mhurhangee/ep-ind-claims huggingface dataset:
Moulded tray obtained from a composition of cellulose coming from cardboard and paper recycling, to which additives are added to improve its physical and functional features, whereby each tray consists of several scrapers joined to one another by means of perforated lines which allow segregating them, wherein each scraper forming the tray has a grip or handle and a scraper or actuating and cleaning end each joined to one another by an intermediate section, the scrapers being arranged in the tray in an alternating manner such that the grip of one is facing the actuating end of the adjacent one, the scrapers having a general concave configuration which allows stacking the trays and the scrapers once segregated, and wherein in addition to cellulose, one or a combination of some or all of the following additives are added in the composition: - glues - bactericide - cationising agent - dye - defoamer - flocculant - mould release agent - aromas - disinfectants - detergents. - glues - bactericide - cationising agent - dye - defoamer - flocculant - mould release agent - aromas - disinfectants - detergents.
A joining and levelling system for parts of furniture and furnishing items comprising a bottom or base and at least one shoulder, the joining and levelling system comprising, in combination, at least one front foot unit and at least one rear foot unit, wherein each front and rear foot unit (15,16) comprises a maneuverable connection group with a constraining element and a levelling group with a height adjustment mechanism, wherein both said connection group and said levelling group of said front foot and rear foot unit (15,16) can be actuated from the front with respect to the furniture through the space between the base and the floor, characterized in that in said system, said connection group and levelling group of said at least one rear foot unit are actuated from the front by means of actuation or transmission rods (35, 36) of which a front end (37,38) is positioned side by side to actuation holes (28,29) of said connection group and levelling group of said at least one front foot unit.
A protecting cover (12, 12') adapted for a connecting port, the protecting cover (12, 12') comprises: a latching component (121, 121') at least partially accommodatable inside the connecting port, the latching component (121, 121') comprising an engaging portion (1211, 1211'), the engaging portion (1211, 1211') engageable with a cooperating portion of the connecting port when the latching component (121, 121') is at least partially accommodated inside the connecting port; the protecting cover being characterized in that it further comprises a releasing component (122, 122') detachably installed on the latching component (121, 121'), the releasing component (122, 122') comprising a resilient arm (1221, 1221'), when the releasing component (122, 122') is installed on the latching component (121, 121'), the resilient arm (1221, 1221') abutting against the engaging portion (1211, 1211'), so that the engaging portion (1211, 1211') is driven by operation of the resilient arm (1221, 1221') to disengage from the cooperating portion. a latching component (121, 121') at least partially accommodatable inside the connecting port, the latching component (121, 121') comprising an engaging portion (1211, 1211'), the engaging portion (1211, 1211') engageable with a cooperating portion of the connecting port when the latching component (121, 121') is at least partially accommodated inside the connecting port; the protecting cover being characterized in that it further comprises a releasing component (122, 122') detachably installed on the latching component (121, 121'), the releasing component (122, 122') comprising a resilient arm (1221, 1221'), when the releasing component (122, 122') is installed on the latching component (121, 121'), the resilient arm (1221, 1221') abutting against the engaging portion (1211, 1211'), so that the engaging portion (1211, 1211') is driven by operation of the resilient arm (1221, 1221') to disengage from the cooperating portion.
A scaffolded stent-graft (100, 500) comprising: a graft material comprising an inner surface and an outer surface, the inner surface defining a lumen within the graft material; a scaffold (106, 506) comprising a mesh coupled to the graft material at the outer surface, the scaffold (106, 506) configured to promote tissue ingrowth therein; and a moisture expanding material coupled to the scaffold; wherein the scaffolded stent-graft is configured to be deployed into a vessel to exclude an aneurysm; wherein the mesh is in the shape of a torus. a graft material comprising an inner surface and an outer surface, the inner surface defining a lumen within the graft material; a scaffold (106, 506) comprising a mesh coupled to the graft material at the outer surface, the scaffold (106, 506) configured to promote tissue ingrowth therein; and a moisture expanding material coupled to the scaffold; wherein the scaffolded stent-graft is configured to be deployed into a vessel to exclude an aneurysm; wherein the mesh is in the shape of a torus.
