The MCS10 multi-axis sensor can simultaneously measure up to six different forces and moments with an accuracy class of up to 0.1. It provides near-complete compensation of signal crosstalk, ensuring highly precise measurement results.
A new low-capacity version MCS10-002 is now available: a compact variant of the MCS10 with force capacities of 2 kN / 0.5 kN / 0.5 kN and bending moment torque capacities of 20 Nm / 20 Nm / 20 Nm.
Up to six forces and moments on three axes (x, y, z) can be measured by the MCS10 multi-axis sensor. This makes it an ideal solution for mechanical engineering applications, test benches, and research and development environments. It delivers a highly precise three-dimensional representation of the measurement setup with a maximum precision up to accuracy class 0.1. Thanks to the MCS10's innovative flange-based design, it achieves the best measurement performance.
Individual signal channels of common multi-axis sensors often mutually affect each other. The MCS10 minimizes this crosstalk to guarantee a problem-free signal. HBK also provides an individual compensation matrix for the MCS10, allowing users to enhance accuracy even further. When used together with an HBK measuring amplifier, this calculation becomes particularly straightforward.
Thanks to TEDS technology, the installed data acquisition unit automatically recognizes the MCS10, enabling immediate operation without extensive parameterization. Users can freely choose which forces and moments to measure. HBK has combined the experience from numerous custom-built special transducers in the MCS10, while adding a standard product's reliability and flexibility - resulting in a multiaxis load cell that delivers proven, high-quality performance.
Exact measurement results thanks to high precision and compensation for crosstalk
Numerous measurement combinations possible with independently configurable maximum capacity ranges
Resistant - thanks to degree of protection and overload capacities
| MCS10 - Data Sheet | Data Sheets | English |
| MCS10 - Data Sheets | Data Sheets | German |
| MCS10 - Data Sheets | Data Sheets | Japanese |
| MCS10 - Data Sheets | Data Sheets | French |
| MCS10 - Quick Start Guide | Quick Start Guide | English, French, Chinese, German |
| MCS10 - Mounting Instructions | Mounting Instructions | English, French, German |
Certificates and Approvals
| MCS10 - EU Declaration of Conformity | Declaration of Conformity | English |
| MCS10-002-3C - CAD | CAD Step Files |
| MCS10-002-6C - CAD | CAD Step Files |
| MCS10-005-3C - CAD | CAD Step Files |
| MCS10-005-6C - CAD | CAD Step Files |
| MCS10-010-3C - CAD | CAD Step Files |
| MCS10-010-6C - CAD | CAD Step Files |
| MCS10-025-3C - CAD | CAD Step Files |
| MCS10-025-6C - CAD | CAD Step Files |
| MCS10-050-3C - CAD | CAD Step Files |
| MCS10-050-6C - CAD | CAD Step Files |
| MCS10-100-3C - CAD | CAD Step Files |
| MCS10-100-6C - CAD | CAD Step Files |
| MCS10-200-3C - CAD | CAD Step Files |
| MCS10-200-6C - CAD | CAD Step Files |
| Nominal lateral force Fx & Fy | 1 kN, 2 kN, 5 kN, 10 kN, 20 kN, 40 kN, 0.5 kN |
| Nominal lateral force Fx & Fy | 224 lbf, 450 lbf, 1124 lbf, 2248 lbf, 4496 lbf, 8992 lbf, 112 lbf |
| Nominal axial force Fz | 5 kN, 10 kN, 25 kN, 50 kN, 100 kN, 200 kN, 2 kN |
| Nominal axial force Fz | 1124 lbf, 2248 lbf, 5620 lbf, 11.24 klbf, 22.48 klbf, 44.96 klbf, 450 lbf |
| Nominal bending moment Mx & My | 0.05 kNm, 0.15 kNm, 0.35 kNm, 0.7 kNm, 2 kNm, 3.5 kNm, 0.02 kNm |
| Nominal bending moment Mx & My | 442 in-lb, 1327 in-lb, 3098 in-lb, 6195 in-lb, 17700 in-lb, 30973 in-lb, 177 in-lb |
| Nominal torsional moment Mz | 0.05 kNm, 0.15 kNm, 0.25 kNm, 0.5 kNm, 1.5 kNm, 3 kNm, 0.02 kNm |
| Nominal torsional moment Mz | 442 in-lb, 1327 in-lb, 2212 in-lb, 4424 in-lb, 13274 in-lb, 26548 in-lb, 177 in-lb |
| Accuracy class | 0.2, 0.1, 0.15 |
| Degree of protection | IP67 |
