mhurhangee/ep-ind-claims huggingface dataset:
A polyolefin blend characterized according to Structure Test Method by a co-continuous pathways, microphase-separated network structure, which consists of a first phase of a poly(alpha-olefin) (homo or co)polymer and a second phase of a molecular catalyst-derived poly(ethylene-co-(alpha-olefin)) copolymer; wherein the molecular catalyst-derived ethylene/alpha-olefin copolymer is a molecular catalyst-derived ethylene/propylene copolymer.
Sole support plate for the sole of a ski boot inserted in a safety ski binding, in particular for the section of the boot sole associated with a toe piece, which sole support plate comprises a base plate and a support plate with a small slide plate coming into contact with the boot sole, which is mounted to allow it to deflect laterally on the support plate and to return to its initial position under spring action, characterised in that the support plate is elastically sprung to move in a vertical direction in relation to the base plate, wherein the support plate and the base plate are supported on each other vertically by means of at least one spring member, which is located underneath the support plate.
Carrier element for a toothbrush with a handle and a head part, comprising a soft-elastic structure (6, 6', 22) arranged on a plate-shaped carrier element, wherein the plate-shaped carrier element has a front side and a rear side and is made of a hard material that is harder than that of the soft-elastic structure (6, 6', 22), wherein the plate-shaped carrier element and/or the soft-elastic structure has cutouts through which conventional bristle filaments are guided and are melted for fastening them to the plate-shaped carrier element via their rear ends directed towards the head part in the application case, wherein the soft-elastic structure comprises at least one soft-elastic cleaning element, wherein the carrier element has a welding edge, and wherein the welding surface, defined by the welding edge, between the carrier element and the head part is held free from the soft-elastic structure, and wherein the soft-elastic structure and the carrier element are produced by a two-component injection moulding method.
A material comprising a glass substrate coated on one face with a stack of thin layers with properties of reflection in the infrared and/or in solar radiation comprising at least one metallic functional layer, in particular based on silver or metal alloy containing silver and at least two anti reflective coatings (120, 160), said anti reflective coatings each comprising at least one dielectric layer (127, 165), said functional layer being arranged between the two antireflective coatings (120, 160), characterized in that said anti reflective coating located beneath said functional layer in the direction of said substrate comprises: - a sublayer of zinc-based oxide, ZnO that is located beneath and in contact with said functional layer, with a physical thickness of said sublayer based on zinc oxide ZnO that is between 0.3 and 5.0 nm, or between 0.3 and 4.4 nm, or between 0.3 and 2.9 nm, or between 0.5 and 2.4 nm; and - a dielectric sublayer of silicon-based nitride, Si 3 N 4 that is located beneath and in contact with said sublayer of zinc-based oxide, ZnO, with a physical thickness of said dielectric sublayer of silicon-based nitride Si 3 N 4 that is between 10.0 and 50.0 nm, or between 22.0 and 45.0 nm, or between 35.0 and 45.0 nm; and in that said antireflective coating located above said functional layer opposite said substrate comprises: - an overlay of zinc-based oxide, ZnO that is located on top of and in contact with said functional layer, with a physical thickness of said overlay of zinc-based oxide, ZnO that is between 2.0 and 10.0 nm, or between 2.0 and 8.0 nm, or between 2.5 and 5.4 nm; and - a dielectric overlay that is located on said overlay of zinc-based oxide, ZnO and, preferably a dielectric overlay of silicon-based nitride, Si 3 N 4. - a sublayer of zinc-based oxide, ZnO that is located beneath and in contact with said functional layer, with a physical thickness of said sublayer based on zinc oxide ZnO that is between 0.3 and 5.0 nm, or between 0.3 and 4.4 nm, or between 0.3 and 2.9 nm, or between 0.5 and 2.4 nm; and - a dielectric sublayer of silicon-based nitride, Si 3 N 4 that is located beneath and in contact with said sublayer of zinc-based oxide, ZnO, with a physical thickness of said dielectric sublayer of silicon-based nitride Si 3 N 4 that is between 10.0 and 50.0 nm, or between 22.0 and 45.0 nm, or between 35.0 and 45.0 nm; - an overlay of zinc-based oxide, ZnO that is located on top of and in contact with said functional layer, with a physical thickness of said overlay of zinc-based oxide, ZnO that is between 2.0 and 10.0 nm, or between 2.0 and 8.0 nm, or between 2.5 and 5.4 nm; and - a dielectric overlay that is located on said overlay of zinc-based oxide, ZnO and, preferably a dielectric overlay of silicon-based nitride, Si 3 N 4.
