mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel rail assembly for an internal combustion engine comprising - an elongate, common fuel rail forming a reservoir for a fuel supply, - a plurality of adapters spaced along and fixed to a wall of the fuel rail for hydraulically connecting an associated fuel injector to the reservoir in the common rail , and - a fuel passage associated with each adapter and operable to lead fuel from the reservoir to the respective adapter, wherein each fuel passage comprises an inlet end open to the reservoir and has an upstream end section adjacent to the inlet end having a predetermined length (L2) and a predetermined cross-sectional area such as to form a smoothing function to smooth pressure fluctuations in the fuel entering the passage characterized in that a radially extending wall of the fuel passage has an annular channel configured to provide a relief channel to absorb excess brazing material during a brazing process for fixing the adapter to the wall of the fuel rail and wherein the radially extending wall has a plurality of concentrically disposed annular channels . - an elongate, common fuel rail forming a reservoir for a fuel supply, - a plurality of adapters spaced along and fixed to a wall of the fuel rail for hydraulically connecting an associated fuel injector to the reservoir in the common rail , and - a fuel passage associated with each adapter and operable to lead fuel from the reservoir to the respective adapter, wherein each fuel passage comprises an inlet end open to the reservoir and has an upstream end section adjacent to the inlet end having a predetermined length (L2) and a predetermined cross-sectional area such as to form a smoothing function to smooth pressure fluctuations in the fuel entering the passage characterized in that a radially extending wall of the fuel passage has an annular channel configured to provide a relief channel to absorb excess brazing material during a brazing process for fixing the adapter to the wall of the fuel rail and wherein the radially extending wall has a plurality of concentrically disposed annular channels .
A burner body for a domestic appliance, in particular for a gas cooking hob, more particularly a free-standing gas cooking hob, wherein: - the burner body comprises two lateral wings arranged in a lower portion of said burner body , - said lateral wings are arranged at opposite sides of the lower portion of the burner body , - outer edges of the lateral wings are arranged parallel to each other, and - the burner body is fixable on the domestic appliance by a horizontal movement, so that - the lateral wings are engageable with complementary elements of the domestic appliance, characterised in that the burner body comprises a base plate arranged in the lower portion of said burner body , wherein the lateral wings are arranged at opposite sides of said base plate , and wherein the base plate is insertable between complementary slide rails of the domestic appliance , so that the burner body is attachable at the domestic appliance by a sideward movement of said burner body . - the burner body comprises two lateral wings arranged in a lower portion of said burner body , - said lateral wings are arranged at opposite sides of the lower portion of the burner body , - outer edges of the lateral wings are arranged parallel to each other, and - the burner body is fixable on the domestic appliance by a horizontal movement, so that - the lateral wings are engageable with complementary elements of the domestic appliance,
A device for storing energy, having: - a heat storage device, which has a storage region and an outer wall surrounding the storage region, and - a heat transfer element (9; 51; 52), wherein - the storage region has a heat storage medium , - an intermediate region between the storage region and the outer wall is filled at least partially with a gaseous medium, - the intermediate region is coupled with a first pumping device in such a manner that a pressure of the gaseous medium is adjustable, - the heat transfer element (9; 51; 52) - is filled at least partially with a working medium, - at least in certain sections is arranged in the intermediate region , - at least in certain sections is arranged in the storage region, and/or - at least in certain sections is arranged on a surface of the storage region facing the intermediate region , and - a first section of the heat transfer element (9; 51; 52) is arranged in the intermediate region in such a manner that the working medium in the heat transfer element (9; 51; 52) in the first section can be heated by means of heat output by the heat storage medium and a second section of the heat transfer element (9; 51; 52) is arranged outside the outer wall in such a manner that the working medium in the second section cools. - a heat storage device, which has a storage region and an outer wall surrounding the storage region, and - a heat transfer element (9; 51; 52), - the storage region has a heat storage medium , - an intermediate region between the storage region and the outer wall is filled at least partially with a gaseous medium, - the intermediate region is coupled with a first pumping device in such a manner that a pressure of the gaseous medium is adjustable, - the heat transfer element (9; 51; 52) - is filled at least partially with a working medium, - at least in certain sections is arranged in the intermediate region , - at least in certain sections is arranged in the storage region, and/or - at least in certain sections is arranged on a surface of the storage region facing the intermediate region , and - is filled at least partially with a working medium, - at least in certain sections is arranged in the intermediate region , - at least in certain sections is arranged in the storage region, and/or - at least in certain sections is arranged on a surface of the storage region facing the intermediate region , and - a first section of the heat transfer element (9; 51; 52) is arranged in the intermediate region in such a manner that the working medium in the heat transfer element (9; 51; 52) in the first section can be heated by means of heat output by the heat storage medium and a second section of the heat transfer element (9; 51; 52) is arranged outside the outer wall in such a manner that the working medium in the second section cools.
