mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire in which, by being provided with a pair of center main grooves disposed on both sides of the tire equator (c) and a pair of shoulder main grooves disposed on both sides of the center main grooves, the tread portion is provided on both sides of the tire equator (c) with middle land portions which are defined between the center main grooves and the shoulder main grooves, wherein each of the middle land portions is provided with a plurality of middle oblique grooves, each of the middle oblique grooves extends toward the tire equator from an axially outer end communicating with the shoulder main groove, and terminates so that an axially inner end does not communicate with the center main groove, and an outer end side of the middle oblique groove is provided with an outer shallow bottom portion having a groove depth smaller than the maximum groove depth of the middle oblique groove, wherein an inner shallow bottom portion is formed in an inner end side of the middle oblique groove, and a deepest part is formed between the outer shallow bottom portion and the inner shallow bottom portion, wherein the deepest part has the maximum groove depth (dm) of the middle oblique groove, characterised in that the outer shallow bottom portion extends over a predetermined range including the outer end of the middle oblique groove, and comprises a base part extending in the longitudinal direction of the groove and having a minimum groove depth (do), and an inclined part extending in the longitudinal direction of the groove from the base part to the deepest part, while gradually increasing the groove depth, wherein the inclined part is smoothly continued to the deepest part having the maximum groove depth (dm), and the inner shallow bottom portion extends over a predetermined range including the inner end of the middle oblique groove, and comprises a base part extending in the longitudinal direction of the groove and having a minimum groove depth (di), and an inclined part extending in the longitudinal direction of the groove from the base part to the deepest part, while gradually increasing the groove depth, wherein the inclined part is smoothly continued to the deepest part having the maximum groove depth (dm).
A capsule recognition module for a brewing module for preparing a brewed beverage from a portion capsule, comprising: • an optical sensor, in particular a camera, for detecting optical characteristics of the capsule located at a capsule recognition position, • a capsule recognition window of a transparent material, between the capsule recognition position and the camera, and • a fan for producing an airflow, at the side of the capsule recognition window which is towards the capsule recognition position. • an optical sensor, in particular a camera, for detecting optical characteristics of the capsule located at a capsule recognition position, • a capsule recognition window of a transparent material, between the capsule recognition position and the camera, and • a fan for producing an airflow, at the side of the capsule recognition window which is towards the capsule recognition position.
A genetically modified murine animal comprising a replacement at an endogenous murine IL-6 locus of a murine gene encoding IL-6 with a human gene encoding human IL-6, wherein the human gene encoding human IL-6 is under control of endogenous murine regulatory elements at the endogenous murine IL-6 locus.
Beverage preparation assembly comprising: - a container for storing a water soluble beverage powder, said container comprising a tank and a powder outlet, - a dissolution chamber for preparing a beverage from the water soluble beverage powder and a diluent, said dissolution chamber comprising at last one diluent inlet and a beverage outlet, - a chute for guiding the water soluble beverage powder from the powder outlet of the container to the dissolution chamber, - an air outlet configured for evacuating air from the dissolution chamber, wherein the powder outlet is connected to the chute by a conduit, and wherein the powder outlet, the conduit, the chute and the dissolution chamber are connected together through airtight connections, and wherein said assembly comprises an air inlet, said air inlet being positioned above the chute only. - a container for storing a water soluble beverage powder, said container comprising a tank and a powder outlet, - a dissolution chamber for preparing a beverage from the water soluble beverage powder and a diluent, said dissolution chamber comprising at last one diluent inlet and a beverage outlet, - a chute for guiding the water soluble beverage powder from the powder outlet of the container to the dissolution chamber, - an air outlet configured for evacuating air from the dissolution chamber,
