mhurhangee/ep-ind-claims huggingface dataset:
Housing arrangement for the connection location of pipes, comprising at least two cover shells intended for receiving the pipes and adapted to surround the pipes as housing in a state in which they are connected to one another, as well as comprising sealings at the inlet openings of the housing intended for the pipes, wherein the sealings have each at least a first annular and elastic sealing element intended and arranged for impinging the respective pipe on the outside of the pipe inside the housing, characterized in that the sealings have each at least a second annular sealing element intended and arranged for impinging the outside of the respective pipe on the outside of the housing.
Method for managing an access point of a communications network, the access point being capable of delivering data packets to at least one communications terminal connected to said access point, where the method comprises the following steps: queuing of several data packets, where a data packet has a waiting time d at the end of which it is considered to be lost; for each waiting time d, the determination of the transmission time T d of the data packets which have a waiting time d, said transmission time T d being a function of the time needed to activate the access point from an inactive or sleep mode; for a waiting time d, the comparison of a corresponding transmission time T d with said waiting time d, The preceding steps (S1, S2, S3) are carried out by a device which is delocalised from the access point in the event that the access point is in inactive mode, Said method comprising, if the duration d-Td is negative, a step of activating of said access point from the inactive or sleep mode in order to transmit packets from the queue, the activating step of said access point comprising, in the event of the access point being in the inactive mode before said activating step, the transmission by the delocalised device of an activation signal for the access point. queuing of several data packets, where a data packet has a waiting time d at the end of which it is considered to be lost; for each waiting time d, the determination of the transmission time T d of the data packets which have a waiting time d, said transmission time T d being a function of the time needed to activate the access point from an inactive or sleep mode; for a waiting time d, the comparison of a corresponding transmission time T d with said waiting time d, The preceding steps (S1, S2, S3) are carried out by a device which is delocalised from the access point in the event that the access point is in inactive mode, Said method comprising, if the duration d-Td is negative, a step of activating of said access point from the inactive or sleep mode in order to transmit packets from the queue, the activating step of said access point comprising, in the event of the access point being in the inactive mode before said activating step, the transmission by the delocalised device of an activation signal for the access point.
A method of generating geofences, comprising: obtaining a first location of a mobile device; identifying a plurality of first nearest locations that are nearest to the first location of the mobile device out of a plurality of stored locations; generating a respective local geofence (214, 216, 218) for each nearest location of the plurality of first nearest locations, wherein detection of the mobile device within a particular local geofence associated with one of the first nearest locations causes a notification at the mobile device of the particular first nearest location associated with the particular local geofence; generating a first triggering geofence that encloses a first area including the plurality of first nearest locations, wherein generating the first triggering geofence comprises setting the radius of the first triggering geofence such that the first triggering geofence encloses up to, but does not include, the closest location of the plurality of stored locations which does not have a local geofence; determining, based on a second location of the mobile device, that the mobile device has exited the first triggering geofence; and in response to determining that the mobile device has exited the first triggering geofence, generating a second triggering geofence that encloses a different second area including a plurality of different second nearest locations that are nearest to the second location of the mobile device out of the plurality of stored locations. obtaining a first location of a mobile device; identifying a plurality of first nearest locations that are nearest to the first location of the mobile device out of a plurality of stored locations; generating a respective local geofence (214, 216, 218) for each nearest location of the plurality of first nearest locations, wherein detection of the mobile device within a particular local geofence associated with one of the first nearest locations causes a notification at the mobile device of the particular first nearest location associated with the particular local geofence; generating a first triggering geofence that encloses a first area including the plurality of first nearest locations, wherein generating the first triggering geofence comprises setting the radius of the first triggering geofence such that the first triggering geofence encloses up to, but does not include, the closest location of the plurality of stored locations which does not have a local geofence; determining, based on a second location of the mobile device, that the mobile device has exited the first triggering geofence; and in response to determining that the mobile device has exited the first triggering geofence, generating a second triggering geofence that encloses a different second area including a plurality of different second nearest locations that are nearest to the second location of the mobile device out of the plurality of stored locations.