A structure comprising: a semiconductor light emitting diode; a support substrate, wherein the support substrate has a top surface, a side surface and a bottom surface; wherein the semiconductor light emitting diode is mounted on the top surface of the support substrate; wherein the support substrate is configured to have a thermally conductive path from the semiconductor light emitting diode to the bottom surface of the support substrate, a carrier having a bottom surface and an opening, wherein the support substrate is disposed in the opening and the support substrate is mechanically connected to the carrier through at least one of the top surface and the side surface of the support substrate, wherein the bottom of the support substrate or the side surface of the support substrate is making electrical contact to the semiconductor light emitting diode, and wherein the bottom surface of the carrier is disposed at a higher elevation than the bottom surface of the support substrate. a semiconductor light emitting diode; a support substrate, wherein the support substrate has a top surface, a side surface and a bottom surface; wherein the semiconductor light emitting diode is mounted on the top surface of the support substrate; wherein the support substrate is configured to have a thermally conductive path from the semiconductor light emitting diode to the bottom surface of the support substrate, wherein the support substrate has a top surface, a side surface and a bottom surface; wherein the semiconductor light emitting diode is mounted on the top surface of the support substrate; wherein the support substrate is configured to have a thermally conductive path from the semiconductor light emitting diode to the bottom surface of the support substrate, a carrier having a bottom surface and an opening, wherein the support substrate is disposed in the opening and the support substrate is mechanically connected to the carrier through at least one of the top surface and the side surface of the support substrate, wherein the bottom of the support substrate or the side surface of the support substrate is making electrical contact to the semiconductor light emitting diode, and wherein the bottom surface of the carrier is disposed at a higher elevation than the bottom surface of the support substrate.
A suction cup device for a suction conveyor, comprising a suction cup for receiving a product, the suction cup delimiting a suction space, a connection port for applying a negative pressure to the suction space, characterized in that the connection port comprises a tube valve, the tube valve comprising a socket element and an annular closure element, and wherein the tube valve, while being acted upon by an actuator suction cup arranged in the suction space and being in communicating connection with the connection port, can be transferred from a closed position to an open position, wherein the actuation of the tube valve by deformation of the actuator suction cup is performed in such a manner that the deformation of the actuator suction cup brings about a displacement of the closure element in the vertical direction, so that the annular closure element of the tube valve is transferred to an opened position.
A stability frame for the installation of a wind turbine on an offshore substructure, wherein the wind turbine comprises a tower configured to be anchored to a rigging assembly below the barycenter of the wind turbine; the stability frame comprising: - a main body configured to be mounted about the upper part of the tower; and - a plurality of guides, which extend outwardly from the main body and are configured for constraining parts of the rigging assembly; characterised in that the stability frame further comprises: - two hooking members mounted on the main body and for cooperation with an automatic hooking assembly of a crane vessel. - a main body configured to be mounted about the upper part of the tower; and - a plurality of guides, which extend outwardly from the main body and are configured for constraining parts of the rigging assembly; characterised in that the stability frame further comprises: - two hooking members mounted on the main body and for cooperation with an automatic hooking assembly of a crane vessel.
A coil device for a wireless power transfer system comprising: a coil; and a holder holding the coil, wherein the coil is formed by a conductive wire being wound in a wound wire direction and includes a plurality of turns adjacent in a direction intersecting the wound wire direction, and wherein the holder includes: a plurality of first holding portions (11, 41) holding the conductive wire in such a way that the conductive wire passes along a plurality of first paths corresponding to the plurality of turns; and at least one second holding portion (12, 22, 32, 42) holding the conductive wire in such a way that the conductive wire passes along a second path extending in a direction intersecting the wound wire direction and connecting the first paths, characterized by the coil device further comprising an electrically conductive nonmagnetic member (9C, 9D, 9E, 9F) disposed on a back surface side of the holder, wherein the electrically conductive nonmagnetic member (9C, 9D, 9E, 9F) includes a fourth holding portion (14, 34, 44) holding the conductive wire on a back surface side of the electrically conductive nonmagnetic member (9C, 9D, 9E, 9F). a coil; and a holder holding the coil, wherein the coil is formed by a conductive wire being wound in a wound wire direction and includes a plurality of turns adjacent in a direction intersecting the wound wire direction, and wherein the holder includes: a plurality of first holding portions (11, 41) holding the conductive wire in such a way that the conductive wire passes along a plurality of first paths corresponding to the plurality of turns; and at least one second holding portion (12, 22, 32, 42) holding the conductive wire in such a way that the conductive wire passes along a second path extending in a direction intersecting the wound wire direction and connecting the first paths, characterized by the coil device further comprising an electrically conductive nonmagnetic member (9C, 9D, 9E, 9F) disposed on a back surface side of the holder, wherein the electrically conductive nonmagnetic member (9C, 9D, 9E, 9F) includes a fourth holding portion (14, 34, 44) holding the conductive wire on a back surface side of the electrically conductive nonmagnetic member (9C, 9D, 9E, 9F). a plurality of first holding portions (11, 41) holding the conductive wire in such a way that the conductive wire passes along a plurality of first paths corresponding to the plurality of turns; and at least one second holding portion (12, 22, 32, 42) holding the conductive wire in such a way that the conductive wire passes along a second path extending in a direction intersecting the wound wire direction and connecting the first paths, characterized by the coil device further comprising an electrically conductive nonmagnetic member (9C, 9D, 9E, 9F) disposed on a back surface side of the holder, wherein the electrically conductive nonmagnetic member (9C, 9D, 9E, 9F) includes a fourth holding portion (14, 34, 44) holding the conductive wire on a back surface side of the electrically conductive nonmagnetic member (9C, 9D, 9E, 9F).
