5 results about "Maximum dimension" patented technology

A compression element (80) for a mooring component comprises a plurality of shell pieces (42b, 42b'). Each shell piece has a first annular portion and a second annular portion and a middle portion extending between the first annular portion and the second annular portion. The first annular portion and the second annular portion lie in a plane perpendicular to a central axis of the compression element. The maximum dimension of the first annular portion in a direction perpendicular to the central axis is greater than the corresponding maximum dimension of the second annular portion. The shell pieces are arranged along the central axis such that the first annular portion or the second annular portion of one shell piece is joined to the first annular portion or the second annular portion of an adjacent shell piece. The compression element is arranged such that, when a compressive stress causes the compression element to be compressed, the middle portion of one shell piece contacts the middle portion of an adjacent shell piece.

The invention relates to a method (100) for manufacturing a machine part (15) from a workpiece (10). The method (100) comprises a first step (110) in which the dimensions (16) of a surface (12) to be machined of the workpiece (10) and a tolerance allowance (17) of the dimensions (16) are detected. This is followed by a second step (120) in which the generation of a signature pattern (20) is carried out for the surface (12) to be machined. This is followed by a third step (130) in which the workpiece (10) is subjected to a forming machining (37) at least at the surface (12) to be machined. Here, the signature pattern (20) is manufactured. In a subsequent fourth step (140), a check code (25) is manufactured on the workpiece (10). According to the invention, the signature pattern (20) has a maximum dimension (22) which lies within the tolerance allowance (17).

The present invention relates to a timepiece mechanism comprising: - a timepiece component (2) which moves translationally in a longitudinal direction (x), - an inbuilt seal (10) surrounding the timepiece component (2) and comprising: - a central region (100), - at least one lateral end region (300), - a transition region (200) between the central region (100) and the lateral end region (300). The central region (100) has a maximum dimension (d1) in a transverse direction (y) that is greater than that (d3) of the lateral end region (300), the dimension (d3) in the transverse direction (y) of the lateral end region (300) being equal to or greater than that (d2) of the transition region (200). The seal (10) is arranged to rotate about the center (C) of its cross section in the plane xy during the movement of the timepiece component (2) by an angle in the range 10°-20°.

An extraction means 1151 extracts, from among 3D Gaussians subjected to parameter training by a learning means 114, only 3D Gaussians for which the maximum size of a projected Gaussian projected on each screen is greater than or equal to a threshold value. A selection means 1152 selects some 3D Gaussians, from the 3D Gaussians extracted by the extraction means 1151, with a probability proportional to the opacity of the extracted 3D Gaussians. A division means 1153 divides the 3D Gaussians selected by the selection means 1152 into a plurality of pieces so that the total volume of the 3D Gaussians is maintained. An arrangement means 1154 arranges each of the 3D Gaussians divided into the plurality of pieces by the division means 1153, on the basis of the positions of the original 3D Gaussians before the division.

This enables adaptive density control of 3D Gaussian, which is suitable for reproducing the details of objects depicted in captured images. [Solution] The extraction means 1151 extracts only those 3D Gaussians whose maximum size projected onto each of the above-mentioned screens is greater than or equal to a threshold, from among the 3D Gaussians whose parameters have been learned by the learning means 114. The selection means 1152 selects several 3D Gaussians from among the 3D Gaussians extracted by the extraction means 1151 with a probability proportional to the opacity of those 3D Gaussians. The splitting means 1153 splits the 3D Gaussians selected by the selection means 1152 into multiple parts so as to maintain their total volume. The placement means 1154 places each of the 3D Gaussians split by the splitting means 1153 based on the position of the original 3D Gaussian before splitting.