An immunogenic composition comprising a fusion protein of formula I: m - (R 1) n - A - o - B - p (formula I) wherein: X is a signal peptide or MHHHHHH (SEQ ID NO. 2); m is 0 or 1; R 1 is an amino acid; n is 0, 1, 2, 3, 4, 5 or 6; A is an immunogenic fragment of Protein E selected from SEQ ID NO. 122, SEQ ID NO. 123, SEQ ID NO. 124, SEQ ID NO. 125, SEQ ID NO. 126, SEQ ID NO. 179 or SEQ ID NO. 180 or a sequence having at least 95% sequence identity to any one of SEQ ID NO. 122, SEQ ID NO. 123, SEQ ID NO. 124, SEQ ID NO. 125, SEQ ID NO. 126, SEQ ID NO. 179 or SEQ ID NO. 180; Y is GG; o is 1; B is an immunogenic fragment of PilA, at least 95% identical to amino acids 40-149 of any of SEQ ID NO. 58 to SEQ ID NO. 121; Z is GGHHHHHH (SEQ ID NO. 3); and p is 0 or 1 and a pharmaceutically acceptable excipient X is a signal peptide or MHHHHHH (SEQ ID NO. 2); m is 0 or 1; R 1 is an amino acid; n is 0, 1, 2, 3, 4, 5 or 6; A is an immunogenic fragment of Protein E selected from SEQ ID NO. 122, SEQ ID NO. 123, SEQ ID NO. 124, SEQ ID NO. 125, SEQ ID NO. 126, SEQ ID NO. 179 or SEQ ID NO. 180 or a sequence having at least 95% sequence identity to any one of SEQ ID NO. 122, SEQ ID NO. 123, SEQ ID NO. 124, SEQ ID NO. 125, SEQ ID NO. 126, SEQ ID NO. 179 or SEQ ID NO. 180; Y is GG; o is 1; B is an immunogenic fragment of PilA, at least 95% identical to amino acids 40-149 of any of SEQ ID NO. 58 to SEQ ID NO. 121; Z is GGHHHHHH (SEQ ID NO. 3); and p is 0 or 1 and a pharmaceutically acceptable excipient
A lithium doped positive electrode active material for a lithium ion electric storage device, the active material having a BET specific surface area of 1500 m 2 /g or more and 3000 m 2 /g or less, wherein a ratio A of the pore volume within the range of the pore diameter of 0.6 nm or more and less than 1 nm to the pore volume within the range of the pore diameter of 0.6 nm or more and 200 nm or less in the active material satisfies 0 ≤ A ≤ 0.80, a ratio B of the pore volume within the range of the pore diameter of 1 nm or more and 6 nm or less to the pore volume within the range of the pore diameter of 0.6 nm or more and 200 nm or less in the active material satisfies 0.20 ≤ B ≤ 1.0 and wherein the active material is an activated carbon.
