Mayer, Aline Sophie

A capacitive sensor comprises an insulating substrate (80), wherein a flat driving electrode (10) is positioned in a driving electrode area (15) on one side of the insulating substrate (80), wherein a flat sensing electrode (20) is positioned in a sensing electrode area (25) on the same side of the insulating substrate (80), wherein the driving electrode area (15) and the sensing electrode area (25) is separated by a distancing area (81) in the plane of the insulating substrate (80). An unconnected one-piece conductive plate (70) is positioned on the opposite side of the insulating substrate (80) covering a surface encompassing the driving electrode area (15) of the driving electrode (10), the sensing electrode area (25) of the sensing electrode (20) as well as the distancing area (81).

A computer implemented method of adapting a cloth model (211) on an avatar model (111) creating a fitted cloth model (211) in a three-dimensional virtual reality world, comprises the steps of scaling the cloth model (211) uniformly as well as stretching and/or shrinking of the model uniformly matching an overall size of the avatar model (111) to generate a uniformly scaled cloth model. A plurality of polygons covering the surface of the avatar model (111) is defined. A plurality of groups of polygons (412) based on a predetermined number of said polygons is defined and one vertex for each polygon group is assigned in UV space. A color relating to the polygon groups (410) related to the avatar model (111) as well as related to the cloth model (211) is assigned. Then the polygon groups (410) relating to the avatar model (111) or the cloth model (211) are displayed, whichever is representing the highest layer.

A sensing device for measuring a flow velocity of a fluid (F), preferably groundwater, in a borehole is provided. The sensing device (1) comprises a heating element (11) configured to emit heat pulses for heating the fluid. The heating element (11) has a diameter Di, and a number N of sensor elements (12) being equidistantly arranged on a virtual circle with a circle diameter D₂ around the heating element (11), wherein each sensor element comprises a fiber Bragg grating (FBG) that is couplable to a light source (301) and to a read-out module (302). The number N of sensor elements (12) is equal to or greater than πD₂/D₁ and/or the N sensor elements (12) are arranged within a single optical fiber forming a loop with the circle diameter D₂ around the heating element (11).

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A coating production line system (10) for coating work pieces (5) comprises a coating powder, a coating apparatus (30) configured to provide a coating for the work pieces, an inspection unit (50) configured to measure the thickness of the applied coating, a conveyor unit configured to move the work pieces through the coating apparatus and the inspection unit in this order, and a control unit (60) configured to use thickness requirements and coating parameters to control the coating apparatus based on said coating parameters with a machine learning instance. A database comprises coating powder characteristics parameter as input vector for the machine learning instance for generating an output vector to control the coating apparatus being at the same time a first additional part vector. The control unit determines the coating quality based on a comparison between the thickness data acquired from the inspection unit and the retrieved thickness requirement data as second additional part vector. The first and second additional part vectors are fed back as additional parts to the next input vector for the machine learning instance.

A closure device (100) comprises a sleeve-shaped base body (10) and an expander element (20), wherein the expander element (20) comprises a splaying body (21) and a pulling element (22) with a breaking groove (23) between them. The splaying body (21) has a frustoconical head with the smaller diameter oriented to the breaking groove (23), wherein the sleeve-shaped base body (10) has in the longitudinal direction (110) from an inside-bore directed surface (17) to an outside directed surface (16) a head receiving portion (115) followed by a tapering shoulder portion (14) and a central opening (12) having an inner cylindrical surface (13) configured to allow to pass the outer diameter of the pulling element (22). The sleeve-shaped base body (10) as well as the expander element (20) are made of aluminum or an aluminum alloy and a circumferential groove (18, 18') is provided in the inner guiding wall (19) around the outer directed section of the central bore (43) of the sleeve-shaped base body (10).

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