Apparatus for reducing a magnetic unidirectional flux component in the core of a transformer, in particular a three-phase transformer, comprising a controllable current source (S), a neutral earthing transformer (H) and a plurality of compensation windings (K1, K2, K3) which are able to be magnetically coupled to the core of the transformer, wherein - the controllable current source (S) for feeding current into the compensation windings (K1, K2, K3) is arranged electrically in series with the compensation windings (K1, K2, K3), and specifically with the neutral point (P1) thereof, which is formed by the inputs of the compensation windings (K1, K2, K3) and - the neutral earthing transformer (H) is electrically conductively connected to the outputs of the compensation windings (K1, K2, K3) and - the current source (S) electrically connects the neutral point (P1) of the compensation windings (K1, K2, K3) and the neutral point (P2) of the neutral earthing transformer (H) to one another. - the controllable current source (S) for feeding current into the compensation windings (K1, K2, K3) is arranged electrically in series with the compensation windings (K1, K2, K3), and specifically with the neutral point (P1) thereof, which is formed by the inputs of the compensation windings (K1, K2, K3) and - the neutral earthing transformer (H) is electrically conductively connected to the outputs of the compensation windings (K1, K2, K3) and - the current source (S) electrically connects the neutral point (P1) of the compensation windings (K1, K2, K3) and the neutral point (P2) of the neutral earthing transformer (H) to one another.
A method of operating a wireless device in a communication network, the method comprising: receiving a scheduling message including a Downlink Control Indication, DCI, that includes a schedule identifying a plurality of transmission blocks, TBs; determining a quantity of the plurality of TBs that are identified in the DCI; determining a quantity of Hybrid Automatic Repeat Request Acknowledgement, HARQ ACKs in an ACK bundle identified in the DCI; and dynamically generating an acknowledgement timer value that corresponds to the quantity of the plurality of TBs and the quantity of HARQ ACKs in the ACK bundle, characterized in that the acknowledgement timer value comprises a Hybrid Automatic Repeat Request Round Trip Time, HARQ RTT, timer value that is generated as 7 + N*m in which N is a Physical Uplink Control Channel, PUCCH, repetition factor, and m is the number of HARQ ACK bundles identified in the scheduling message. receiving a scheduling message including a Downlink Control Indication, DCI, that includes a schedule identifying a plurality of transmission blocks, TBs; determining a quantity of the plurality of TBs that are identified in the DCI; determining a quantity of Hybrid Automatic Repeat Request Acknowledgement, HARQ ACKs in an ACK bundle identified in the DCI; and dynamically generating an acknowledgement timer value that corresponds to the quantity of the plurality of TBs and the quantity of HARQ ACKs in the ACK bundle, characterized in that the acknowledgement timer value comprises a Hybrid Automatic Repeat Request Round Trip Time, HARQ RTT, timer value that is generated as 7 + N*m in which N is a Physical Uplink Control Channel, PUCCH, repetition factor, and m is the number of HARQ ACK bundles identified in the scheduling message.
A pneumatic tire comprising: a tread portion ; a self-sealing sealant layer disposed on a tire inner cavity (i) side of the tread portion ; and a sound absorbing material , in a form of a sponge, fixed to the sealant layer , wherein the sealant layer includes, in a front view of the tire inner cavity (i), a first region having a surface that is covered with the sound absorbing material and a second region having a surface that is not covered with the sound absorbing material , and, in a first tire cross section, a sealant layer thickness of at least a part of the first region is smaller than a sealant layer thickness of the second region , wherein the first region includes a small-thickness portion having a sealant layer thickness t1 of 0.5 to 4.0 mm, the second region includes a large-thickness portion having a sealant layer thickness t2 larger than the sealant layer thickness t1 of the small-thickness portion characterised in that in the front view of the tire inner cavity (i), an area A of the large-thickness portion in the sealant layer is not lower than 80% of a total area B of the second region . a tread portion ; a self-sealing sealant layer disposed on a tire inner cavity (i) side of the tread portion ; and a sound absorbing material , in a form of a sponge, fixed to the sealant layer , wherein the sealant layer includes, in a front view of the tire inner cavity (i), a first region having a surface that is covered with the sound absorbing material and a second region having a surface that is not covered with the sound absorbing material , and, in a first tire cross section, a sealant layer thickness of at least a part of the first region is smaller than a sealant layer thickness of the second region , wherein the first region includes a small-thickness portion having a sealant layer thickness t1 of 0.5 to 4.0 mm, the second region includes a large-thickness portion having a sealant layer thickness t2 larger than the sealant layer thickness t1 of the small-thickness portion characterised in that in the front view of the tire inner cavity (i), an area A of the large-thickness portion in the sealant layer is not lower than 80% of a total area B of the second region .