A system comprising a writing-block and a memory buffer, the writing-block configured to write data to the memory-buffer (306, 406), wherein the memory-buffer comprises an ordered sequence of memory elements (306-1, 306_n) and the writing-block is configured to: receive an input-data-stream; and write the input-data-stream to the memory-buffer in a successive manner from a first-element (306-1, 406-1) of the ordered sequence to a predetermined-element (306-p, 406-p) of the ordered sequence, wherein following writing to the predetermined-element the writing-block is configured to continue to write the input-data-stream to the memory-buffer in a successive manner restarting at the first-element (306-1, 406-1); wherein in response to writing to the predetermined-element, the writing-block is configured to also continue to write the input-data-stream to the memory-buffer in a successive manner from an element immediately following the predetermined element (306-p) until a second predetermined-element (306-n) of the memory-buffer; wherein following writing to the predetermined-element, the writing-block is further configured to write the input-data-stream to both the first-element and the element immediately following the predetermined element (306-p) in a duplicated-writing-process until the second-predetermined-element of the memory-buffer is written. receive an input-data-stream; and write the input-data-stream to the memory-buffer in a successive manner from a first-element (306-1, 406-1) of the ordered sequence to a predetermined-element (306-p, 406-p) of the ordered sequence, wherein following writing to the predetermined-element the writing-block is configured to continue to write the input-data-stream to the memory-buffer in a successive manner restarting at the first-element (306-1, 406-1); wherein in response to writing to the predetermined-element, the writing-block is configured to also continue to write the input-data-stream to the memory-buffer in a successive manner from an element immediately following the predetermined element (306-p) until a second predetermined-element (306-n) of the memory-buffer; wherein following writing to the predetermined-element, the writing-block is further configured to write the input-data-stream to both the first-element and the element immediately following the predetermined element (306-p) in a duplicated-writing-process until the second-predetermined-element of the memory-buffer is written.
A build material recycling system of a three-dimensional printer, comprising: a pneumatic build material transport system of the 3D printer connected to a build area of the 3D printer; a build material recycling device of the 3D printer that includes a fluidizing membrane and is connected to the pneumatic build material transport system; and a recycled build material hopper of the 3D printer connected, via the pneumatic build material transport system, to the build material recycling device and to the build area. a pneumatic build material transport system of the 3D printer connected to a build area of the 3D printer; a build material recycling device of the 3D printer that includes a fluidizing membrane and is connected to the pneumatic build material transport system; and a recycled build material hopper of the 3D printer connected, via the pneumatic build material transport system, to the build material recycling device and to the build area.
An arrangement comprising a collar device, a female end of a first tubular section and a male end of a second tubular section suitable to be fit into the female end of the first section, for conveying aeriforms, the collar device being provided for clamping between the tubular sections to prevent them from slipping apart, wherein each tubular section comprises a male end and a female end axially opposed, fluid-tight sealing means being interposed between the male and female ends (2a, 2b) for leaktight coupling between them, said collar device comprising: - a first collar portion and a second collar portion which can be coupled with one another in order to fit the collar onto the tubular sections in the region of the coupling between the corresponding male and female ends (2a, 2b) of respective contiguous sections, - tightening means (8, 9, 10) between the portions (1a, 1b) for tightening the collar onto the sections, and and in that said collar device further comprises - means (12a, 12b) for limiting the axial movement of the female end, the limiting means (12a, 12b) being provided on the collar portions (1a, 1b) and being suitable for cooperating with the female end to limit relative axial sliding between the mutually coupled male and female ends (2a, 2b), preventing adjacent tubular sections from slipping apart, characterized in that said tightening means (8, 9, 10) are provided for fixing the collar firmly to the corresponding male end with the provision of radial clearance in the coupling with the female end so as to allow the female end freedom to slide axially relative to the collar, - a first collar portion and a second collar portion which can be coupled with one another in order to fit the collar onto the tubular sections in the region of the coupling between the corresponding male and female ends (2a, 2b) of respective contiguous sections, - tightening means (8, 9, 10) between the portions (1a, 1b) for tightening the collar onto the sections, and and in that said collar device further comprises - means (12a, 12b) for limiting the axial movement of the female end, the limiting means (12a, 12b) being provided on the collar portions (1a, 1b) and being suitable for cooperating with the female end to limit relative axial sliding between the mutually coupled male and female ends (2a, 2b), preventing adjacent tubular sections from slipping apart, characterized in that said tightening means (8, 9, 10) are provided for fixing the collar firmly to the corresponding male end with the provision of radial clearance in the coupling with the female end so as to allow the female end freedom to slide axially relative to the collar,
