Curell Suñol S.L.P

The invention relates to a raceway assembly for cables comprising a U-shaped raceway (1) and to a retainer (6) to retain cables in the raceway (1). The retainer (6) is an oblong rigid part with two coupling ends (7). The coupling end (7) comprises a hook (8), forming an opening (9) and a cradle (10), and a tab (11) which deforms elastically from an upright position, in which it forms with the hook (8) a clamp which immobilises a flange (5) of the raceway (1) housed in the cradle (10), to a collapsed position in which the flange (5) can be moved in the cradle (10) in a longitudinal direction (X) of the retainer (6) and can come out through the opening (9). The flange (5) housed in the cradle (10) pushes the tab (11) which is moved from the upright position to the collapsed position.

A wiper arm (A) for a windscreen wiper device (W) for wiping a windscreen surface (S) of a vehicle, comprising an arm portion (50) with a first arm end portion (3) near a driving shaft, and a second arm end portion (11) for connecting a wiper blade (B); said wiper arm (A) further comprising a hinge assembly (1) for hingedly connecting said wiper arm (A) and said driving shaft; said hinge assembly (1) comprising:- a support member (2) for connecting to said driving shaft;- an insert member (4), fixed inside a first hollow space (5) of said first arm end portion (3), for connecting said hinge assembly (1) and said arm portion (50) and hingedly connected to the support member (2) by articulation means (6); and- elastic means (8) for connecting said support member (2) and said insert member (4) to each other.

The present invention relates to a cable tray assembly, comprising two U-shaped cable tray segments (1) and at least one L-shaped connection plate (4), with a side wing (5) and a bottom wing (6), which is pressure coupled to the two cable tray segments (1) to connect them to one another. A support part (10) formed in the bottom wing (6) of the connection plate (4) fits with a stop part (9) formed in the bottom wall (2) of the two cable tray segments (1), such that the stop part (9) blocks the relative movement of the support part (10) with respect to the bottom wall (2) at least in a vertical direction perpendicular to the bottom wall (2) and in a direction away from said bottom wall.

The present invention relates to a cable tray assembly, comprising two U-shaped cable tray segments (1) and at least one L-shaped connection plate (4), with a side wing (5) and a bottom wing (6), which, in a coupling position, is pressure coupled to the two cable tray segments (1) to connect them to one another. In an intermediate position, the connection plate (4) is inclined and rests against the free end of the side wall (3) of the tray cable segments (1) and a support part (10) of the bottom wing (6) rests against a stop part (9) of the bottom wall (2) of the cable tray segments (1). To go from the intermediate position to the coupling position, the connection plate (4) pivots and is displaced towards the side wall (3).

Inflatable mirror (1) for a telescope, comprising a rigid outer rim (2), a first and second membranes (3, 4), and a flexible mirror (5); wherein at least one of said first membrane (3) and said second membrane (4) is transparent; wherein said first membrane (3) and said second membrane (4) are attached to said outer rim (2) thereby defining an internal airtight volume, and wherein said flexible mirror (5) is attached to said outer rim (2) between said first membrane (3) and said second membrane (4), thereby defining a first airtight chamber (6) inside said internal airtight volume between said first membrane (3) and said flexible mirror (5), and a second airtight chamber (7) inside said internal airtight volume between said second membrane (4) and said flexible mirror (5), such that the pressure of the first airtight chamber (6) may be different from the pressure of the second airtight chamber (7).

Method to adjust a processing parameter of an additive manufacturing process for controlling the porosity of a metallic part manufactured with said process, wherein the processing parameter has an effect on the porosity of the metallic part. The method comprises the steps of manufacturing at least one metallic part with the additive manufacturing process; applying at least two electric terminals to the manufactured metallic part and measuring the electric resistance between the two electric terminals; and adjusting the processing parameter in the additive manufacturing process in function of the measured electric resistance for additive manufacturing a metallic part with a controlled porosity.

The present invention relates to a cable channel assembly comprising a cable channel (1) and a cable-holder component (11) coupled to same. The cable channel (1) has a straight segment with a U-shaped cross-section and an outer guide (6) on its bottom wall (2). The cable-holder component (11) comprises a channel (12) with a U-shaped cross-section, with an outer shoulder (16) on which an end of the cable channel (11) rests and a perimeter lip (17) resting on the side and bottom walls of the cable channel (1). The side walls of the cable channel (1) and of the channel (12) have fixing means. The cable-holder component (11) has on its bottom wall a lug (20) which is inserted into the outer guide (6) in the coupling position to increase the rigidity in the attachment area.

Sensor (1) for detecting phosphonates comprising:- a body (2) having a hollow vertical chamber (3), with a reference liquid (4) therein;- a semipermeable membrane (5), arranged at the lower end of said chamber (3);- two conductor wires (6,7), provided inside said chamber (3), in contact with said reference liquid (4) and separated from said membrane (5) at different distances;- two output terminals (8, 9), each in electrical connection with one of said conductor wires (6, 7); and- a first resistor (10) connected in parallel to said terminals (8, 9).

3D printing device (1) for manufacturing tubular 3D objects (2) by 3D printing according to printing models; said device (1) comprising a build platform (3) having a tubular shaped build surface (4), and rotatably mounted around a horizontal axis; a rotation control means (7), configured to control the rotation of said build platform (3); a laser source (10); a beam positioning means (11), configured to variably direct the laser beam; a plurality of resin tanks (51) and at least one cleaning tank (52); a tank positioning means, configured to change the relative position between one tank and said build platform (3) to a usage position wherein said tank is under said build platform (3); and a control means, configured to control the different elements according to a printing model to manufacture a 3D object (2).

A writing device assembly and a writing content identification method are provided. The assembly includes a writing apparatus including a pressure sensing unit, an optical identification unit and a processor, and a writing medium having code points printed thereon. The pressure sensing unit generates a pressure sensing signal when sensing that the writing apparatus contacts the writing medium. The optical identification unit captures a code point image of the code points in the writing medium when the pressure sensing unit generates the pressure sensing signal, analyze the code point image to obtain a code point value, and send the code point value to the processor. The processor identifies a code point type of the code point value, analyzes the code point value to determine a writing trace when the code point type is identified to be a coordinate code, and identifies the writing trace to obtain writing content.