mhurhangee/patent-ind-claim-en huggingface dataset:
An ice maker for a home appliance, in particular for a refrigerator or freezer, including: an upper assembly including an upper tray having at least one upper chamber as a portion of an ice chamber ; a lower assembly including a lower support and a lower tray having at least one lower chamber as a remaining portion of the ice chamber , wherein the lower assembly is movable with respect to the upper assembly between an open position and a closed position, wherein in the closed position, the lower chamber and the upper chamber form the ice chamber in which ice is to be formed, and characterized in that the lower tray has a convex portion protruding into the lower chamber and configured to be deformed towards an outside of the lower chamber for compensating the volume increase during ice formation. an upper assembly including an upper tray having at least one upper chamber as a portion of an ice chamber ; a lower assembly including a lower support and a lower tray having at least one lower chamber as a remaining portion of the ice chamber , wherein the lower assembly is movable with respect to the upper assembly between an open position and a closed position, wherein in the closed position, the lower chamber and the upper chamber form the ice chamber in which ice is to be formed, and characterized in that the lower tray has a convex portion protruding into the lower chamber and configured to be deformed towards an outside of the lower chamber for compensating the volume increase during ice formation.
A display panel comprising: a plurality of light emitting diodes, LEDs ; a thin film transistor, TFT, substrate comprising a first connection pad , wherein the plurality of LEDs are disposed in a first region of an upper surface of the TFT substrate , the first connection pad is disposed in a second region of the upper surface of the TFT substrate , the first region is different from the second region, and the first connection pad is electrically connected to each of the plurality of LEDs ; a transparent plate disposed on the TFT substrate , wherein the transparent plate comprises a second connection pad , the second connection pad is disposed on a lower surface of the transparent plate and is electrically connected to the first connection pad , and the lower surface of the transparent plate faces the upper surface of the TFT substrate ; and characterised in that the display panel further comprises: a driver electrically connected to the second connection pad and disposed in an outer edge region of the transparent plate . a plurality of light emitting diodes, LEDs ; a thin film transistor, TFT, substrate comprising a first connection pad , wherein the plurality of LEDs are disposed in a first region of an upper surface of the TFT substrate , the first connection pad is disposed in a second region of the upper surface of the TFT substrate , the first region is different from the second region, and the first connection pad is electrically connected to each of the plurality of LEDs ; a transparent plate disposed on the TFT substrate , wherein the transparent plate comprises a second connection pad , the second connection pad is disposed on a lower surface of the transparent plate and is electrically connected to the first connection pad , and the lower surface of the transparent plate faces the upper surface of the TFT substrate ; and characterised in that the display panel further comprises: a driver electrically connected to the second connection pad and disposed in an outer edge region of the transparent plate .
A polymeric article comprising successive polymer layers comprising: (a) a first polymer layer comprising an oriented polymeric material; (b) a second polymer layer comprising a polymeric material; and (c) a third polymer layer comprising an oriented polymeric material, wherein the second polymer layer has a lower melting temperature than those of the first and third polymer layers; wherein the layers all comprise the same chemical composition and grade polymer selected from the group consisting of polyethylene, polypropylene, polyoxymethylene, and mixtures thereof. (a) a first polymer layer comprising an oriented polymeric material; (b) a second polymer layer comprising a polymeric material; and (c) a third polymer layer comprising an oriented polymeric material,
A system for identifying a remote controllable device using a camera and for remotely controlling said identified remote controllable device, said system comprising: at least one input interface ; at least one output interface ; and at least one processor configured to: - obtain an image via said at least one input interface, said image captured with a camera , said image capturing at least a surrounding of said remote controllable device and said remote controllable device , - analyze said image to recognize one or more objects and/or features in said surrounding of said remote controllable device , characterized in that the system is further configured to: - identify said remote controllable device by selecting an identifier associated with at least one of said one or more recognized objects and/or features from a plurality of identifiers stored in a memory , said memory comprising associations between said plurality of identifiers and remote controllable devices, and said selected identifier being associated with said remote controllable device , - determine a control mechanism for controlling said identified remote controllable device , and - use said at least one output interface to control said identified remote controllable device using said determined control mechanism. at least one input interface ; at least one output interface ; and at least one processor configured to: - obtain an image via said at least one input interface, said image captured with a camera , said image capturing at least a surrounding of said remote controllable device and said remote controllable device , - analyze said image to recognize one or more objects and/or features in said surrounding of said remote controllable device , - obtain an image via said at least one input interface, said image captured with a camera , said image capturing at least a surrounding of said remote controllable device and said remote controllable device , - analyze said image to recognize one or more objects and/or features in said surrounding of said remote controllable device , - identify said remote controllable device by selecting an identifier associated with at least one of said one or more recognized objects and/or features from a plurality of identifiers stored in a memory , said memory comprising associations between said plurality of identifiers and remote controllable devices, and said selected identifier being associated with said remote controllable device , - determine a control mechanism for controlling said identified remote controllable device , and - use said at least one output interface to control said identified remote controllable device using said determined control mechanism.