A handgun converter comprising: a body, having a handgun-engaging assembly (101, 102, 103) for holding a handgun; wherein said handgun-engaging assembly (101, 102, 103) comprises: a front engaging member in the front of the converter, for cradling a front of said handgun; and a rear engagement member for engaging an external portion of the rear portion of the frame of said handgun, thereby fastening said handgun to the handgun converter; wherein said handgun-engaging assembly (101, 102, 103) is configured to allow for a degree of flexibility of said handgun within said body in order to provide shock absorption during a recoil movement of said handgun wherein said flexibility is effected relatively to said body, and said flexibility is present in said rear engaging member being fixed to the body wherein the rear engaging member comprises a flexing element configured to allow for a backwards movement of the handgun mounted in the front engaging member. a body, having a handgun-engaging assembly (101, 102, 103) for holding a handgun; wherein said handgun-engaging assembly (101, 102, 103) comprises: a front engaging member in the front of the converter, for cradling a front of said handgun; and a rear engagement member for engaging an external portion of the rear portion of the frame of said handgun, thereby fastening said handgun to the handgun converter; wherein said handgun-engaging assembly (101, 102, 103) is configured to allow for a degree of flexibility of said handgun within said body in order to provide shock absorption during a recoil movement of said handgun wherein said flexibility is effected relatively to said body, and a front engaging member in the front of the converter, for cradling a front of said handgun; and a rear engagement member for engaging an external portion of the rear portion of the frame of said handgun, thereby fastening said handgun to the handgun converter; wherein said handgun-engaging assembly (101, 102, 103) is configured to allow for a degree of flexibility of said handgun within said body in order to provide shock absorption during a recoil movement of said handgun wherein said flexibility is effected relatively to said body, and said flexibility is present in said rear engaging member being fixed to the body wherein the rear engaging member comprises a flexing element configured to allow for a backwards movement of the handgun mounted in the front engaging member.
An anisotropic conductive film, comprising: a crystalline resin; an amorphous resin; and conductive particles, wherein the anisotropic conductive film is an anisotropic conductive film configured to anisotropic conductively connect a terminal of a first electronic part and a terminal of a second electronic part, wherein the crystalline resin contains a crystalline resin containing a bond characterizing a resin, which is identical to a bond characterizing a resin contained in the amorphous resin, and wherein the anisotropic conductive film satisfies the following formula: Δ ⁢ T 1 > Δ ⁢ T 2 where ΔT1 is an absolute value of a difference between melting onset temperature and endothermic peak temperature at the time of heating, and ΔT2 is an absolute value of a difference between crystallization onset temperature and exothermic peak temperature at the time of cooling, as the anisotropic conductive film is measured by differential scanning calorimetry with the following measuring temperature range, the following heating speed, and the following cooling speed: Measuring temperature range: 30°C to 250°C; Heating speed: 10 °C/min; and Cooling speed: 20 °C/min. a crystalline resin; an amorphous resin; and conductive particles, wherein the anisotropic conductive film is an anisotropic conductive film configured to anisotropic conductively connect a terminal of a first electronic part and a terminal of a second electronic part, wherein the crystalline resin contains a crystalline resin containing a bond characterizing a resin, which is identical to a bond characterizing a resin contained in the amorphous resin, and wherein the anisotropic conductive film satisfies the following formula: Δ ⁢ T 1 > Δ ⁢ T 2 where ΔT1 is an absolute value of a difference between melting onset temperature and endothermic peak temperature at the time of heating, and ΔT2 is an absolute value of a difference between crystallization onset temperature and exothermic peak temperature at the time of cooling, as the anisotropic conductive film is measured by differential scanning calorimetry with the following measuring temperature range, the following heating speed, and the following cooling speed: Measuring temperature range: 30°C to 250°C; Heating speed: 10 °C/min; and Cooling speed: 20 °C/min. Measuring temperature range: 30°C to 250°C; Heating speed: 10 °C/min; and Cooling speed: 20 °C/min.
A method for routing content, wherein the method is performed by a content router (200, 120) in a name-based network, the content router comprising a modified Forwarding Information Base, FIB, which stores a name prefix and a name of a router for the name prefix and a Reachability Information Base, RIB, which stores a forwarding face that the content router uses to reach a router in the name-based network, comprising: Receiving an interest packet from a first face, wherein the interest packet comprises a content name field populated with a first content name, a destination field, and a broadcast flag field set to broadcast, wherein the broadcast field indicates whether the first face has previously received a request having the first content name; and Receiving a data packet from a second face, wherein the data packet comprises a content name field populated with a second content name, a source field populated with the identity of a source of data associated with the second content name, and a data field populated with the data associated with the second content name. Receiving an interest packet from a first face, wherein the interest packet comprises a content name field populated with a first content name, a destination field, and a broadcast flag field set to broadcast, wherein the broadcast field indicates whether the first face has previously received a request having the first content name; and Receiving a data packet from a second face, wherein the data packet comprises a content name field populated with a second content name, a source field populated with the identity of a source of data associated with the second content name, and a data field populated with the data associated with the second content name.
