Nachi MR35 vs Standard Bots Core: Robot Comparison
IN A NUTSHELL
🔎 THE KEY DIFFERENCE The Core focuses this comparison on programming and deployment as well as mechanics. It offers an 18 kg payload and 1,300 mm reach with a touchscreen no-code workflow; the MR35 offers 35 kg, 2,050 mm and seven-axis posture control. The 750 mm reach gap means these are alternatives only for a suitably compact task. |
→ CONSIDER Nachi MR35 Shortlist Nachi MR35 when its 35 kg selected load allowance and 2,050 mm stated reach fit the complete tool and part. Check the required approach path and the exact MR35, 35 kg floor-mounted reference configuration before treating it as a match. |
→ CONSIDER Standard Bots Core Shortlist Standard Bots Core when its 18 kg selected load allowance, 1,300 mm reach and 6-axis mechanism address your actual installation constraints. Include the tool mass; the headline capacity is not the part weight alone. |
💡 THE TAKEAWAY Choose the arm that completes the loaded task with workable access, repeatable recovery and support you can use. Ask both suppliers to demonstrate the same process and quote the same complete cell. |
Nachi MR35 vs Standard Bots Core is a decision about a complete machine-tending or handling installation. The Core focuses this comparison on programming and deployment as well as mechanics. It offers an 18 kg payload and 1,300 mm reach with a touchscreen no-code workflow; the MR35 offers 35 kg, 2,050 mm and seven-axis posture control. The 750 mm reach gap means these are alternatives only for a suitably compact task.
Quick verdict and the useful overlap
Consider the Core where its tool-plus-part allowance covers the job and its portable-base workflow simplifies changeover. Consider the MR35 when heavier tooling or access around the machine requires its larger envelope or redundant arm. Moving a robot between machines still requires repeatable location, checked utilities and a validated task at each station.
The Core review identifies it as the successor to RO1 and describes optional built-in 3D vision, a wrist-camera option and a base that locks without floor bolts. Those features should be specified in the purchased package. No-code programming and portability do not by themselves establish safe operation alongside people or reliable unattended machine tending.
Specifications and exact configuration scope
Criterion | Nachi MR35 | Standard Bots Core |
Selected configuration | MR35, 35 kg floor-mounted reference | Core, 18 kg reference |
Payload used here | 35 kg | 18 kg |
Stated reach | 2050 mm | 1300 mm |
Robot axes | 7 | 6 |
Published repeatability | ±0.07 mm | ±0.025 mm |
Control package | Matched Nachi control package | Standard Bots touchscreen platform |
Price basis | Configuration-specific quotation | Configuration-specific quotation |
The table identifies a single comparison scope for each robot. It does not combine a family maximum payload with another variant’s reach. Reach values are starting references, not promises that every position inside a radius is accessible with every tool orientation. Maximum loads remain subject to the manufacturer’s moment, inertia, mounting and motion conditions.
Payload: count everything that moves
For Nachi MR35, the selected headline allowance is 35 kg; for Standard Bots Core, it is 18 kg. Build the load calculation from the gripper, adapter, tool changer, sensors, carried services and the heaviest normal part. A dual gripper may carry an incoming and an outgoing part during the same exchange, so the worst case can occur between stations rather than during machining.
Mass is only one part of the load check. A long adapter moves the centre of gravity away from the flange and increases wrist moments. A broad part may create high rotational inertia even when its mass looks comfortable. Obtain the permitted load diagrams and run the actual centre-of-gravity and inertia values through the supplier’s sizing process. A percentage of unused payload is not a substitute for that check.
Reach and access: model the whole path
The selected reach references are 2,050 mm for Nachi MR35 and 1,300 mm for Standard Bots Core. Position the base in the same cell model and test pickup, approach, insertion, withdrawal and transfer. Check wrist orientation at each point. A robot that reaches a coordinate with an empty flange may fail once a gripper, long part or cable loop is included.
For machine tending, model the door, chuck, jaws, tailstock and any adjacent fixture. The required movement is a path through these objects, not a straight line between two reachable poses. Include clearance for manual service with the robot parked. If the proposal needs a pedestal, rail or moving fixture, include its space, loading, calibration and safety responsibilities in the comparison instead of treating the robot as the entire system.
Axis count and predictable posture
The MR35 has seven axes while Standard Bots Core has six. The additional axis can provide alternative arm postures while retaining a tool pose, which is useful around obstructions. It does not automatically add process speed, payload or accuracy. A conventional six-axis solution can be entirely adequate when its path is clear.
Require a deliberate posture strategy at machine entry, handoff and withdrawal. Pay particular attention to restarting after a stop: recovery should not choose an unexpected route around a fixture or force an operator to improvise inside the cell. Retain the validated joint positions and configuration choices with the program, and test the recovery cases with representative tooling.
Repeatability and process quality
The reviews provide published repeatability figures for both selected robots. These describe return to a taught position under specified conditions; they do not describe absolute positioning accuracy, path accuracy or the accuracy of the completed part.
For assembly, separate robot positioning from fixture tolerances, part variation and tool compliance. For inspection, include camera calibration, illumination, sensor mounting and thermal effects. For machining-related handling, test the gripper’s ability to reseat a part consistently. A smaller robot repeatability number can be useful, but it cannot repair an unstable fixture or an unreliable grasp.
Controllers, software and machine integration
The control references in this comparison are Matched Nachi control package for Nachi MR35 and Standard Bots touchscreen platform for Standard Bots Core. Specify the delivered controller revision, pendant, software options, supported fieldbus and machine handshake. Do not infer that a port or protocol advertised for a controller family is included and licensed on the quoted unit.