| Length | 45 mm, 62 mm, 77 mm |
| Length | 1.77 in, 2.44 in, 3.03 in |
| Diameter | 68 mm, 96 mm, 121 mm |
| Diameter | 2.68 in, 3.78 in, 4.76 in |
| Minimum Temperature | -10 °C |
| Maximum Temperature | 85 °C |
| Minimum Temperature | 14 °F |
| Maximum Temperature | 185 °F |
| Output signal | Passive (mV/V) |
| Weight | 0.5 kg, 1 kg, 1.8 kg, 3.8 kg |
| Weight | 1.1 lb, 2.2 lb, 4 lb, 8.4 lb |
A multi-axis sensor is a force transducer equipped with up to six galvanically isolated measurement bridges. It measures forces along three directions, each orientated 90° to the others. In each direction, it is also possible to measure the corresponding bending moments.
Multi-axis sensors can measure in up to three axes. In each direction, both a force and a bending moment can be measured, which means a maximum of six output channels is possible with a multi axis sensor. With HBK, you can configure your sensor according to your measurement task – anything between two and six channels is available.
These sensors operate with strain gauges arranged in a Wheatstone bridge. As a result, the output is an mV/V signal, and the bridges must be supplied with an excitation voltage. You can use any amplifier designed for strain gauge bridges, such as the PMX or QuantumX models form HBK.
There are quite compact sensors on the market designed for applications with low measurement values. For example, the MCS10-002 offers force capacities of 2 kN in the Z- direction and just 500 N in X- and Y-directions. Its height is no more than 45 mm, and its diameter is only 68 mm. Sensors of this size are often used in wind-tunnel applications or haptic tests.
At the other end of the spectrum, multi axis sensors in the meganewton range are available as customised solutions.
HBK uses flanges on both sides of the sensor. A centering aid and a positioning pin ensure that MCS transducers can be mounted easily and in the correct orientation.
It is important to follow the instructions in the manual: the hardness of the parts in contact with the sensor must be appropriate, and the torque applied to the screws must comply with the specified values.
If the direction of the force is clearly defined – for example, press forces – then a uniaxial force sensor is sufficient. However, if you need to measure forces in different directions – such as in wind-tunnel tests, where both lift and drag forces must be captured – a multi-axis sensor is required.
Multi-axis sensors are also the right choice when the direction of the maximum force is unknown.
You can use individual single-axis sensors for each direction. This approach is mechanically more complex and more expensive but it is also more precise.
Medical robotics makes extensive use of multi-axis sensors. These sensors support advancements in surgical procedures, medical training, and rehabilitation.
There are also many mechanical tests that require a multi-axis sensing – for example, helmet verification tests. The assembly of aircraft is also controlled by force measurements from multi-axis sensors.
When a load is applied in only one direction and an output appears on the other axes, this is referred to as crosstalk between channels. Crosstalk levels are included in the technical specifications for multi‑axis sensors and are given as a percentage of the channel output. HBK has optimised the cross talk to a minimum by careful mechanical design.
Non-linearity is the maximum deviation of the calibration curve from a straight line drawn between no-load and full scale, expressed as a percentage of full scale and measured with an increasing load.
Hysteresis is the maximum difference between the transducer output readings for the same applied load. One reading is taken while increasing the load from zero, and the other while decreasing the load from the rated output. Hysteresis is usually measured at half the rated output.