An ink jet ink composition comprising: a sublimation dye; a dispersant for the sublimation dye; and polyether siloxane having a weight average molecular weight of 1000 or more and having 5 or more siloxane repeating units, wherein the dispersant is at least one selected from the group consisting of an acrylic resin, a styrene resin, and a urethane resin and has a weight average molecular weight of 500 or more. a sublimation dye; a dispersant for the sublimation dye; and polyether siloxane having a weight average molecular weight of 1000 or more and having 5 or more siloxane repeating units, wherein the dispersant is at least one selected from the group consisting of an acrylic resin, a styrene resin, and a urethane resin and has a weight average molecular weight of 500 or more.
Device for covering the outer region of the lower boundary of a building opening closable by means of an associated closure element and having a cover plate adjoining a lower frame leg of the closure element and projecting beyond the outside of the building, wherein a collecting chamber for water passing under the cover plate is formed under the cover plate and is associated with a trough element which is overlapped at a distance by the coyer plate and faces the lower boundary of the building opening, in whose bottom that descends towards the outwardly facing boundary of the collecting chamber at least one plate penetrating the outwardly facing boundary of the collecting chamber is embedded, on which at least one holding-down member which can be brought into engagement with an edge claw forming the outer end of the cover plate and has a variable, outwardly directed projection can be tightly clamped, characterized in that the plate forms an outwardly leading drainage channel.
Use of a ternary composition of 2,3,3,3-tetrafluoropropene, 1,1,1,2-tetrafluoroethane and difluoromethane, as a heat-transfer fluid, in compression refrigeration systems with exchangers operating in counterflow mode or in cross-flow mode with counterflow tendency.
A monoclonal antibody against a polypeptide comprising an amino acid sequence represented by DIVGTLRPDEKAIMTYVSC (SEQ ID NO: 4), wherein the monoclonal antibody binds to the amino acid sequence of SEQ ID NO: 4.
A bearing support arrangement for a wind turbine, comprising: - a support structure; - a bearing housing, the bearing housing being arranged inside the support structure; - a bearing (204, 240), the bearing (204, 240) being radially supported by the bearing housing; - a rotor shaft, the rotor shaft being radially supported by the bearing; - a removable wedge (210, 220), the wedge (210, 220) being arranged between the support structure and the bearing housing to clamp the bearing (204, 240) between the rotor shaft and the bearing housing, characterized by - a second bearing (204, 240), the second bearing (204, 240) being radially supported by the bearing housing; - a second removable wedge (210, 220), the second wedge (210, 220) being arranged between the support structure and the bearing housing to clamp the second bearing (204, 240) between the rotor shaft and the bearing housing. - a support structure; - a bearing housing, the bearing housing being arranged inside the support structure; - a bearing (204, 240), the bearing (204, 240) being radially supported by the bearing housing; - a rotor shaft, the rotor shaft being radially supported by the bearing; - a removable wedge (210, 220), the wedge (210, 220) being arranged between the support structure and the bearing housing to clamp the bearing (204, 240) between the rotor shaft and the bearing housing, characterized by - a second bearing (204, 240), the second bearing (204, 240) being radially supported by the bearing housing; - a second removable wedge (210, 220), the second wedge (210, 220) being arranged between the support structure and the bearing housing to clamp the second bearing (204, 240) between the rotor shaft and the bearing housing.