A mono or multi-layer biaxially oriented polypropylene film having a density of ≤ 0.72 g/cm 3 , wherein at least one layer of the film comprises at least one polypropylene in an amount ranging from 79.0 to 95.0 wt.-% and at least one natural calcium carbonate in an amount ranging from 5.0 to 21.0 wt.-%, based on the total weight of the layer, wherein the at least one natural calcium carbonate has a weight median particle size d 50 from 3.2 μm to 8.0 μm.
A polymerization and artificial post-aging apparatus for artificial aging, in particular for artificial post-aging of dental restoration parts made of polymerizable plastics, especially dental restoration parts produced by stereolithography, the apparatus comprising at least one light source which emits in the visible and/or ultraviolet wavelength ranges, and a light chamber which has at least one light source, and a door to the light chamber, wherein at least one wall, in particular the door , includes a window with a window pane which consists of at least two layers, the layer of which facing the light chamber reflects at least 90%, especially about 95%, characterized in that layer thereof facing away from the light chamber filters out UV light and/or blue light.
A panel fastener for insulated panels comprising: a pair of sidewalls each having a boss therethrough; a cam rotatably positioned within said boss of each said sidewall, said cam having a spring mounting notch ; a spring mounted within said spring mounting notch of said cam, and a hook extending from said pair of sidewalls and having a generally round cam engagement hole therethrough and a catch extending past said pair of sidewalls, said cam being positioned within said generally round cam engagement hole with said spring extending outwardly to frictionally engage said generally round cam engagement hole, whereby contact between the spring and said generally round cam engagement hole causes frictional contact sufficient to rotate the hook through rotation of said cam. a pair of sidewalls each having a boss therethrough; a cam rotatably positioned within said boss of each said sidewall, said cam having a spring mounting notch ; a spring mounted within said spring mounting notch of said cam, and a hook extending from said pair of sidewalls and having a generally round cam engagement hole therethrough and a catch extending past said pair of sidewalls, said cam being positioned within said generally round cam engagement hole with said spring extending outwardly to frictionally engage said generally round cam engagement hole, whereby contact between the spring and said generally round cam engagement hole causes frictional contact sufficient to rotate the hook through rotation of said cam.
A production method for on-line improving precipitation strengthening effect of Ti microalloyed hot-rolled high-strength steel, comprising: casting a molten steel with microalloying element Ti added to obtain an ingot; heating the ingot at a temperature of ≥1200°C and a soaking time of ≥60 minutes; after heating the ingot, subjecting it to rough rolling, finish rolling, laminar cooling and coiling to obtain a hot-rolled coil, wherein the rough rolling is performed at a temperature of 1000-1200 ° C, wherein 3-8 passes of reciprocating rolling are performed, and a cumulative deformation is ≥50%, and wherein the finish rolling is performed with 6-7 passes of continuous rolling, wherein a cumulative deformation is ≥80%, and a final rolling temperature is 800-900 °C; after unloading the coil, covering the coil on-line with an insulating enclosure and moving it into a steel coil warehouse along with a transport chain; after a specified period of on-line insulating time, removing the coil from the insulating enclosure, and cooling it to room temperature in air, wherein the microalloying element Ti has a content of 0.03-0.1 0wt-%; the coiling is performed at a temperature of 500 - 700 °C; said covering on-line with an insulating enclosure means each hot-rolled coil is individually covered with an independent, closed insulating enclosure unit within 60 minutes after unloading; the on-line insulating time is ≥60 minutes; and wherein the steel coil is cooled at a cooling rate of ≤15 °C/hour in the insulating enclosure. casting a molten steel with microalloying element Ti added to obtain an ingot; heating the ingot at a temperature of ≥1200°C and a soaking time of ≥60 minutes; after heating the ingot, subjecting it to rough rolling, finish rolling, laminar cooling and coiling to obtain a hot-rolled coil, wherein the rough rolling is performed at a temperature of 1000-1200 ° C, wherein 3-8 passes of reciprocating rolling are performed, and a cumulative deformation is ≥50%, and wherein the finish rolling is performed with 6-7 passes of continuous rolling, wherein a cumulative deformation is ≥80%, and a final rolling temperature is 800-900 °C; after unloading the coil, covering the coil on-line with an insulating enclosure and moving it into a steel coil warehouse along with a transport chain; after a specified period of on-line insulating time, removing the coil from the insulating enclosure, and cooling it to room temperature in air, wherein the microalloying element Ti has a content of 0.03-0.1 0wt-%; the coiling is performed at a temperature of 500 - 700 °C; said covering on-line with an insulating enclosure means each hot-rolled coil is individually covered with an independent, closed insulating enclosure unit within 60 minutes after unloading; the on-line insulating time is ≥60 minutes; and wherein the steel coil is cooled at a cooling rate of ≤15 °C/hour in the insulating enclosure.
