What this hub is for
Robot applications often fail for predictable reasons: the robot cannot physically reach the point, the tooling load is too high, the cycle time estimate is unrealistic, or the simulated motion path was never reviewed carefully enough. This hub is organized to help prevent those problems.
Instead of treating reach, payload, cycle time, and simulation as disconnected checks, this page ties them together into a more realistic engineering workflow. That makes it easier to move from concept review into real robot application planning and troubleshooting.
Recommended robotics workflow
This is the cleanest path for most robot applications, whether you are checking feasibility for a new cell, validating tooling changes, or reviewing a robot that is struggling in production.
Check robot reach
Start by confirming the robot can physically reach the required points with a realistic working envelope.
Open Robot Reach CalculatorValidate payload
Once reach looks feasible, confirm the part, tooling, and any added hardware stay within realistic payload limits.
Open Robot Payload CalculatorEstimate cycle time
Use motion distances and process steps to check whether your robot concept can actually meet the required production rate.
Open Robot Cycle Time CalculatorReview simulation path
Use simulation to visualize movement, placement logic, and how the robot behaves around fixtures, parts, and work zones.
Open Robot SimulatorRobotics calculators and tools
These are the core tools for evaluating robot applications. Use them together when reviewing a real system instead of treating them as isolated checks.
Robot Reach Calculator
Check whether the robot can physically reach required target points and whether the working area makes sense for the application.
Robot Payload Calculator
Compare part weight, tooling weight, and total working load against the robot's usable payload range.
Robot Cycle Time Calculator
Estimate total cycle time for robot operations based on travel, handling, and process steps.
Robot Simulator
Visualize motion paths and positioning to better understand how the robot behaves relative to the work area and fixture layout.
Working on a real robot application?
If the application feels risky or unclear, do not jump straight into cycle time claims. First verify reach, then payload, then timing, then use simulation to check whether the actual movement path is realistic.
Use cases by problem type
If you already know the issue you are trying to solve, use these symptom-based paths to choose the best starting point.
Robot may not reach the target
If the fixture, pick point, or process location looks questionable, start with working envelope and reach feasibility.
Payload or tooling weight concerns
If the EOAT, part, or added mounting hardware feels heavy, verify the total load before assuming the robot can handle it safely.
Robot seems too slow
Slow robot performance usually comes from unrealistic assumptions, long moves, awkward part presentation, or process delays.
Supporting robotics paths
This section should work like a system, not a loose collection of calculators. These internal links help users move through a more logical robotics evaluation flow.
Reach → Payload → Cycle Time → Simulation
This is the strongest workflow for most robot feasibility checks and early application reviews.
Start workflowProblem-first navigation
If the user is not sure which robotics tool fits, direct them into the issue-based problem finder first.
Open problem finderSimulation after math checks
Simulation is most valuable after basic reach, payload, and timing assumptions are already grounded.
Open simulatorWhere to go next
This page should act as the main robotics entry point. From here, users should be able to move naturally into robot feasibility checks, timing review, and visual simulation without dead ends or weak internal paths.
Build your robotics checks in order
The strongest internal linking sequence for this section is: Robot Reach → Robot Payload → Robot Cycle Time → Robot Simulator → Problem Solver.