A scaffolding material for culturing a stem cell, the scaffolding material comprising a synthetic resin, and the synthetic resin having a nitrogen content of 0.1% by mass or more and 10% by mass or less, wherein the synthetic resin contains a polyvinyl acetal resin having a degree of acetalization of 60 mol% or more and 90 mol% or less. the scaffolding material comprising a synthetic resin, and the synthetic resin having a nitrogen content of 0.1% by mass or more and 10% by mass or less, wherein the synthetic resin contains a polyvinyl acetal resin having a degree of acetalization of 60 mol% or more and 90 mol% or less.
A hybrid memory cube (HMC) device including: a plurality of integrated circuit memory dies including at least a first memory die arranged on top of a second memory die, and at least a portion of the memory of the plurality of integrated circuit memory dies is mapped as at least a portion of a distributed shared memory that includes at least a portion of a memory coherence directory; and a logic base die including at least one memory controller configured to manage access by at least one device separate from the hybrid memory cube device to memory of the plurality of memory dies , and logic circuitry configured to implement a memory coherence protocol for data stored in the memory of the plurality of memory dies , wherein memory coherence state information is stored with the data in the distributed shared memory as the memory coherence directory. a plurality of integrated circuit memory dies including at least a first memory die arranged on top of a second memory die, and at least a portion of the memory of the plurality of integrated circuit memory dies is mapped as at least a portion of a distributed shared memory that includes at least a portion of a memory coherence directory; and a logic base die including at least one memory controller configured to manage access by at least one device separate from the hybrid memory cube device to memory of the plurality of memory dies , and logic circuitry configured to implement a memory coherence protocol for data stored in the memory of the plurality of memory dies , wherein memory coherence state information is stored with the data in the distributed shared memory as the memory coherence directory.
A method for wireless communication, comprising: receiving a candidate codeword encoded using a polar code, the candidate codeword generated based at least in part on a plurality of information bits; performing a decoding process on the candidate codeword, the decoding process comprising, for each bit channel of at least a first subset of bit channels of the polar code: determining path metrics for each of a plurality of decoding paths; determining a spread metric based at least in part on a first path metric corresponding to a first decoding path of the plurality of decoding paths and a second path metric corresponding to a second decoding path of the plurality of decoding paths; and terminating the decoding process based at least in part on a comparison of the spread metric to a spread metric threshold. receiving a candidate codeword encoded using a polar code, the candidate codeword generated based at least in part on a plurality of information bits; performing a decoding process on the candidate codeword, the decoding process comprising, for each bit channel of at least a first subset of bit channels of the polar code: determining path metrics for each of a plurality of decoding paths; determining a spread metric based at least in part on a first path metric corresponding to a first decoding path of the plurality of decoding paths and a second path metric corresponding to a second decoding path of the plurality of decoding paths; and terminating the decoding process based at least in part on a comparison of the spread metric to a spread metric threshold. determining path metrics for each of a plurality of decoding paths; determining a spread metric based at least in part on a first path metric corresponding to a first decoding path of the plurality of decoding paths and a second path metric corresponding to a second decoding path of the plurality of decoding paths; and terminating the decoding process based at least in part on a comparison of the spread metric to a spread metric threshold.
