SKU: NXB-GEN-232-001 | Version: 1.0 | Brand: NexBot Robotics
The NexBot Robotics 232-001 Simulation Software License provides engineers and technicians with a comprehensive virtual environment for offline robot programming, system layout validation, and cycle time optimization. This powerful tool allows for the complete development, testing, and refinement of robotic applications in a digital twin environment, significantly reducing the need for physical robot access during the initial project phases and maximizing production uptime. Key features include a high-fidelity 3D kinematic simulation engine that accurately models the motion of NexBot robots, including the R-Series, C-Series, and S-Series. Users can import CAD models of tooling, fixtures, and workpieces to build a complete virtual workcell. The integrated collision detection feature prevents costly equipment damage by identifying potential interference between the robot and its surroundings before deployment. This proactive approach de-risks the commissioning process and accelerates project timelines. The software is essential for applications requiring precise path planning and efficiency, such as automated welding, complex assembly, and high-speed material handling. With the cycle time analysis module, engineers can predict operational throughput with an accuracy of +/- 2%, enabling data-driven decisions for process improvements. The license supports the simulation of up to 4 robots in a single workcell, making it suitable for designing complex, multi-arm automation systems. This single-seat license is delivered via digital download and activated with a unique key, providing full access to all simulation and offline programming features.
The main interface is divided into several key panels. The largest is the 3D Viewport, where you can see the virtual workcell. Other panels include the Program Editor for writing code, the Project Tree for managing assets, and the Output Window for system messages and cycle time results.
To begin, select 'File' > 'New Project'. This will open a wizard where you can name your project, select a primary NexBot robot model from the library, and define the basic layout of the workcell. You can add additional components like controllers and I/O devices later.
Use the 'Import 3D Geometry' function to add external CAD models of tooling, fixtures, and parts to your simulation. The software supports common formats such as STEP, IGES, and STL. Once imported, these objects can be positioned and integrated into the simulation.
The virtual teach pendant mimics the interface of a physical robot controller's teach pendant. Use it to manually 'jog' the robot in various coordinate systems (Joint, World, Tool) to test reachability and create target positions for your program.
Use the built-in Program Editor to write, edit, and debug robot logic. The editor features syntax highlighting, auto-completion, and direct integration with the simulation, allowing you to step through code and visualize the robot's actions line-by-line.
Accurate path execution requires a correctly defined TCP. The software provides a utility to define the point, orientation, and mass of the robot's end-of-arm tooling. You can define multiple TCPs for applications involving tool changers.
To prevent virtual crashes, you must define which objects should be monitored for collisions. In the Collision Detection menu, create pairs or groups of objects (e.g., robot arm vs. fixture) that the software will monitor during program execution. A detected collision will halt the simulation and highlight the involved components.
After a program is complete, run the Cycle Time Analysis tool. The software will execute the entire program at maximum virtual speed and generate a detailed report, breaking down the time spent on motion, logic, and I/O waits. This is crucial for optimizing the application for throughput.
The NexBot Robotics 232-001 software can connect directly to a physical or virtual network of NexBot controllers. Use the 'Controller Manager' to establish a connection and transfer your completed and validated offline programs for real-world execution.
| Interval | Task | Notes |
|---|---|---|
| Weekly | Create backups of all active project files. | Store backups on a separate physical drive or secure network location to protect against local hardware failure. |
| Monthly | Check for software updates and patches via the application's built-in update utility or the NexBot customer portal. | Review the release notes for any updates to understand new features, bug fixes, and potential compatibility changes. |
| Quarterly | Archive completed or inactive projects to long-term storage. | This helps keep the primary workspace organized and reduces the size of local backups. |
| Quarterly | Review and clean up the library of imported CAD models, removing duplicates or obsolete versions. | A well-organized library improves project loading times and reduces errors. |
| Annually | Review the status of the software license. If using a subscription-based license, verify the renewal date. | Contact NexBot sales for information on renewals or upgrading license tiers. |
| As Needed | Update the local robot and controller model libraries when new NexBot hardware is purchased or firmware is updated. | Using the correct model version is critical for an accurate simulation. |
| Symptom | Possible Cause | Solution |
|---|---|---|
| Software fails to start with a 'License Not Found' error. | The license was not activated, the license service is not running, or the license has expired. | Run the License Manager to activate your key. If already activated, reboot the PC to restart the licensing service. Check the 'About' dialog for expiration dates. |
| The 3D simulation environment is slow, lagging, or displays graphical artifacts. | The workstation's graphics card driver is outdated, or the PC does not meet the recommended system requirements. | Update the graphics card driver to the latest version from the manufacturer's website. Close other resource-intensive applications. If the problem persists, consider upgrading the workstation hardware. |
| An imported CAD model is missing, incorrectly positioned, or has broken geometry. | The source CAD file may be corrupted, exported with an incorrect origin point, or in an unsupported format version. | Re-export the model from the source CAD software, ensuring the origin is correctly placed. Try exporting in a different neutral format like STEP or Parasolid XT. Use the software's 'Geometry Tools' to attempt a repair. |
| The simulated robot motion does not accurately match the physical robot's motion. | Mismatch in Tool Center Point (TCP), payload data, kinematic model, or controller firmware version between simulation and reality. | Carefully re-measure and verify all TCP and payload data on the physical robot and enter the exact same values into the simulation. Ensure the robot model and controller version selected in the software match the physical hardware. |
| Collision detection fails to register an obvious collision between two objects. | One or both of the objects were not included in the active collision detection set. | Open the Collision Detection settings menu. Verify that a rule exists for the pair of objects in question and that it is enabled. |
| Cannot establish a connection to the physical robot controller. | Incorrect IP address, subnet mask, or a network firewall is blocking the connection. | Verify the network settings on both the workstation and the robot controller. Ping the controller's IP address from the workstation to test basic connectivity. Consult your IT department to ensure necessary ports are open on the firewall. |
| The application crashes when running a complex simulation. | The workstation is running out of available RAM, or the project contains a corrupted element. | Try closing all other applications to free up system resources. Monitor RAM usage during simulation. If the crash is repeatable, try removing recently added components from the simulation to isolate the problematic element. |
| Parameter | Value | Unit |
|---|---|---|
| Country of Origin | US |