mhurhangee/patent-ind-claim-en huggingface dataset:
Seal arrangement for a fluid valve, said seal arrangement having: a first, separate sealing element for bearing in a sealing manner against a valve housing of the fluid valve, a second, separate sealing element for bearing in a sealing manner against an adjustable, in particular rotatable, valve body of the fluid valve, and a separate, elastically deformable intermediate piece which is arranged in an axial direction between a first wall , facing the second sealing element , of the first sealing element and a second wall , facing the first sealing element , of the second sealing element in order to elastically space apart the two sealing elements , wherein, in at least one axial portion of the intermediate piece , said axial portion extending along at least 75% of an axial length of the intermediate piece, an axial cross section of the intermediate piece has a first radial lateral surface and an opposite second radial lateral surface , wherein this first radial lateral surface is convex and this second radial lateral surface is concave, planar or less convex than the first radial lateral surface, characterized in that the intermediate piece is crescent-shaped in cross section. a first, separate sealing element for bearing in a sealing manner against a valve housing of the fluid valve, a second, separate sealing element for bearing in a sealing manner against an adjustable, in particular rotatable, valve body of the fluid valve, and a separate, elastically deformable intermediate piece which is arranged in an axial direction between a first wall , facing the second sealing element , of the first sealing element and a second wall , facing the first sealing element , of the second sealing element in order to elastically space apart the two sealing elements , wherein, in at least one axial portion of the intermediate piece , said axial portion extending along at least 75% of an axial length of the intermediate piece, an axial cross section of the intermediate piece has a first radial lateral surface and an opposite second radial lateral surface , wherein this first radial lateral surface is convex and this second radial lateral surface is concave, planar or less convex than the first radial lateral surface, characterized in that the intermediate piece is crescent-shaped in cross section.
A wireless mesh network for connecting a plurality of network nodes comprising: a plurality of nodes , one of which is a leader node, wherein the plurality of nodes are adapted to communicate with one another to determine the leader node of the plurality of nodes within communication range and a plurality of follower nodes, wherein the leader node transmits a sync message to the plurality of follower nodes at a beginning of a network interval, wherein the leader node and the plurality of follower nodes transmit information during a transmission period and do not transmit information during a sleep period of the network interval, wherein the leader node and plurality of follower nodes use less power in the sleep period than the transmission period, wherein the plurality of follower nodes each comprise a timer adapted to time the transmission period and the sleep period of a plurality of future network intervals in an absence of continued receipt of the sync message from the leader node during the plurality of future network intervals, and wherein during a predetermined time of the transmission period of the network interval each of the plurality of follower nodes that received the sync message transmit a message advertising one or more properties of the leader node, wherein the one or more properties of the leader node includes at least one of a channel hopping sequence and a total number of the plurality of network nodes on the wireless mesh network , and wherein when any of the plurality of follower nodes fails to receive the sync message from the leader node, the follower node refrains from transmitting the message advertising a property of the leader node during the network interval.
An apparatus for treating a mat of mineral fibers , in particular of glass fibers or of rock fibers, moving along a plane (X, Y) and a run direction (X), by detection and elimination of localized defects (M), in particular hot spots or wet spots, the apparatus comprising: - a first member for transporting the mat of mineral fibers , - a second member for transporting the mat of mineral fibers , the second transport member being positioned after the first transport member in the run direction (X) and separated therefrom in said direction by a treatment zone , - a device for detecting localized defects (M) in the mat of mineral fibers, located upstream of the treatment zone in the run direction (X), and - in the treatment zone , a device for eliminating defects suitable for eliminating, in-line, in other words during the transportation of the mat of fibers and without interruption of this transportation, a defect (M) detected by the detection device by eliminating the portion of mat containing it. - a first member for transporting the mat of mineral fibers , - a second member for transporting the mat of mineral fibers , the second transport member being positioned after the first transport member in the run direction (X) and separated therefrom in said direction by a treatment zone , - a device for detecting localized defects (M) in the mat of mineral fibers, located upstream of the treatment zone in the run direction (X), and - in the treatment zone , a device for eliminating defects suitable for eliminating, in-line, in other words during the transportation of the mat of fibers and without interruption of this transportation, a defect (M) detected by the detection device by eliminating the portion of mat containing it.