A cooler, comprising: a cooling plate having a flat shape and including a plurality of refrigerant passages partitioned by a plurality of partition walls parallel to each other along a longitudinal direction; a first cutout portion, which is formed at one end of the cooling plate in the longitudinal direction, and is opened on an upper side and at an end portion in the longitudinal direction while leaving both side walls in a width direction and one of the plurality of partition walls; a second cutout portion, which is formed at another end of the cooling plate in the longitudinal direction, and is opened on the upper side and at an end portion in the longitudinal direction while leaving both the side walls in the width direction; characterized in that a first upper lid member is joined to the first cutout portion, and has a refrigerant inlet port and a refrigerant outlet port respectively communicating to a refrigerant inlet side and a refrigerant outlet side partitioned by the one of the plurality of partition walls and a second upper lid member is joined to the second cutout portion, and forms, between the second upper lid member and the second cutout portion, a flow passage space causing the refrigerant inlet side and the refrigerant outlet side to communicate to each other. a cooling plate having a flat shape and including a plurality of refrigerant passages partitioned by a plurality of partition walls parallel to each other along a longitudinal direction; a first cutout portion, which is formed at one end of the cooling plate in the longitudinal direction, and is opened on an upper side and at an end portion in the longitudinal direction while leaving both side walls in a width direction and one of the plurality of partition walls; a second cutout portion, which is formed at another end of the cooling plate in the longitudinal direction, and is opened on the upper side and at an end portion in the longitudinal direction while leaving both the side walls in the width direction; characterized in that a first upper lid member is joined to the first cutout portion, and has a refrigerant inlet port and a refrigerant outlet port respectively communicating to a refrigerant inlet side and a refrigerant outlet side partitioned by the one of the plurality of partition walls and a second upper lid member is joined to the second cutout portion, and forms, between the second upper lid member and the second cutout portion, a flow passage space causing the refrigerant inlet side and the refrigerant outlet side to communicate to each other.
A transaction card comprising: a metal, ceramic, or ceramic-coated body (100, 1102) having a thickness, a front face, a back face, and a visual appearance; a pocket in the body (100, 1102) having a periphery and extending from the back face to a location adjacent the front face; a plurality of openings (1110a, 1110b, 1110c) extending from the front face into the pocket, the plurality of openings (1110a, 1110b, 1110c) forming a pattern; an insert disposed in the pocket, the insert having a visual appearance different than the visual appearance of the body (100, 1102) and visible through the plurality of openings (1110a, 1110b, 1110c); a non-metal backing layer laminated to the back face of the body (100, 1102) and a back face of the insert; and wherein the insert comprises a light guide configured to transmit light from an input surface of the light guide located inside the body (100, 1102) to an output surface, the card further comprising at least one light source configured to emit light into the input surface of the light guide. a metal, ceramic, or ceramic-coated body (100, 1102) having a thickness, a front face, a back face, and a visual appearance; a pocket in the body (100, 1102) having a periphery and extending from the back face to a location adjacent the front face; a plurality of openings (1110a, 1110b, 1110c) extending from the front face into the pocket, the plurality of openings (1110a, 1110b, 1110c) forming a pattern; an insert disposed in the pocket, the insert having a visual appearance different than the visual appearance of the body (100, 1102) and visible through the plurality of openings (1110a, 1110b, 1110c); a non-metal backing layer laminated to the back face of the body (100, 1102) and a back face of the insert; and wherein the insert comprises a light guide configured to transmit light from an input surface of the light guide located inside the body (100, 1102) to an output surface, the card further comprising at least one light source configured to emit light into the input surface of the light guide.
A method for spatial multiplexing transmission using multiple antennas, the method comprising the steps of: assigning different transmission power weights to sequentially transmitted signals; precoding the sequentially transmitted signals assigned with the transmission power weights; converting the precoded sequentially transmitted signals into parallel transmitted signals; inputting (S550, S560) the parallel transmitted signals into a first amplifier connected to a first antenna constituting the multiple antennas and a second amplifier connected to a second antenna constituting the multiple antennas in a cross-coupled fashion so that the average value of transmission power of the signal transmitted from the first antenna is equal to the average value of transmission power of the signal transmitted from the second antenna. assigning different transmission power weights to sequentially transmitted signals; precoding the sequentially transmitted signals assigned with the transmission power weights; converting the precoded sequentially transmitted signals into parallel transmitted signals; inputting (S550, S560) the parallel transmitted signals into a first amplifier connected to a first antenna constituting the multiple antennas and a second amplifier connected to a second antenna constituting the multiple antennas in a cross-coupled fashion so that the average value of transmission power of the signal transmitted from the first antenna is equal to the average value of transmission power of the signal transmitted from the second antenna.
