mhurhangee/ep-ind-claims huggingface dataset:
An acknowledgment packet transmission method, comprising: receiving, by a first device, data sent by a second device, wherein the data comprises N data packets; and sending, by the first device, an acknowledgment packet to the second device, wherein the acknowledgment packet comprises an acknowledgment field, the acknowledgment field comprises a first field and a second field, the second field comprises K locations and K lengths, an i th location in the K locations is a location of a start byte or a location of an end byte of an i th group of data packets in K groups of data packets, an i th length in the K lengths is a length of the i th group of data packets in the K groups of data packets, each group of data packets in the K groups of data packets comprise one data packet or a plurality of consecutive data packets, each group of data packets comprise one data packet or a plurality of consecutive data packets that belong to the N data packets, i=1,..., K, characterized in that the first field is used to indicate a value of K, and wherein the first field comprises a first byte quantity, and the first byte quantity is a quantity of bytes occupied by the acknowledgment field. receiving, by a first device, data sent by a second device, wherein the data comprises N data packets; and sending, by the first device, an acknowledgment packet to the second device, wherein the acknowledgment packet comprises an acknowledgment field, the acknowledgment field comprises a first field and a second field, the second field comprises K locations and K lengths, an i th location in the K locations is a location of a start byte or a location of an end byte of an i th group of data packets in K groups of data packets, an i th length in the K lengths is a length of the i th group of data packets in the K groups of data packets, each group of data packets in the K groups of data packets comprise one data packet or a plurality of consecutive data packets, each group of data packets comprise one data packet or a plurality of consecutive data packets that belong to the N data packets, i=1,..., K, characterized in that the first field is used to indicate a value of K, and wherein the first field comprises a first byte quantity, and the first byte quantity is a quantity of bytes occupied by the acknowledgment field.
A method for navigating in a particular area, the method employing a portable computing device having a satellite navigation system, said method including the step of: providing and displaying a non-linearly scaled map that includes at least one object being displayed as a segment of pixel coordinates that correspond to a single physical point represented by latitude and longitude in a geographical map; wherein said method is characterized by further comprising the steps of: capturing pixel coordinates of a point selected on the object; transforming pixel coordinates to the physical point; determining a current location of a user on the geographical map using the satellite navigation system; determining directions from the geographical map to move the user from the current location to the physical point as a destination; and presenting the directions to the physical point on the non-linearly scaled map being displayed. providing and displaying a non-linearly scaled map that includes at least one object being displayed as a segment of pixel coordinates that correspond to a single physical point represented by latitude and longitude in a geographical map; capturing pixel coordinates of a point selected on the object; transforming pixel coordinates to the physical point; determining a current location of a user on the geographical map using the satellite navigation system; determining directions from the geographical map to move the user from the current location to the physical point as a destination; and presenting the directions to the physical point on the non-linearly scaled map being displayed.
An instrument for dental use, especially for positioning brackets at teeth, wherein the instrument (1, 101, 301) has a speculum (5, 106, 314) and a positioning element (6, 131, 324) for determining and changing the position of the bracket at the tooth, wherein the instrument (1, 101, 301) has a handle (2, 102, 302) and wherein the speculum (5, 106, 314) and the positioning element (6, 131, 324) are arranged on the same end of the handle (2, 102, 302), characterized in that the positioning element has a first segment and a second segment, and that the main extension direction of the second segment extends approximately in parallel to the longitudinal axis of the handle.
A game device to propel and receive a projectile comprising a basket for propelling and receiving, said basket comprising an upper opening, and two opposed handles (310, 330), with the basket comprising two opposed and rigid side walls (21, 23), connected to each other by two first mechanisms (22, 24) respectively forming a front wall and a rear wall of the basket and comprising flexible and elastic means, with the two rigid side walls (21, 23) being further connected together by a second non-elastic mechanism forming a bottom wall of the basket, the said rigid side walls (21, 23) comprising an upper edge (210, 230) that merges with a side edge of the upper opening of the basket; with each handle (310, 330) being connected to an upper edge (210, 230) by third non-elastic mechanisms.
