humanoid.guide Features Didrei Robotic’s Biomechanical Robotic Hand, UM1 Evo

On November 10, 2026, humanoid.guide published an article featuring Didrei Robotic’s UM1 Evo.

The article rates degrees of freedom 5 out of 5, while strength scores 1 out of 5, showing a gap between the two. Rather than judging a robotic hand by an overall score alone, it is necessary to assess dexterity and strength separately in light of the intended task.

An important point in understanding this topic is that UM1 Evo is not presented with a single overall score alone; its ratings are divided across distinct dimensions: degrees of freedom and strength. The article gives it an overall score of 6 out of 10, with degrees of freedom rated 5 out of 5 and strength 1 out of 5. It is therefore not appropriate to use the overall score alone to make a uniform judgment about the hand’s capabilities. The article also explains that the degrees-of-freedom rating does not represent the number of joints or independently controlled movements, so the meaning of the rating scale should not be confused with the actual specifications of the hardware. No related articles from this newspaper were provided, so it is not possible to discuss continuity with or changes from past coverage. The public information available here is limited to the humanoid.guide article; it does not provide evidence to support claims about price, sales model, comparisons with competing products or market size. It is not possible to make a definitive judgment about the product’s market position based on those factors. The article’s figures for UM1 Evo, including an assembled weight of 1.7 kilograms and 25 electric actuators in the forearm, describe its configuration; those details alone do not establish grip force, operating speed, durability or practical utility. Nor does the description of its development indicate the conditions under which the prototype was evaluated. In our view, the technical profile that can be discerned at this stage is a substantial gap between the ratings for dexterity and strength. Assessing its actual task performance requires linking the scores to specific movements and measurement conditions. See the original article for details. Points to check going forward include, first, the measured force and test conditions underpinning the strength rating; second, how the degrees-of-freedom rating corresponds to actual controlled movements; and third, the results of hardware testing, including repetitive operation and durability. If these details are provided, the relationship between the rating scale and real-world tasks can be examined more concretely.