Antenna system configured for a radar measuring device detecting the topology of a product surface , comprising: a first antenna assembly configured to detect the topology of the product surface; a second antenna assembly configured to detect the fill level; wherein the first antenna assembly is an array antenna having an array of radiator elements arranged around the second antenna configuration; wherein the radiating surfaces of the radiator elements of the first antenna assembly and the radiating surface of the second antenna assembly are arranged on the same plane. a first antenna assembly configured to detect the topology of the product surface; a second antenna assembly configured to detect the fill level; wherein the first antenna assembly is an array antenna having an array of radiator elements arranged around the second antenna configuration; wherein the radiating surfaces of the radiator elements of the first antenna assembly and the radiating surface of the second antenna assembly are arranged on the same plane.
A pad structure comprising: a substrate including a non-active area (NA) and an active area (AA); a plurality of Line On Glass (LOG) lines that are arranged in parallel in a first direction and in a first area (FBA) in the non-active area (NA) of the substrate , wherein each of the LOG lines includes a plurality of metal layers of which at least one extends to an outside of the first area, and the LOG lines are spaced apart from each other, wherein the pad structure further comprises an overcoat layer that is positioned on the substrate external to the first area (FBA) in an area that is adjacent to a first boundary of the first area adjacent to an end portion of the active area (AA) in said first direction and in an area that is adjacent to a second boundary of the first area (FBA) opposite to the first boundary, wherein the overcoat layer overlaps the at least one of the plurality of metal layers which extends to an outside of the first area (FBA) and includes a removed portion between each of the LOG lines, wherein the removed portion extends in the first direction from an edge of the overcoat layer . a substrate including a non-active area (NA) and an active area (AA); a plurality of Line On Glass (LOG) lines that are arranged in parallel in a first direction and in a first area (FBA) in the non-active area (NA) of the substrate , wherein each of the LOG lines includes a plurality of metal layers of which at least one extends to an outside of the first area, and the LOG lines are spaced apart from each other, wherein the pad structure further comprises an overcoat layer that is positioned on the substrate external to the first area (FBA) in an area that is adjacent to a first boundary of the first area adjacent to an end portion of the active area (AA) in said first direction and in an area that is adjacent to a second boundary of the first area (FBA) opposite to the first boundary, wherein the overcoat layer overlaps the at least one of the plurality of metal layers which extends to an outside of the first area (FBA) and includes a removed portion between each of the LOG lines, wherein the removed portion extends in the first direction from an edge of the overcoat layer .
An aramid pulp characterized in that it is formed from an oilless aramid staple fiber of dried multifilaments that are not coated with a spinning oil agent, wherein a specific surface area is 10 m 2 /g or more.
A computer-executed method for producing a maxillofacial and/or orthodontic target virtual CT volume, in short CT end , comprising: a) receiving and/or accessing (S102) an initial CT volume of a head of a patient, the initial CT volume, in short CT 0 , comprising: i) maxilla bone and mandible bone, and ii) crowns and roots for a plurality of teeth; b) segmenting crowns, roots and bones out of the initial CT volume, CT 0 , to produce an initial segmented CT volume,SCT 0 ,; c) producing an initial set of maxillofacial and/or orthodontic biometric parameters, in short So, from the initial segmented CT volume, SCT 0 , and other anatomical features within the SCT 0 using an artificial intelligence engine configured for biometrics analysis and comprising dimensional cephalometric information on relationships between segmented crowns, roots and bones; d) determining a target relationship between the segmented crowns, roots and bones of the initial segmented CT volume, SCT 0 ; e) re-arranging the segmented crowns, roots and bones of the initial segmented CT volume, SCT 0 , according to the target relationship between the segmented crowns, roots and bones determined by the artificial intelligence engine to produce a target virtual CT volume, CT end ; and f) displaying (S116), storing or transmitting the target CT volume, CT end . a) receiving and/or accessing (S102) an initial CT volume of a head of a patient, the initial CT volume, in short CT 0 , comprising: i) maxilla bone and mandible bone, and ii) crowns and roots for a plurality of teeth; i) maxilla bone and mandible bone, and ii) crowns and roots for a plurality of teeth; b) segmenting crowns, roots and bones out of the initial CT volume, CT 0 , to produce an initial segmented CT volume,SCT 0 ,; c) producing an initial set of maxillofacial and/or orthodontic biometric parameters, in short So, from the initial segmented CT volume, SCT 0 , and other anatomical features within the SCT 0 using an artificial intelligence engine configured for biometrics analysis and comprising dimensional cephalometric information on relationships between segmented crowns, roots and bones; d) determining a target relationship between the segmented crowns, roots and bones of the initial segmented CT volume, SCT 0 ; e) re-arranging the segmented crowns, roots and bones of the initial segmented CT volume, SCT 0 , according to the target relationship between the segmented crowns, roots and bones determined by the artificial intelligence engine to produce a target virtual CT volume, CT end ; and f) displaying (S116), storing or transmitting the target CT volume, CT end .