A valve assembly for use with a fluid regulator comprising: a housing to be disposed within a fluid flow passageway of the fluid regulator to define a low-pressure side of the fluid flow passageway and a high-pressure side of the fluid flow passageway, the housing having a bore that at least partially defines the fluid flow passageway when coupled to the fluid regulator, the housing having a flow control assembly disposed within the bore via a non-threaded connection in fluid communication with the low-pressure side of the fluid flow passageway and external threads to threadably couple the housing to an opening of the fluid regulator; and a seal system to prevent impurities from flowing between the high-pressure side of the fluid flow passageway and the low-pressure side of the fluid flow passageway; the valve assembly further comprising a filter to trap impurities within an inlet chamber defined by the opening of the fluid regulator, the filter possessing a circumferential portion that surrounds a portion of the movable valve assembly and a closed end that retains the movable valve assembly within the bore of the housing, characterized in that the filter forms an interference fit with the housing. a housing to be disposed within a fluid flow passageway of the fluid regulator to define a low-pressure side of the fluid flow passageway and a high-pressure side of the fluid flow passageway, the housing having a bore that at least partially defines the fluid flow passageway when coupled to the fluid regulator, the housing having a flow control assembly disposed within the bore via a non-threaded connection in fluid communication with the low-pressure side of the fluid flow passageway and external threads to threadably couple the housing to an opening of the fluid regulator; and a seal system to prevent impurities from flowing between the high-pressure side of the fluid flow passageway and the low-pressure side of the fluid flow passageway; the valve assembly further comprising a filter to trap impurities within an inlet chamber defined by the opening of the fluid regulator, the filter possessing a circumferential portion that surrounds a portion of the movable valve assembly and a closed end that retains the movable valve assembly within the bore of the housing, characterized in that the filter forms an interference fit with the housing.
A shaping method making use of shaper tooling suitable for high-temperature shaping of a preformed metal part having two side fins (32, 34) extending from a nose, the method being characterized by the following steps: putting said preformed metal part into place in a first bottom die of said tooling; holding said preformed metal part in a first determined position by means of a first movable central insert; • shaping one of said side fins of said preformed metal part into its final shape in alignment with said nose by means of a first movable top die; • turning over said preformed metal part having one of said side fins that is thus shaped in its final shape; • putting said preformed metal part into place in a second bottom die of said tooling; • holding said preformed metal part in a second determined position by means of a second movable central insert; and • shaping the other one of said side fins of said preformed metal part into its final shape in alignment with said nose by means of a second movable top die. putting said preformed metal part into place in a first bottom die of said tooling; holding said preformed metal part in a first determined position by means of a first movable central insert; • shaping one of said side fins of said preformed metal part into its final shape in alignment with said nose by means of a first movable top die; • turning over said preformed metal part having one of said side fins that is thus shaped in its final shape; • putting said preformed metal part into place in a second bottom die of said tooling; • holding said preformed metal part in a second determined position by means of a second movable central insert; and • shaping the other one of said side fins of said preformed metal part into its final shape in alignment with said nose by means of a second movable top die.
A method for device discovery using a device-to-device, D2D, sounding reference signal, SRS, comprising: receiving D2D SRS configuration information from an evolved Node B, eNB, at a user equipment, UE; sending UE D2D capability information to the eNB; receiving D2D SRS resources allocation information from the eNB; scanning configured D2D SRS resources at the UE based on the D2D SRS resources allocation information; and sending feedback of detected D2D SRS resources to the eNB; wherein scanning the configured D2D SRS resources uses a D2D SRS muting pattern based on a muting offset and a muting periodicity configured via radio resource control, RRC, signaling, and the muting offset and the muting periodicity determine a D2D SRS opportunity to scan; or wherein scanning the configured D2D SRS resources uses an implicit pseudo-random sequence based on a periodicity, periodicity index, and UE identity to determine a D2D SRS opportunity to scan; wherein a D2D SRS muting pattern is implicitly generated including one selected SRS transmission opportunity to be muted in a repeated pattern of multiple consecutive UE-specific periodic D2D SRS transmissions in a D2D subframe while the remaining periodic D2D SRS transmissions are transmitted, wherein muted SRS transmissions in the time-domain for each co-located D2D UE are implicitly generated using a pseudo-random sequence initialized by a UE identity, and the pseudo-random sequence is based on a D2D SRS muting pattern periodicity and periodicity index; and the method further comprising: transmitting a D2D SRS on the SRS transmission opportunity allocated to the UE. receiving D2D SRS configuration information from an evolved Node B, eNB, at a user equipment, UE; sending UE D2D capability information to the eNB; receiving D2D SRS resources allocation information from the eNB; scanning configured D2D SRS resources at the UE based on the D2D SRS resources allocation information; and sending feedback of detected D2D SRS resources to the eNB; wherein scanning the configured D2D SRS resources uses a D2D SRS muting pattern based on a muting offset and a muting periodicity configured via radio resource control, RRC, signaling, and the muting offset and the muting periodicity determine a D2D SRS opportunity to scan; or wherein scanning the configured D2D SRS resources uses an implicit pseudo-random sequence based on a periodicity, periodicity index, and UE identity to determine a D2D SRS opportunity to scan; wherein a D2D SRS muting pattern is implicitly generated including one selected SRS transmission opportunity to be muted in a repeated pattern of multiple consecutive UE-specific periodic D2D SRS transmissions in a D2D subframe while the remaining periodic D2D SRS transmissions are transmitted, wherein muted SRS transmissions in the time-domain for each co-located D2D UE are implicitly generated using a pseudo-random sequence initialized by a UE identity, and the pseudo-random sequence is based on a D2D SRS muting pattern periodicity and periodicity index; and the method further comprising: transmitting a D2D SRS on the SRS transmission opportunity allocated to the UE.
