Simulation Environment)
- Working on a computer: Creating and testing code in simulation tools, for example Yaskawa software (MotoSim), makes it possible to eliminate errors before deployment at the workstation.
- Time savings: The line can continue operating while engineers prepare the next version of the application. Once uploaded to the controller, only minor adjustments are required.
- Application: Large projects or processes with stringent safety requirements, where any mistake during live programming would be costly.
Remote Online Programming, Network-Based Control
- Remote access: If the network infrastructure is properly secured, the NexaRob team or your specialists can connect to a Yaskawa robot over the network and make changes to INFORM code.
- Expert support: Rapid resolution of unusual problems or performance improvements without the need to send an engineer on site.
Hybrid Approach
- Combining methods: Most often, a Teach Pendant is combined for initial calibration and establishing motion points with simulation software for optimizing trajectories and logic.
- Continuous improvement: Existing code can be iteratively improved by testing different variants in the simulator and then making final corrections online.
The programming method depends on the facility's specifics and how often the process changes. Several approaches are often used in parallel within one company: Teach Pendant for quick adjustments, offline for advanced optimization, and remote control for ongoing expert support. In the following sections, we will describe integration Yaskawa robots with vision systems and sensors, enabling even more intelligent automation.
Learn how Yaskawa robots can use cameras and sensors to respond dynamically to changing production-line conditions
Integration with Vision Systems and Sensors in INFORM
Yaskawa robots controlled with INFORM are not limited to reproducing predefined paths. They can also respond in real time to information from external devices such as cameras or force sensors. Below we show how such integration improves process efficiency and safety:
Vision Systems
- Protocols and libraries: Yaskawa provides tools for communication with 2D/3D cameras, allowing data on the position, size, or shape of objects to be transferred directly into INFORM code.
- Trajectory Correction: If products are arranged irregularly, the robot can calculate an offset and adapt its movement to the current position of the component, reducing pick & place operation time.
Force and Torque Sensors
- Pressure Control: In assembly applications or when handling delicate goods, the robot checks force levels to avoid damage.
- Collision Detection: When torque on an axis exceeds a defined value, INFORM can stop the robot and trigger emergency procedures, protecting equipment and operators.
Peripheral and Additional-Axis Control
- Extended capabilities: A single Yaskawa control unit often handles several axes, such as a rotary table, while INFORM code synchronizes their movement during complex welding or processing operations.
- Unified platform: With a consistent control environment (PLC, HMI, robot), the production process is easier to manage and expand.
Application Examples
Food Industry
The robot recognizes the position of irregularly shaped fruit and gently transfers it to the packaging conveyor.
Electronics
PCB assembly in which a vision system verifies the accuracy of microchip placement while a force sensor protects components from crushing.
Logistics
Sorting shipments based on size and barcodes, which the camera passes to the INFORM code, makes it possible to automatically route them to different warehouse sections.
Thanks to integration of INFORM code with vision systems and sensors, Yaskawa robots can respond intelligently to current production line conditions by adjusting positions, force, and motion sequences. NexaRob helps make full use of these functions, from equipment selection through code development and testing to training and service support, ensuring intelligent and safe automation.
A practical example showing how Yaskawa INFORM code improves key welding stages and raises quality in the demanding automotive industry
Case Study: Optimization of the Steel Component Welding Process in the Automotive Industry
In the automotive industry, where repeatability and perfect weld quality are essential, Yaskawa robots have been trusted by manufacturers for years. Below we present a case study showing how INFORM improved a complex welding process for steel components produced in high volumes:
Context and Key Challenges
- Complex part shapes: Multi-plane and multi-axis welds, often on curved surfaces.
- High repeatability: Even a small deviation in the weld seam could reduce component strength or require rework.
- Production Rate: Line efficiency could not be significantly reduced because of high volumes and short delivery deadlines.
Solutions in Yaskawa INFORM Code
Division of the Program into Welding Modules
Each part of the weld, such as horizontal, vertical or arc welding, had its own procedures, making it easier to modify parameters when requirements changed. Wire-feed speed and welding current could be adjusted on the fly thanks to the flexible code structure.
Use of Sensors and a Vision System
When the camera detected a slight deviation in the position of a component, INFORM calculated an offset for the motion trajectory to maintain seam accuracy. Force and torque sensors ensured welding tool stability, minimizing vibrations and accidental displacement.
Use of an Additional Axis, Positioner
For harder-to-reach welds, the robot used a rotary table controlled together with the arm. INFORM coordinated the simultaneous movement of both axes, maintaining the optimal welding torch angle throughout the entire cycle.
Results and Benefits
- Quality improvement of approximately 20%: Fewer defective welds and less frequent need for rework.
- Reduced cycle time: Precise trajectory control and the ability to make adjustments during the process helped accelerate the welding operation.
- Easy Adaptation to New Components: The modular code structure and parameterized welding settings enabled rapid switching to different components on the same line.
This case shows how Yaskawa INFORM can deliver measurable benefits in welding applications where both repeatability and flexibility matter. NexaRob supported the customer at every stage, from process analysis through code implementation and testing to staff training. As a result, the welding line achieved higher efficiency and quality while reducing rework costs.