Cylinder head for an internal combustion engine having liquid cooling, comprising at least two outlet valves for controlling outlet openings and at least one inlet valve for controlling at least one inlet opening per cylinder , having at least one cooling jacket through which cooling medium flows, wherein an outlet valve bridge is arranged between two adjacent outlet valves and a respective inlet/outlet valve bridge is arranged between at least one outlet valve and an adjacent inlet valve, and wherein a first cooling channel is arranged in the region of at least one outlet valve bridge and a second cooling channel is arranged in the region of at least one inlet/outlet valve bridge , and the first and second cooling channels are flow-connected to one another in a central cooling region of the cylinder , and the first cooling channel is flow-connected to the second cooling channel only via the central cooling region , wherein at least one second cooling channel has a flow-dividing device which subdivides the second cooling channel at least in sections into a first partial channel and a second partial channel , and wherein at least one flow interruption device is arranged at least in a region diametrically opposite the first and/or second cooling channel with respect to the outlet opening , characterised in that the first partial channel and the second partial channel are merged in the region of a connecting channel of the cooling jacket , which is arranged in the region of a motor transverse plane between two adjacent cylinders and/or in the region of at least one end face of the cylinder head , wherein preferably the first partial channel is arranged in the region of an outlet valve guide and the second partial channel is arranged in the region of an outlet valve seat of the adjacent outlet valve.
Drive device for a slurry wall cutter having a drive case and/or transmission case that surrounds an inner space for receiving drive and/or transmission elements and that comprises two case parts that are rotatable relative to one another and that are sealed with respect to one another by a seal device , and further having a pressure equalization device for pressure equalization between the inner space and the environment, characterized in that the pressure equalization device comprises at least one intermediate chamber that has pressure applied from a pressure source and that is sealed with respect to the inner space by an inner seal and with respect to the environment by an outer seal .
A method of characterizing a mixed fuel flow period, the method comprising: flowing and measuring a mixed fuel during the mixed fuel flow period when fuel is switched from a first fuel type to a second fuel type; measuring a density of the first fuel type and a density of the second fuel type; and characterized by : determining a total flow of the mixed fuel flow period, the total flow being determined from the density of the first fuel type, a concentration of the first fuel type determined during the mixed fuel flow period, the density of the second fuel type, and a concentration of the second fuel type, the concentration of the first fuel type determined during the mixed fuel flow period and the concentration of the second fuel type being determined using the density of the first fuel type and the density of the second fuel type. flowing and measuring a mixed fuel during the mixed fuel flow period when fuel is switched from a first fuel type to a second fuel type; measuring a density of the first fuel type and a density of the second fuel type; and characterized by : determining a total flow of the mixed fuel flow period, the total flow being determined from the density of the first fuel type, a concentration of the first fuel type determined during the mixed fuel flow period, the density of the second fuel type, and a concentration of the second fuel type, the concentration of the first fuel type determined during the mixed fuel flow period and the concentration of the second fuel type being determined using the density of the first fuel type and the density of the second fuel type.
An above ground pool comprising: a first horizontal frame member , a second horizontal frame member , a vertical frame member , a frame joint comprising: a first horizontal joint portion including a first coupling assembly configured to couple with the first horizontal frame member ; a second horizontal joint portion including a second coupling assembly configured to couple with the second horizontal frame member ; and a vertical joint portion fixedly coupled to the first and second horizontal joint portions and configured to couple with the vertical frame member ; wherein a width of the vertical joint portion accounts for at least 50% of a width between the first and second coupling assemblies of the first and second horizontal joint portions ; a liner wrapped around the first and second horizontal frame members , the liner defining a hole that is sized to expose the first and second coupling assemblies , characterized in that : a width of the frame joint exceeds a width of the hole in the liner . a first horizontal frame member , a second horizontal frame member , a vertical frame member , a frame joint comprising: a first horizontal joint portion including a first coupling assembly configured to couple with the first horizontal frame member ; a second horizontal joint portion including a second coupling assembly configured to couple with the second horizontal frame member ; and a vertical joint portion fixedly coupled to the first and second horizontal joint portions and configured to couple with the vertical frame member ; wherein a width of the vertical joint portion accounts for at least 50% of a width between the first and second coupling assemblies of the first and second horizontal joint portions ; a first horizontal joint portion including a first coupling assembly configured to couple with the first horizontal frame member ; a second horizontal joint portion including a second coupling assembly configured to couple with the second horizontal frame member ; and a vertical joint portion fixedly coupled to the first and second horizontal joint portions and configured to couple with the vertical frame member ; wherein a width of the vertical joint portion accounts for at least 50% of a width between the first and second coupling assemblies of the first and second horizontal joint portions ; a liner wrapped around the first and second horizontal frame members , the liner defining a hole that is sized to expose the first and second coupling assemblies , characterized in that : a width of the frame joint exceeds a width of the hole in the liner .