An integrated device configured to monitor electrical overstress, EOS, events, wherein the integrated device comprises: a substrate ; and a spark gap structure integrated with the substrate , the spark gap structure comprising a pair of spaced protrusions separated by a gap therebetween, the pair of spaced protrusions configured to electrically arc in response to an EOS event, wherein the pair of spaced protrusions is formed of a material selected to locally melt in response to arcing, such that arcing causes an increase in the gap; wherein the integrated device is characterized by further comprising: a first monitor probe integrated with the substrate , the first monitor probe arranged to contact a first spaced protrusion of the pair of spaced protrusions prior to arcing and disconnect from the first spaced protrusion as a result of the first spaced protrusion locally melting in response to arcing. a substrate ; and a spark gap structure integrated with the substrate , the spark gap structure comprising a pair of spaced protrusions separated by a gap therebetween, the pair of spaced protrusions configured to electrically arc in response to an EOS event, wherein the pair of spaced protrusions is formed of a material selected to locally melt in response to arcing, such that arcing causes an increase in the gap; wherein the integrated device is characterized by further comprising: a first monitor probe integrated with the substrate , the first monitor probe arranged to contact a first spaced protrusion of the pair of spaced protrusions prior to arcing and disconnect from the first spaced protrusion as a result of the first spaced protrusion locally melting in response to arcing.
A mascara composition comprising: an oil phase; a water phase; sucrose stearate emulsifier in an amount sufficient to form a lamellar phase wherein this amount is between 0.1% and 6% by weight; a high HLB emulsifier having an HLB value between 15 and 20 in an amount between 0.1% and 25% by weight; and wax in an amount between 23% and 35% by weight; wherein said mascara composition is in the form of an oil-in-water emulsion comprising a lamellar and/or micellar phase. an oil phase; a water phase; sucrose stearate emulsifier in an amount sufficient to form a lamellar phase wherein this amount is between 0.1% and 6% by weight; a high HLB emulsifier having an HLB value between 15 and 20 in an amount between 0.1% and 25% by weight; and wax in an amount between 23% and 35% by weight;
Compressor having a housing which has an upper end and a lower end and a cylindrical intermediate region having a cylinder axis , for a setup with perpendicular cylinder axis , characterised in that a holder is present which is connected to the housing in the middle of the cylindrical intermediate region , in which, during a main vibration of the housing , are the smallest vibration amplitudes, which extends from there until below the lower end and culminates in three, four or more feet or a bearing region having three, four or more bearing surfaces.