How can high performance and reliability of INFORM applications be maintained without compromising occupational health and safety standards and production quality?
Code Optimization and Safety Procedures in Yaskawa INFORM
After deploying INFORM code, it is worth ensuring its ongoing optimization. NexaRob recommends a set of practices that help Yaskawa robots operate efficiently, stably and safely over the long term:
Cycle Time and Motion Analysis
- Monitoring Statistics: Recording the number of cycles, errors or downtime makes bottlenecks easier to identify.
- Trajectory Refactoring: Robot travel can often be shortened slightly, speeds adjusted, or unnecessary movements removed, significantly accelerating production.
Code Structure and Readability
- Modularity: Removing repeated code fragments by creating shared procedures and functions minimizes errors and improves project management.
- Consistent naming: Clear variable names, such as pStartPos and nWeldSpeed, make code logic easier to find and reduce the time needed for future modifications.
Safety and Emergency Systems
- Emergency stop conditions: INFORM can immediately stop movement in the event of a collision, safety zone violation or excessive axis load.
- Current Occupational Safety Regulations: Regular code verification against new standards, such as expanded safety zones, helps ensure compliance and operator protection.
Updates and extensions
- New firmware versions: Yaskawa may release controller improvements, so it is worth checking whether an update introduces useful functions that accelerate robot operation.
- Line expansion: INFORM code can be expanded easily when adding more devices, modules, or axes, increasing the scalability of the entire system.
Thanks to regular code optimization and careful attention to safety procedures Yaskawa robots can maintain high performance and reliability. NexaRob supports companies in this process by offering code audits, automation consulting, and long-term service support. This cooperation model allows your team to focus on developing production while leaving robotics matters in experienced hands.
Resolve your questions about developing and maintaining Yaskawa INFORM applications and learn about our support model
Frequently Asked Questions
Below we have provided answers to the most frequently asked questions about programming Yaskawa robots in the INFORM language. If you do not find an answer to your question here, contact NexaRob. We will be happy to present a personalized proposal for cooperation and solutions.
No. The INFORM language is designed to be friendly to engineers with a basic understanding of control logic. People familiar with other robot languages or PLCs usually become comfortable with it quite quickly. NexaRob also provides training to accelerate the adaptation process.
Yaskawa robots are widely used in the automotive industry, for example for welding and painting, electronics for precision assembly, food processing for packaging and sorting, and logistics for palletizing and warehouse handling. The versatility of INFORM allows the code to be adapted to a wide variety of processes.
Yes. Software such as MotoSim makes it possible to create and verify applications without stopping production. It is an excellent solution when you want to minimize downtime and errors associated with programming directly on the live system.
Yes. Yaskawa robots can receive data from 2D/3D cameras and various types of sensors. In INFORM code, trajectory-correction instructions can be added, enabling dynamic responses to unexpected deviations in component positions or changing conditions on the line.
Most standard Yaskawa models require guarding systems and safety sensors, such as light curtains and scanners. Models designed for greater human interaction are also available. In addition, INFORM can implement extra emergency-stop procedures or speed limits in critical zones.
It depends on the dynamics of your production. If new product variants appear from time to time, the code should be adapted and tested regularly. If the process is stable, occasional corrections are sufficient when firmware updates or new occupational safety requirements arise.
Yes. We cooperate with a global network of suppliers, including Yaskawa. We provide comprehensive support, from selecting the right model and accessories through configuration and code development to service support and future line expansion.
Most of the logic, such as pick and place modules, behaves similarly, but parameters related to robot reach, payload, or different axis configurations must be adjusted. NexaRob can assist with migration, helping ensure that the process runs smoothly and safely.
We invite you to contact us by email or phone. NexaRob will conduct an initial analysis of your needs and propose dedicated solutions in INFORM, along with full support from the concept stage through implementation to long-term service and training.
Do you have more questions?
Contact NexaRob. Our specialists will be happy to discuss your production process and develop an efficient, safe, and scalable Yaskawa INFORM application tailored to the continuously changing requirements and challenges of your industry.
Automate Your Business with NexaRob - Contact Us!
Interesting Facts from Around the World
New multimodal dataset for analyzing engagement in human-robot interaction.
Researchers from Seoul University have developed a new protocol for collecting data to build a dynamic, multimodal dataset.
New ARTiS gripper for precise tool manipulation in disassembly processes.
The new robot gripper called ARTiS has been accepted for publication in the TASE journal and can
FANUC presents Physical AI and digital twins at IMTS 2026
At IMTS 2026, FANUC America presented new solutions based on Physical AI that are designed to change
GAM: a new base model for robotic manipulation in industry
Amazon has introduced the Generalized Action Model (GAM) - an advanced foundational model for robotic manipulation that can
Fraunhofer IPA presents robotics for the circular economy at the European Parliament.
On September 2, 2026, the Fraunhofer Institute for Manufacturing Engineering and Automation IPA (IPA)