A system for automatic inference of a cube schema from a tabular data for use in a multidimensional database environment, comprising: a computer that includes one or more microprocessors; a multidimensional database server executing on the computer; a cube schema inference component operating as a client to the multidimensional database server, wherein the cube schema inference component is configured to calculate information gain ratios for each pair of a plurality of columns in a tabular data received at the cube schema inference component, determine a relationship between each pair of columns using the information gain ratios for that column pair, construct a hierarchy directed graph using the determined relationships, and transform the hierarchy directed graph into a cube schema for use in creating a cube in the multidimensional database server, the cube being accessible to provide filtered information to users. a computer that includes one or more microprocessors; a multidimensional database server executing on the computer; a cube schema inference component operating as a client to the multidimensional database server, wherein the cube schema inference component is configured to calculate information gain ratios for each pair of a plurality of columns in a tabular data received at the cube schema inference component, determine a relationship between each pair of columns using the information gain ratios for that column pair, construct a hierarchy directed graph using the determined relationships, and transform the hierarchy directed graph into a cube schema for use in creating a cube in the multidimensional database server, the cube being accessible to provide filtered information to users.
A fixation clip adapted to be fixed to a support metal element having a fastening opening , the fixation clip comprising: a plug element comprising a holding head , a top and a plug-in tip which can be inserted into the fastening opening of the support metal element , wherein the plug-in tip and the top are fixedly connected to each other by a shaft , the fixation clip characterized by further comprising: a movable sealing disk having a central hole and being overmolded around the shaft of the fixation clip , the movable disk having a slip surrounding a lower part of the shaft adjacent to the plug-in tip , wherein the movable sealing disk is adapted to engage the support metal element by the fastening opening by inserting the plug-in tip and the slip into the fastening opening of the support metal element ; wherein a force applied on the holding head causes the shaft to be downwardly moved through the central hole such that the top of the plug element contacts the movable sealing disk causing the fixation of the clip to the support metal element . wherein the movable sealing disk is adapted to engage the support metal element by the fastening opening by inserting the plug-in tip and the slip into the fastening opening of the support metal element ; wherein a force applied on the holding head causes the shaft to be downwardly moved through the central hole such that the top of the plug element contacts the movable sealing disk causing the fixation of the clip to the support metal element .
Process for the preparation of a concrete structure comprising the steps of (a) casting a layer of fresh concrete, (b) application of a waterbased curable resin system onto the wet cast concrete layer and (c) mechanical incorporation of the applied waterbased curable resin system into the concrete layer, wherein the waterbased curable resin system is a waterbased epoxy resin system and the water content of the waterbased epoxy resin system is in the range of 40 to 80 wt.-%.
An attachment (102; 902; 1502) for a power tool (100; 900; 1500), comprising: an electrical arrangement (104; 904) associated with at least one of a plurality of operating components (106; 906; 1506) adapted to cooperate with a power unit (108; 908; 1508) of the power tool (100; 900; 1500), wherein the electrical arrangement (104; 904), when electrically coupled to the power unit, is arranged to be detected by the power unit so as to enable the power unit to identify the at least one of the plurality of operating components (106; 906; 1506) attached to the power unit; wherein the electrical arrangement (104; 904) comprises at least one electrical component; characterized in that the at least one electrical component includes at least one electric switch.
Household appliance comprising a fluid-carrying flow line system and a maintenance product container that is detachably received in the household appliance , in which container a maintenance product that is suitable for the maintenance of the flow line system and has a solid aggregate state is contained, the maintenance product container being received in the household appliance such that the opening of said container is in the geocentric direction (GZ), i.e. points downwards, and, in order to carry out a maintenance programme, a spray device being present which protrudes into the opening of the maintenance product container for spraying the maintenance product with a liquid, thereby producing a solution of the maintenance product as needed, characterised in that the maintenance product container can be inserted into a carriage which is movably guided by suitable guide means and the carriage can be entirely removed from the household appliance .