A computer graphics system, comprising: a graphics processing unit having a texture unit; wherein the texture unit is configured to receive or generate texture coordinate gradients (gr) for one or more primitives based on a non-orthonormal grid of sample points in a screen space and apply a transformation (trans) configured to generate corresponding ortho-normal corrected texture coordinate gradients (Gr) corrected for the non-orthonormality of the sample points in screen space, wherein the texture unit is configured to apply the transformation to the texture coordinate gradients (gr) to generate the corrected texture coordinate gradients (Gr) and wherein the texture unit is further configured to use the corrected texture coordinate gradients (Gr) to select a level of detail from a plurality of levels of detail for a texture to be applied to one or more primitives. wherein the texture unit is configured to receive or generate texture coordinate gradients (gr) for one or more primitives based on a non-orthonormal grid of sample points in a screen space and apply a transformation (trans) configured to generate corresponding ortho-normal corrected texture coordinate gradients (Gr) corrected for the non-orthonormality of the sample points in screen space, wherein the texture unit is configured to apply the transformation to the texture coordinate gradients (gr) to generate the corrected texture coordinate gradients (Gr) and wherein the texture unit is further configured to use the corrected texture coordinate gradients (Gr) to select a level of detail from a plurality of levels of detail for a texture to be applied to one or more primitives.
A ship propulsion system, having at least one internal combustion engine, wherein the respective internal combustion engine comprises cylinders, in which during the combustion of fuel exhaust gas is created, wherein the respective internal combustion engine interacts with at least one exhaust gas turbocharger, which comprises a turbine and a compressor, in such a manner that the exhaust gas of the cylinders can be expanded in the turbine of the respective exhaust gas turbocharger, and that energy extracted in the turbine of the respective exhaust turbocharger during the expansion of the exhaust gas can be utilised in order to drive the compressor of the respective exhaust turbocharger for compressing charge air to be supplied to the cylinders, having an air lubrication system, wherein the air lubrication system comprises multiple nozzles, via which air bubbles can be expelled under a ship's bottom in order to reduce the ship's resistance, wherein the respective internal combustion engine is coupled to the air lubrication system via a branch line in such a manner that the exhaust gas of the cylinders can be supplied to the air lubrication system and via the nozzles of the same can be expelled as air bubbles, namely exhaust gas bubbles, under the ship's bottom, characterised in that the branch line is operatively connected to a waste gate in such a manner that with closed waste gate the branch line is closed, and that with opened waste gate the branch line is opened in order to supply excess exhaust gas to the air lubrication system. having at least one internal combustion engine, wherein the respective internal combustion engine comprises cylinders, in which during the combustion of fuel exhaust gas is created, wherein the respective internal combustion engine interacts with at least one exhaust gas turbocharger, which comprises a turbine and a compressor, in such a manner that the exhaust gas of the cylinders can be expanded in the turbine of the respective exhaust gas turbocharger, and that energy extracted in the turbine of the respective exhaust turbocharger during the expansion of the exhaust gas can be utilised in order to drive the compressor of the respective exhaust turbocharger for compressing charge air to be supplied to the cylinders, having an air lubrication system, wherein the air lubrication system comprises multiple nozzles, via which air bubbles can be expelled under a ship's bottom in order to reduce the ship's resistance, wherein the respective internal combustion engine is coupled to the air lubrication system via a branch line in such a manner that the exhaust gas of the cylinders can be supplied to the air lubrication system and via the nozzles of the same can be expelled as air bubbles, namely exhaust gas bubbles, under the ship's bottom, characterised in that the branch line is operatively connected to a waste gate in such a manner that with closed waste gate the branch line is closed, and that with opened waste gate the branch line is opened in order to supply excess exhaust gas to the air lubrication system.