Define robot-ready, machine-ready, cycle-start, clamp-confirmed, door state, fault and reset signals before commissioning. Separate normal process I/O from safety functions. Ask who supplies and maintains the robot program, PLC logic, machine interface and backups. A working demonstration is incomplete if the production team cannot restore it after a controller replacement or diagnose a stopped exchange without the original programmer.
Industries and functionality
The useful overlap for Nachi MR35 vs Standard Bots Core is industrial part handling and machine tending within both selected load-and-envelope limits. Potential projects include metal-part transfers, component loading and assembly support. Those are application possibilities, not claims that either model has been validated for your specific part, production environment or industry qualification.
For a wet machine tool, define coolant exposure, chip ingress, connector placement and gripper protection. For assembly, define insertion forces and how the cell detects a bad part. For packaging or transfers, define part presentation, accumulation and recovery from an empty pickup. The right arm is the one that supports the complete process with a feasible tool and layout, rather than the one with the longest list of possible applications.
Safety and the operating concept
Treat the robot, tooling, carried workpiece and surrounding machine as one integrated system. Determine the intended operating modes, access points, stopping behavior and recovery procedure. Neither a seventh axis, a touchscreen nor a small footprint establishes that a particular application can operate safely beside people.
The integrator must assess the actual hazards and provide the required protective measures for the cell. Include tool retention, sharp or hot parts, trapping points, unexpected machine motion and maintenance access. Where safety options are offered, identify the exact licensed functions and validate their use in the delivered application. Do not substitute a component certificate for a validated cell.
Cycle time and acceptance
Run the same representative process on both proposals. Use the real load, approach angles, grip confirmation, machine waits and required part quality. Include the slowest normal part variant and the changeovers the operators will actually perform. Maximum joint speed or composite speed does not establish good parts per hour.
Agree pass/fail conditions before the test: successful exchanges, part quality, recoverable interruptions and the production interval over which performance is measured. Test a missing part, a failed grip, a machine fault and a stopped cycle near the fixture. Record the hardware, software and settings used so later maintenance can restore the accepted behavior rather than merely a program with the same filename.
Price, ownership and service
Request current quotations for the exact selected configurations. Compare robot, controller, software, tooling, guarding, fixtures, machine interface, installation, commissioning, training and support as separate line items. Historical starting prices in an individual review are not a current complete-cell quotation, so this comparison does not use them to declare a price winner.
Include the cost of changeover, operator intervention, preventive maintenance, spare parts and fault recovery. Confirm local support for the delivered generation and who owns the program backups. An existing controller platform may reduce training effort, while a different arm geometry may reduce mechanical redesign. Quantify those project-specific effects before deciding which proposal has better value.
Final selection
The Core focuses this comparison on programming and deployment as well as mechanics. It offers an 18 kg payload and 1,300 mm reach with a touchscreen no-code workflow; the MR35 offers 35 kg, 2,050 mm and seven-axis posture control. The 750 mm reach gap means these are alternatives only for a suitably compact task.
Consider the Core where its tool-plus-part allowance covers the job and its portable-base workflow simplifies changeover. Consider the MR35 when heavier tooling or access around the machine requires its larger envelope or redundant arm. Moving a robot between machines still requires repeatable location, checked utilities and a validated task at each station.
Frequently Asked Questions
What is the main difference between Nachi MR35 and Standard Bots Core?
The Core focuses this comparison on programming and deployment as well as mechanics. It offers an 18 kg payload and 1,300 mm reach with a touchscreen no-code workflow; the MR35 offers 35 kg, 2,050 mm and seven-axis posture control. The 750 mm reach gap means these are alternatives only for a suitably compact task.
Which robot has the more suitable payload for my tool?
Compare the complete carried load against 35 kg for Nachi MR35 and 18 kg for Standard Bots Core, using the selected scopes in the table. Include the tool and any second part, then check centre of gravity and wrist inertia. A mass-only pass does not establish an acceptable operating condition.
Does the longer stated reach guarantee better machine access?
No. The stated references are 2,050 mm and 1,300 mm, but access depends on base position, joint limits, approach angle, tooling and surrounding machinery. Test the complete loaded path and the parked position in the same layout.
Does the seventh axis make the MR35 automatically better?
No. Redundancy is useful when an alternative arm posture solves a concrete access or clearance problem. It also requires controlled posture and recovery behavior. A six-axis arm can be the appropriate choice when it completes the required path without those additional posture options.
Can either robot work beside people without a protected cell?
That cannot be decided from payload, axis count or programming interface. Assess the complete application, including tooling, workpieces and the connected machine, and validate the protective measures and operating modes selected by the integrator.
Which robot is faster in production?
The cited headline specifications do not establish a production winner. Compare the same loaded path, machine waits, gripping checks, settling requirements and recovery cases. Measure accepted output over representative operation, rather than using an unloaded motion demonstration.
How should I compare purchase prices?
Obtain current, configuration-specific quotations with the same scope: arm, controller, software, tooling, safety equipment, fixtures, installation, training and service. Separate optional systems and recurring costs. Do not compare a bare-arm price with a commissioned production cell.
What should the acceptance test prove?
Consider the Core where its tool-plus-part allowance covers the job and its portable-base workflow simplifies changeover. Consider the MR35 when heavier tooling or access around the machine requires its larger envelope or redundant arm. Moving a robot between machines still requires repeatable location, checked utilities and a validated task at each station. Then test loaded motion, required quality, machine handshakes, interruption recovery and access for maintenance. Keep the accepted configuration and backups with the commissioning records.
Read the individual product reviews
Specifications, options and support depend on the supplied model, revision and region. Confirm the exact load diagram, controller package, commercial terms and acceptance obligations with the supplier.