A method for manufacturing a reinforced bi-metallic casting composite, wherein at least one metallic insert is provided in a thermally regulated die and a metal over-casting step is performed, wherein, by means of said metal over-casting step, an over-cast metal is cast at least partly over said at least one metallic insert, characterised in that the method comprises the following steps: a) providing said at least one metallic insert having a preformed shape; b) introducing said at least one metallic insert having its preformed shape into said thermally regulated die; c) holding said at least one metallic insert in its preformed shape in a predetermined position inside a moulding cavity of said thermally regulated die by at least one actuator (11,5); d) performing a closing operation of said thermally regulated die by means of a closing element; e) performing a deformation operation, wherein, by means of said deformation operation, said at least one metallic insert having its preformed shape is deformed from its preformed shape into a casting shape; f) performing said metal over-casting step, wherein said over-cast metal is cast into the moulding cavity and at least partly over said at least one metallic insert having its casting shape; g) solidification of said over-cast metal; and h) extracting said at least one metallic insert together with said over-cast metal from said thermally regulated die, wherein the thermally regulated die is configured to control a die temperature, in particular different die temperatures in different areas of the thermally regulated die, in a range from 80°C to 500°C, preferably from 200°C to 400°C, in particular by means of at least one temperature sensor and by means of at least one temperature controller. a) providing said at least one metallic insert having a preformed shape; b) introducing said at least one metallic insert having its preformed shape into said thermally regulated die; c) holding said at least one metallic insert in its preformed shape in a predetermined position inside a moulding cavity of said thermally regulated die by at least one actuator (11,5); d) performing a closing operation of said thermally regulated die by means of a closing element; e) performing a deformation operation, wherein, by means of said deformation operation, said at least one metallic insert having its preformed shape is deformed from its preformed shape into a casting shape; f) performing said metal over-casting step, wherein said over-cast metal is cast into the moulding cavity and at least partly over said at least one metallic insert having its casting shape; g) solidification of said over-cast metal; and h) extracting said at least one metallic insert together with said over-cast metal from said thermally regulated die,
Tachograph system for a motor vehicle, having a pulse generator, characterized in that - the pulse generator of the tachograph system has a sensor device having a storage unit in which a secret that is specific to the sensor device is stored in an unchangeable manner, - the tachograph system has a control device which is configured to read the secret from the storage unit and to store it as a reference secret in a storage device of the tachograph system, and the control device is configured to carry out a predetermined authentication method, wherein the secret stored in the storage unit of the sensor device is read by the control device and is checked for correspondence with the reference secret stored in the storage device of the tachograph system. - the pulse generator of the tachograph system has a sensor device having a storage unit in which a secret that is specific to the sensor device is stored in an unchangeable manner, - the tachograph system has a control device which is configured to read the secret from the storage unit and to store it as a reference secret in a storage device of the tachograph system, and the control device is configured to carry out a predetermined authentication method, wherein the secret stored in the storage unit of the sensor device is read by the control device and is checked for correspondence with the reference secret stored in the storage device of the tachograph system.
A disc filter with rotatable mounted central tube, the central tube having at least one row of radially along the circumference of the tube arranged filtration elements constituting a filtration disc, while the central tube is at both ends hung on an endless drive belt and each of the drive belts is girded around pulleys above the level of the maximum height of the fluid being filtered, the pulleys being rotatably mounted in the structure of the filter, characterized by that each of the endless drive belts is girded around two pulleys and only one of these four pulleys is coupled with a drive.
A propeller blade comprising: a carbon foam core; and a structural layer that surrounds at least a portion of the carbon foam core; characterized in that: the carbon foam core is a carbon foam core stub, the structural layer surrounding the carbon foam core stub; and further comprising conventional or non-carbon foam surrounding the carbon foam core stub and within the structural layer. a carbon foam core; and a structural layer that surrounds at least a portion of the carbon foam core; the carbon foam core is a carbon foam core stub, the structural layer surrounding the carbon foam core stub; and further comprising conventional or non-carbon foam surrounding the carbon foam core stub and within the structural layer.
A fuel cell membrane electrode assembly comprising: a) a polymer electrode membrane having a cathode side and an anode side; b) a dispersed catalyst sublayer comprising carbon-supported catalyst particles comprising a first catalyst material adjoining at least one side of the polymer electrolyte membrane; and c) a nanostructured thin film catalyst layer adjoining the sublayer comprising nanostructured elements comprising microstructured support whiskers bearing discrete or fused nanoscopic catalyst particles of second catalyst material, wherein the microstructure material excludes electrically conductive carbon. a) a polymer electrode membrane having a cathode side and an anode side; b) a dispersed catalyst sublayer comprising carbon-supported catalyst particles comprising a first catalyst material adjoining at least one side of the polymer electrolyte membrane; and c) a nanostructured thin film catalyst layer adjoining the sublayer comprising nanostructured elements comprising microstructured support whiskers bearing discrete or fused nanoscopic catalyst particles of second catalyst material, wherein the microstructure material excludes electrically conductive carbon.
A polymeric dispersant obtained or obtainable by copolymerising a monomer composition comprising at least the components: i) benzyl (meth)acrylate; ii) propylene glycol (meth)acrylate; wherein the weight ratio of component i) to component ii) is greater than 10:1. i) benzyl (meth)acrylate; ii) propylene glycol (meth)acrylate;