A decoding method for a Polar code cascaded with cyclic redundancy check CRC, comprising: performing successive-cancellation-list SC-List decoding on the Polar code according to the number of survival paths L to obtain L survival paths, wherein L is a positive integer; performing cyclic redundancy check on the L survival paths respectively; and increasing the number of survival paths when all the L survival paths fail to pass the cyclic redundancy check and acquiring a decoding result of the Polar code according to the increased number of survival paths; and further comprising: setting an initial value of the number of survival paths according to a demand for decoding complexity. performing successive-cancellation-list SC-List decoding on the Polar code according to the number of survival paths L to obtain L survival paths, wherein L is a positive integer; performing cyclic redundancy check on the L survival paths respectively; and increasing the number of survival paths when all the L survival paths fail to pass the cyclic redundancy check and acquiring a decoding result of the Polar code according to the increased number of survival paths; and further comprising: setting an initial value of the number of survival paths according to a demand for decoding complexity. setting an initial value of the number of survival paths according to a demand for decoding complexity.
Composition containing: 2.5 to 15% of isothiazolinones 2-methyl-2H-isothiazolin-3-one and 1,2-benzisothiazolin-one by weight and/or their sodium and/or potassium salt, 0.5 to 50 ppm by weight of copper ions, in relation to the proportion by weight of the component, 100 to 2,500 ppm by weight, in relation to the total composition, of at least one oxidizing agent selected from the group consisting of sodium iodate, potassium iodate, sodium bromate and potassium bromate or mixtures thereof, and water. 2.5 to 15% of isothiazolinones 2-methyl-2H-isothiazolin-3-one and 1,2-benzisothiazolin-one by weight and/or their sodium and/or potassium salt, 0.5 to 50 ppm by weight of copper ions, in relation to the proportion by weight of the component, 100 to 2,500 ppm by weight, in relation to the total composition, of at least one oxidizing agent selected from the group consisting of sodium iodate, potassium iodate, sodium bromate and potassium bromate or mixtures thereof, and water.
Integrated electronic circuit comprising - a measuring circuit for generating a measurement signal as use signal, - an intermediate store for storage of the use signal, - a control unit for monitoring a current supply and controlling the intermediate store, - an output circuit for output of the value, which is stored in the intermediate store, of the use signal as output signal, wherein the intermediate store makes available the intermediately stored use signal of the output circuit, the use signal in normal operation being continuously stored in the intermediate store when there is no disruption in the current supply, - a current supply for supplying the measuring circuit, the control unit and the output circuit, - an individual current supply for the intermediate store, - wherein the intermediate store in the case of disruption in the current supply stores the value, which was last read in, of the use signal for a predetermined period of time, characterised in that the intermediate store is connected with the current supply by way of a decoupling element and - the intermediate store comprises an integrated storage element for buffering, so that the intermediate store is decoupled from disruptions in the current supply, wherein the control unit is designed for the purpose of detecting a disruption of the current supply and for preventing writing into the intermediate store of new use signals during a disruption of the current supply. - a measuring circuit for generating a measurement signal as use signal, - an intermediate store for storage of the use signal, - a control unit for monitoring a current supply and controlling the intermediate store, - an output circuit for output of the value, which is stored in the intermediate store, of the use signal as output signal, wherein the intermediate store makes available the intermediately stored use signal of the output circuit, the use signal in normal operation being continuously stored in the intermediate store when there is no disruption in the current supply, - a current supply for supplying the measuring circuit, the control unit and the output circuit, - an individual current supply for the intermediate store, - wherein the intermediate store in the case of disruption in the current supply stores the value, which was last read in, of the use signal for a predetermined period of time, - the intermediate store comprises an integrated storage element for buffering, so that the intermediate store is decoupled from disruptions in the current supply,
Actuator having a housing and at least having a connecting element, a shape memory element, the shape of which is changed by heating, wherein the shape memory element is designed to be substantially elongated and is arranged in the housing so that due to a change in its shape, it moves the connecting element, having a heating element which is designed and arranged in the housing so that during its actuation it heats the shape memory element, and having a heat-conducting element which is designed and arranged in the housing so that it at least at times contacts the shape memory element, wherein the heat-conducting element during its contact also has a surface which is free of contact with the shape memory element or with the heating element, wherein the heat-conducting element is designed and arranged in the housing so that it contacts the shape memory element at least at times at its substantially opposite longitudinal sides, wherein the shape memory element at one end is received in a recess of a housing part and at the other end in a recess of a transmission element, characterised in that the shape memory element due to heating changes its length by bending or stretching, and in that moving the transmission element closer to or further away from the housing part caused by bending or stretching the shape memory element moves the connecting element.