Method for producing a silicon carbide-containing body , characterized in that the method comprises the process steps: a) providing a mixture with a silicon source and a carbon source, wherein the silicon source and the carbon source are present together in particles of a solid granular material and wherein the silicon source is pure silicon or silicon dioxide and the carbon source is pure carbon; b) disposing a layer of the mixture provided in process step a) on a carrier , wherein the layer of the mixture has a predefined thickness; and c) locally limited treating the mixture disposed in process step b) at a temperature in a range from ≥ 1400°C to ≤ 2000°C according to a predetermined spatial pattern, wherein the predetermined spatial pattern is selected based on the spatial configuration of the body to be produced and wherein silicon carbide is produced by a rection of the carbon source and the silicon source. a) providing a mixture with a silicon source and a carbon source, wherein the silicon source and the carbon source are present together in particles of a solid granular material and wherein the silicon source is pure silicon or silicon dioxide and the carbon source is pure carbon; b) disposing a layer of the mixture provided in process step a) on a carrier , wherein the layer of the mixture has a predefined thickness; and c) locally limited treating the mixture disposed in process step b) at a temperature in a range from ≥ 1400°C to ≤ 2000°C according to a predetermined spatial pattern, wherein the predetermined spatial pattern is selected based on the spatial configuration of the body to be produced and wherein silicon carbide is produced by a rection of the carbon source and the silicon source.
A method comprising: receiving, by a wireless device , a capability request message comprising a request for capability parameters of the wireless device; sending, based on the capability request message, a capability response message comprising a capability parameter indicating that uplink preemption is supported; receiving, after sending the capability response message, a control message comprising a radio network temporary identifier, RNTI, for reception of an uplink preemption indication; and receiving downlink control information, DCI, associated with the RNTI, wherein the DCI indicates uplink preemption of at least one uplink resource. receiving, by a wireless device , a capability request message comprising a request for capability parameters of the wireless device; sending, based on the capability request message, a capability response message comprising a capability parameter indicating that uplink preemption is supported; receiving, after sending the capability response message, a control message comprising a radio network temporary identifier, RNTI, for reception of an uplink preemption indication; and receiving downlink control information, DCI, associated with the RNTI, wherein the DCI indicates uplink preemption of at least one uplink resource.
An arbitration method, comprising: obtaining (S601), in an N-th clock cycle, P first requests respectively sent by P processing modules among M processing modules, wherein the M processing modules are each configured to send a first request to a memory module via an arbitration module, M is an integer greater than P, N is an integer greater than or equal to zero, and P is an integer greater than or equal to two; determining (S603), from a first timeslot table, P timeslot values to be respectively allocated to identities (IDs) of the P processing modules; and determining (S605), according to a normalized clock-cycle count corresponding to the N-th clock cycle and the P timeslot values, a target request from among the P first requests to be sent to the memory module in the N-th clock cycle, by: for each of the P timeslot values, determining (S805) an absolute difference between the timeslot value and the normalized clock-cycle count; determining (S807) a target timeslot value corresponding to a minimum absolute difference; and determining (S809) a first request sent by a processing module corresponding to the target timeslot value as the target request, wherein the normalized clock-cycle count is the same as a value of N modulo M. obtaining (S601), in an N-th clock cycle, P first requests respectively sent by P processing modules among M processing modules, wherein the M processing modules are each configured to send a first request to a memory module via an arbitration module, M is an integer greater than P, N is an integer greater than or equal to zero, and P is an integer greater than or equal to two; determining (S603), from a first timeslot table, P timeslot values to be respectively allocated to identities (IDs) of the P processing modules; and determining (S605), according to a normalized clock-cycle count corresponding to the N-th clock cycle and the P timeslot values, a target request from among the P first requests to be sent to the memory module in the N-th clock cycle, by: for each of the P timeslot values, determining (S805) an absolute difference between the timeslot value and the normalized clock-cycle count; determining (S807) a target timeslot value corresponding to a minimum absolute difference; and determining (S809) a first request sent by a processing module corresponding to the target timeslot value as the target request, for each of the P timeslot values, determining (S805) an absolute difference between the timeslot value and the normalized clock-cycle count; determining (S807) a target timeslot value corresponding to a minimum absolute difference; and determining (S809) a first request sent by a processing module corresponding to the target timeslot value as the target request, wherein the normalized clock-cycle count is the same as a value of N modulo M.
Battery assembly for a motor vehicle, comprising a battery housing and at least one cell module , which is arranged on a base plate of the battery housing , the at least one cell module comprising a cell module housing and a plurality of battery cells arranged in the cell module housing , and a base of the cell module housing being joined to the base plate of the battery housing by means of a glue , characterized in that the cell module housing is joined to a side wall of the battery housing by means of a further adhesive , the further adhesive having a higher shear strength than the glue arranged between the base of the cell module housing and the base plate of the battery housing .
A method for producing (Z)-1 -chloro-2,3,3-trifluoro-1-propene, comprising: distilling a distillation composition which contains (Z)-1-chloro-2,3,3-trifluoro-1-propene, (E)-1-chloro-2,3,3-trifluoro-1-propene and water to remove (E)-1 -chloro-2,3,3-trifluoro-1 -propene and water from the distillation composition as an azeotropic composition or an azeotropic-like composition.