Abstract: A sample carrier includes a bottom, at least one side wall, and a contact face for receiving a sample. The side wall extends upward relative to the bottom. A circumferential rim is provided on the contact face. The sample carrier can be used in a sample handling system which includes a counterpart support element and a sample storage for receiving the sample carrier. Multiple sample storages are combined to sample storage rails with can be arranged on a sample storage shelf. The sample carrier can be part of a system for performing thermomechanical analysis, including the sample handling system while the samples, arranged in the sample carriers, are stored in the sample storages of the sample storage rails arranged in the sample storage shelves from where they are transported to the sample support with the help of the counterpart support element.

Abstract: A micro-mechanical part made of insulating material, such as a silicon balance spring (1) for a timepiece movement, tends to adhere to a neighboring part when it is in movement, such as the balance cock (9). This drawback is removed by carrying out, over all or part of the surface, a thin deposition of a layer of conductive material, such as a metal, which is preferably non-oxidizing and non-magnetic, such as gold, platinum, rhodium or silicon.

Abstract: A micro-mechanical part made of insulating material, such as a silicon balance spring (1) for a timepiece movement, tends to adhere to a neighbouring part when it is in movement, such as the balance cock (9) as shown in the left part of the Figure. This drawback is removed, as shown in the right part of the Figure, by carrying out, over all or part of the surface, a thin deposition of a layer of conductive material, such as a metal, which is preferably non-oxidising and non-magnetic, such as gold, platinum, rhodium or silicon.