A method of wireless communication at a user equipment, UE, served by a serving cell of a base station, comprising: receiving , from the serving cell, a configuration to perform layer 1, L1, measurements based on one or more reference signals from a non-serving cell; receiving the one or more reference signals from the non-serving cell; and performing the L1 measurements on the one or more reference signals received from the non-serving cell based on the configuration received from the base station, wherein the UE determines to measure a serving cell synchronization signal block, SSB, without measuring a non-serving cell SSB when the UE receives a channel state information, CSI, resource configuration without an associated cell identifier. receiving , from the serving cell, a configuration to perform layer 1, L1, measurements based on one or more reference signals from a non-serving cell; receiving the one or more reference signals from the non-serving cell; and performing the L1 measurements on the one or more reference signals received from the non-serving cell based on the configuration received from the base station,
A wiring harness assembly , comprising: a first flexible planar wire cable having a first plurality of separated conductors formed in a first insulating layer comprising a first substantially flat exterior surface ; a first electromagnetic shield enclosing the first plurality of separated conductors ; a first adhesive layer between the first electromagnetic shield and the first insulating layer; a second flexible planar wire cable having a second plurality of separated conductors formed in a second insulating layer comprising a second substantially flat exterior surface ; a second electromagnetic shield enclosing the second plurality of separated conductors , and a second adhesive layer between the second electromagnetic shield and the second insulating layer; wherein a first and a second plurality of apertures on the first substantially flat exterior surface and the second substantially flat exterior surface are sized, shaped, and arranged such that an electrical connection between the first plurality of separated conductors of the first flexible planar wire cable and the second plurality of separated conductors of the second flexible planar wire cable is formed and characterized in that the first electromagnetic shield is electrically connected to the second electromagnetic shield . a first flexible planar wire cable having a first plurality of separated conductors formed in a first insulating layer comprising a first substantially flat exterior surface ; a first electromagnetic shield enclosing the first plurality of separated conductors ; a first adhesive layer between the first electromagnetic shield and the first insulating layer; a second flexible planar wire cable having a second plurality of separated conductors formed in a second insulating layer comprising a second substantially flat exterior surface ; a second electromagnetic shield enclosing the second plurality of separated conductors , and a second adhesive layer between the second electromagnetic shield and the second insulating layer; wherein a first and a second plurality of apertures on the first substantially flat exterior surface and the second substantially flat exterior surface are sized, shaped, and arranged such that an electrical connection between the first plurality of separated conductors of the first flexible planar wire cable and the second plurality of separated conductors of the second flexible planar wire cable is formed and characterized in that the first electromagnetic shield is electrically connected to the second electromagnetic shield .
Device for producing a nonwoven fabric comprising at least one nonwoven web , wherein at least one spinning device or at least one spinning beam is provided for spinning fibres, wherein a deposit conveyor - in particular a depositing foraminous belt - is provided on which the fibres can be deposited to form the nonwoven web , wherein at least one hot-air pre-consolidating device is provided for hot-air pre-consolidation of the nonwoven web on the deposit conveyor or on the depositing foraminous belt , wherein in the conveying direction of the nonwoven web downstream of the deposit conveyor a further conveyor - in particular in the form of a conveyor belt - is provided for receiving the pre-consolidated nonwoven web from the deposit conveyor, wherein at least one final consolidating device - in particular at least one hot-air final consolidating device - is provided for final consolidation or for hot-air final consolidation of the nonwoven web on the further conveyor or on the conveyor belt , wherein the hot-air pre-consolidation of the nonwoven web can be carried out on the deposit conveyor or on the depositing foraminous belt provided that before transfer to the further conveyor or to the conveyor belt the nonwoven web has a strength in the machine direction (MD) of 0.5 to 5 N/5 cm, in particular 0.7 to 3.5 N/5 cm and preferably of 0.8 to 3.5 N/5 cm and wherein the temperature of the surface of the further conveyor - in particular the conveyor belt - in the conveying direction upstream of the hot-air final consolidating device is higher than the temperature of the surface of the deposit conveyor or the depositing foraminous belt in the transfer region of the nonwoven web or the laminate to the further conveyor. wherein at least one hot-air pre-consolidating device is provided for hot-air pre-consolidation of the nonwoven web on the deposit conveyor or on the depositing foraminous belt , wherein in the conveying direction of the nonwoven web downstream of the deposit conveyor a further conveyor - in particular in the form of a conveyor belt - is provided for receiving the pre-consolidated nonwoven web from the deposit conveyor, wherein at least one final consolidating device - in particular at least one hot-air final consolidating device - is provided for final consolidation or for hot-air final consolidation of the nonwoven web on the further conveyor or on the conveyor belt , wherein the hot-air pre-consolidation of the nonwoven web can be carried out on the deposit conveyor or on the depositing foraminous belt provided that before transfer to the further conveyor or to the conveyor belt the nonwoven web has a strength in the machine direction (MD) of 0.5 to 5 N/5 cm, in particular 0.7 to 3.5 N/5 cm and preferably of 0.8 to 3.5 N/5 cm and wherein the temperature of the surface of the further conveyor - in particular the conveyor belt - in the conveying direction upstream of the hot-air final consolidating device is higher than the temperature of the surface of the deposit conveyor or the depositing foraminous belt in the transfer region of the nonwoven web or the laminate to the further conveyor.
A polynucleotide comprising a transposon comprising inverted terminal repeats of a piggyBac-like transposon flanking a heterologous polynucleotide not naturally flanked by the inverted terminal repeats, the inverted repeats being flanked on their outer sides by copies of a target sequence, wherein the transposon is capable of transposition by a transposase identical to SEQ ID NO: 45 fused to a heterologous nuclear localization signal (NLS) wherein SEQ ID NO:124 provides the sequence of each inverted terminal repeat, the sequence being in inverted orientations in the two transposon ends.