A drain cleaner, comprising: a rotatable drum; a cable including a first portion housed within the drum and a second portion extending outwardly from the drum along a cable axis, the cable rotatable about the cable axis; and a cable feed mechanism for feeding the cable out of the rotatable drum in an axial direction along the cable axis, the cable feed mechanism including a plurality of feed members selectively engagable with the cable, and a drive gear surrounding the plurality of feed members, the drive gear being engaged with the plurality of feed members, wherein the drive gear is configured to rotate to move the plurality of feed members into engagement with the cable, characterised in that the drain cleaner further comprises a collar, the collar extending concentrically around the drive gear, the collar being rotatably fixed relative to the drive gear and linearly movable relative to the drive gear. a rotatable drum; a cable including a first portion housed within the drum and a second portion extending outwardly from the drum along a cable axis, the cable rotatable about the cable axis; and a cable feed mechanism for feeding the cable out of the rotatable drum in an axial direction along the cable axis, the cable feed mechanism including a plurality of feed members selectively engagable with the cable, and a drive gear surrounding the plurality of feed members, the drive gear being engaged with the plurality of feed members, wherein the drive gear is configured to rotate to move the plurality of feed members into engagement with the cable, characterised in that the drain cleaner further comprises a collar, the collar extending concentrically around the drive gear, the collar being rotatably fixed relative to the drive gear and linearly movable relative to the drive gear.
Process comprising: subjecting a process gas containing NOx to a NOx absorption stage in a suitable absorption means, obtaining nitric acid and a tail gas containing nitrogen, argon and residual NOx; subjecting said tail gas to a treatment comprising at least one NOx removal stage, obtaining a conditioned tail gas; subjecting at least a portion of said conditioned tail gas to a separation treatment, obtaining a first product stream containing argon and a second product stream containing nitrogen. subjecting a process gas containing NOx to a NOx absorption stage in a suitable absorption means, obtaining nitric acid and a tail gas containing nitrogen, argon and residual NOx; subjecting said tail gas to a treatment comprising at least one NOx removal stage, obtaining a conditioned tail gas; subjecting at least a portion of said conditioned tail gas to a separation treatment, obtaining a first product stream containing argon and a second product stream containing nitrogen.
A pneumatic tire having a tire cavity, first and second sidewalls (30, 32) extending respectively from first and second tire bead regions (34, 36) to a tire tread region, the first sidewall having at least one bending region (196, 198) operatively bending within a rolling tire footprint responsive to a bending strain, whereby the bending region (196, 198) in a bending condition within the rolling tire footprint having a bending strain neutral axis, a compression side on one side of the neutral axis and an elongation side on the other side of the neutral axis, a sidewall groove positioned within the compression side of the bending region (196, 198) of the first tire sidewall, and an air tube positioned within the sidewall groove in contacting engagement with opposite groove surfaces (128, 130) at least partially surrounding the air tube, the sidewall groove operatively bending within the bending region (196, 198) responsive to a bending strain within the rolling tire footprint to compress the air tube from an expanded diameter to a flat diameter adjacent the rolling tire footprint whereby forcing evacuated air from a flattened air tube segment along an air passageway, characterized in that the sidewall groove extends into an annular, substantially axially extending sidewall surface of a tire chafer protrusion located in non-contacting relationship with the rim when the tire is mounted on a rim fitting to the tire.
A method for wireless signal transmission, the method comprising: negotiating, by a first base station, in conjunction with a second base station, a subframe resource allocation configuration; and determining, based on the negotiation, a subframe partition configuration; storing, in the first base station, the subframe partition configuration including an allocation of a first downlink, DL, resource to be one of a semi-static resource or dynamic resource, wherein the first DL resource is time division orthogonal to a second DL resource allocated to the second base station, the second DL resource being allocated by the subframe partition configuration to be one of a semi-static resource or dynamic resource; transmitting, from the first base station, a first signal consistent with the first DL resource allocation. negotiating, by a first base station, in conjunction with a second base station, a subframe resource allocation configuration; and determining, based on the negotiation, a subframe partition configuration; storing, in the first base station, the subframe partition configuration including an allocation of a first downlink, DL, resource to be one of a semi-static resource or dynamic resource, wherein the first DL resource is time division orthogonal to a second DL resource allocated to the second base station, the second DL resource being allocated by the subframe partition configuration to be one of a semi-static resource or dynamic resource; transmitting, from the first base station, a first signal consistent with the first DL resource allocation.