A centrifugal pump system comprising: a disc-shaped impeller rotating about an axis and having a first magnetic structure (25, 45) disposed at a first surface and a second magnetic structure (27, 44) disposed at a second surface; a pump housing (22a, 22b) defining a pumping chamber which receives the impeller; a levitation magnetic structure disposed at a first end of the pump housing having a levitating magnetic field for axially attracting the first magnetic structure; a multiphase magnetic stator disposed at a second end of the pump housing for generating a rotating magnetic field for axially and rotationally attracting the second magnetic structure; a commutator circuit for providing a plurality of phase voltages to the stator; characterized in that the system further comprises a sensing circuit for determining respective phase currents flowing in response to the phase voltages; and a controller for calculating successive commanded values for the phase voltages during a running state in response to a desired impeller speed and an actual impeller phase that is detected in response to the determined phase currents, wherein the controller has a startup interval during which the commanded values of the phase voltages are determined in response to a pseudo impeller phase and in response to a ramping gain factor (g). a disc-shaped impeller rotating about an axis and having a first magnetic structure (25, 45) disposed at a first surface and a second magnetic structure (27, 44) disposed at a second surface; a pump housing (22a, 22b) defining a pumping chamber which receives the impeller; a levitation magnetic structure disposed at a first end of the pump housing having a levitating magnetic field for axially attracting the first magnetic structure; a multiphase magnetic stator disposed at a second end of the pump housing for generating a rotating magnetic field for axially and rotationally attracting the second magnetic structure; a commutator circuit for providing a plurality of phase voltages to the stator; characterized in that the system further comprises a sensing circuit for determining respective phase currents flowing in response to the phase voltages; and a controller for calculating successive commanded values for the phase voltages during a running state in response to a desired impeller speed and an actual impeller phase that is detected in response to the determined phase currents, wherein the controller has a startup interval during which the commanded values of the phase voltages are determined in response to a pseudo impeller phase and in response to a ramping gain factor (g).
A method for scheduling transmission opportunities, TXOPs, in a wireless communications system, the method comprising: receiving request-to-send multiple, RTSM, frames from subscriber stations (104a, 104b, 104c) of a plurality of subscriber stations during a contention window in which allocations are made for at least one pending TXOP, wherein each of the RTSM frames comprises a request from one subscriber station for multiple TXOPs; and allocating resources for multiple TXOPs based on the RTSM frames; and sending a clear-to-send multiple, CTSM, frame combined with a TXOP start, TXS, frame indicating how each subscriber station (104a, 104b, 104c) may transmit after the TXS frame. receiving request-to-send multiple, RTSM, frames from subscriber stations (104a, 104b, 104c) of a plurality of subscriber stations during a contention window in which allocations are made for at least one pending TXOP, wherein each of the RTSM frames comprises a request from one subscriber station for multiple TXOPs; and allocating resources for multiple TXOPs based on the RTSM frames; and
Cooling element for a light source, in particular for an LED light source, wherein the cooling element has a ring-like outer body as well as a central body, that is formed by a separate element and arranged in a central opening of the outer body, wherein the outer body has a recess for arrangement of the light source, characterized in that the central body is an integrally formed solid material body and in that the central body has a plate, with a cylinder-like protrusion arranged on its one side, wherein the cylinder-like protrusion is set into the opening of the outer body and wherein the plate forms a planar bottom area of the recess and has drill holes for mounting the light source.
Vortex generator pair comprising two not directly connected fins and a base, characterized in that said base covers less than 90% of the area between said fins and in particular wherein said base is shaped like an 'U', a 'V' or a 'W'.
A front stop of a ski fastening system comprising a base and a body provided with a moving jaw designed to engage with the platform of a shoe while being supported by a substantially vertical pivot articulated on a longitudinal tie rod cooperating with a return spring, characterized in that said pivot bears at least two stop elements (3, 10a) cooperating with an inner stop wall arranged on said body, said stop elements assuming, by rotation of the pivot around itself, separate angular positions corresponding to travels of said jaw with short and long amplitudes, respectively, in the vertical direction, said pivot having a travel in the vertical plane corresponding to upward or downward tilting of said jaw, thus allowing it to be adapted to different platform heights as well as to various shoe sole profiles.