An exhaust valve rocker arm assembly operable in a combustion engine mode and an engine braking mode, the exhaust valve rocker arm assembly comprising: a rocker shaft that defines a pressurized oil supply conduit; a rocker arm that receives the rocker shaft and is configured to rotate around the rocker shaft, the rocker arm having an oil supply passage defined therein; a valve bridge that engages a first exhaust valve and a second exhaust valve; a first plunger body movable between a first position and a second position, wherein in the first position, the first plunger body extends rigidly for cooperative engagement with the valve bridge; characterized in that the exhaust valve rocker arm assembly comprises an actuator that selectively releases pressure acting against the first plunger body; wherein in the engine braking mode, pressurized oil is communicated through the pressurized oil supply conduit, through the rocker arm oil supply passage and against the actuator such that the first plunger body occupies the first position and acts on the valve bridge during rotation of the rocker arm to a first angle opening the first exhaust valve a predetermined distance while the second exhaust valve remains closed. a rocker shaft that defines a pressurized oil supply conduit; a rocker arm that receives the rocker shaft and is configured to rotate around the rocker shaft, the rocker arm having an oil supply passage defined therein; a valve bridge that engages a first exhaust valve and a second exhaust valve; a first plunger body movable between a first position and a second position, wherein in the first position, the first plunger body extends rigidly for cooperative engagement with the valve bridge; characterized in that the exhaust valve rocker arm assembly comprises an actuator that selectively releases pressure acting against the first plunger body; wherein in the engine braking mode, pressurized oil is communicated through the pressurized oil supply conduit, through the rocker arm oil supply passage and against the actuator such that the first plunger body occupies the first position and acts on the valve bridge during rotation of the rocker arm to a first angle opening the first exhaust valve a predetermined distance while the second exhaust valve remains closed.
Fused grains, in which: - said grains comprise a matrix of the zirconiaspinel eutectic coating inclusions composed essentially of a zirconia phase or of a spinel phase, - said grains exhibit the following overall chemical composition, as percentages by weight expressed in the form of oxides: ∘ more than 45.0% and less than 95.0% of ZrO 2, ∘ more than 3.0% and less than 40.0% of Al 2 O 3, ∘ more than 1.0% and less than 20.0% of MgO, ZrO 2, Al 2 O 3 and MgO together represent at least 95.0% of the weight of said grains. - said grains comprise a matrix of the zirconiaspinel eutectic coating inclusions composed essentially of a zirconia phase or of a spinel phase, - said grains exhibit the following overall chemical composition, as percentages by weight expressed in the form of oxides: ∘ more than 45.0% and less than 95.0% of ZrO 2, ∘ more than 3.0% and less than 40.0% of Al 2 O 3, ∘ more than 1.0% and less than 20.0% of MgO, ZrO 2, Al 2 O 3 and MgO together represent at least 95.0% of the weight of said grains. ∘ more than 45.0% and less than 95.0% of ZrO 2, ∘ more than 3.0% and less than 40.0% of Al 2 O 3, ∘ more than 1.0% and less than 20.0% of MgO,
A fluid evacuation apparatus comprising: a platform which is configured to receive at least one component; a cover comprising a polymeric membrane, the cover configured to be placed over the at least one component and configured to sealingly engage the platform, thereby forming a chamber which defines a chamber volume; a pump connected to the chamber volume and configured to pump fluid out of the chamber volume; and a permeable spacer configured to prevent contact between the at least one component and the polymeric membrane; characterized in that the permeable spacer comprises a mesh structure that is formed of wires that are intertwined to form a structure of repeating polygons or a foam structure. a platform which is configured to receive at least one component; a cover comprising a polymeric membrane, the cover configured to be placed over the at least one component and configured to sealingly engage the platform, thereby forming a chamber which defines a chamber volume; a pump connected to the chamber volume and configured to pump fluid out of the chamber volume; and a permeable spacer configured to prevent contact between the at least one component and the polymeric membrane; characterized in that the permeable spacer comprises a mesh structure that is formed of wires that are intertwined to form a structure of repeating polygons or a foam structure. a permeable spacer configured to prevent contact between the at least one component and the polymeric membrane; characterized in that the permeable spacer comprises a mesh structure that is formed of wires that are intertwined to form a structure of repeating polygons or a foam structure.