A method for planning a longitudinal motion parameter of a vehicle, comprising: detecting a plurality of obstacles located within a preset range of the vehicle; obtaining a time-space domain of each of the plurality of obstacles and a time-space domain of the vehicle, wherein the time-space domain of each obstacle is used to indicate a change of a position space of each obstacle with time, and the time-space domain of the vehicle is used to indicate a change of a position space of the vehicle with time; characterized by determining a spatial-temporal occupy type between the time-space domain of each of the plurality of obstacles and the time-space domain of the vehicle based on an occupy time between the time-space domain of each of the plurality of obstacles and the time-space domain of the vehicle, wherein the occupy time is used to indicate a time period in which the position space of each of the plurality of obstacles occupies at least a part of the position space of the vehicle; selecting a target obstacle from the plurality of obstacles based on the spatial-temporal occupy type; and planning a longitudinal motion parameter of the vehicle based on a spatial-temporal occupy type corresponding to the target obstacle. detecting a plurality of obstacles located within a preset range of the vehicle; obtaining a time-space domain of each of the plurality of obstacles and a time-space domain of the vehicle, wherein the time-space domain of each obstacle is used to indicate a change of a position space of each obstacle with time, and the time-space domain of the vehicle is used to indicate a change of a position space of the vehicle with time; characterized by determining a spatial-temporal occupy type between the time-space domain of each of the plurality of obstacles and the time-space domain of the vehicle based on an occupy time between the time-space domain of each of the plurality of obstacles and the time-space domain of the vehicle, wherein the occupy time is used to indicate a time period in which the position space of each of the plurality of obstacles occupies at least a part of the position space of the vehicle; selecting a target obstacle from the plurality of obstacles based on the spatial-temporal occupy type; and planning a longitudinal motion parameter of the vehicle based on a spatial-temporal occupy type corresponding to the target obstacle.
A vehicular hydraulic braking pump (20; 120; 220) comprising: a sleeve (28; 128; 228) having an inner bore (28a; 128a) defining an inner bore surface; a piston (26; 126; 226) having a stop collar (26b; 126b) and a ramped seal face (80; 180; 280), the stop collar (26b; 126b), ramped seal face (80; 180; 280), and the inner bore (28a; 128a) cooperating to define a seal pocket (78; 178; 278); and a high pressure seal (62; 162; 262) disposed in the seal pocket (78; 178; 278), characterized in that the ramped seal face (80; 180; 280) includes a first region (86; 186; 286) that contacts the high pressure seal (62; 162; 262) and a second region (88; 188; 288) that defines a clearance between the high pressure seal (62; 162; 262) and the ramped seal face (80; 180; 280). a sleeve (28; 128; 228) having an inner bore (28a; 128a) defining an inner bore surface; a piston (26; 126; 226) having a stop collar (26b; 126b) and a ramped seal face (80; 180; 280), the stop collar (26b; 126b), ramped seal face (80; 180; 280), and the inner bore (28a; 128a) cooperating to define a seal pocket (78; 178; 278); and a high pressure seal (62; 162; 262) disposed in the seal pocket (78; 178; 278), characterized in that the ramped seal face (80; 180; 280) includes a first region (86; 186; 286) that contacts the high pressure seal (62; 162; 262) and a second region (88; 188; 288) that defines a clearance between the high pressure seal (62; 162; 262) and the ramped seal face (80; 180; 280).
Method for forming into containers blanks made of plastic material, the method comprising a cycle of steps including at least steps (44, 46, 48) in which the blanks are blown into so as to form them into containers then the formed containers are internally degassed, - said steps are carried out according to a first cycle at a first rate, then, - in a second later cycle of steps applied at a second rate slower than the first rate, the steps are begun at the same instant as for the first cycle and a time delay (Tt) is added relative to the first cycle, during or after the degassing step, so that the second cycle is temporally extended relative to the first. - said steps are carried out according to a first cycle at a first rate, then, - in a second later cycle of steps applied at a second rate slower than the first rate, the steps are begun at the same instant as for the first cycle and a time delay (Tt) is added relative to the first cycle, during or after the degassing step, so that the second cycle is temporally extended relative to the first.
A method for supporting image processing for a movable object, comprising: acquiring one or more images captured by an imaging device borne by the movable object, wherein the imaging device is at least partially blocked by an obstructive object attached to the movable object, such that at least one image captured by the imaging device includes at least a portion of the obstructive object; applying a template (640, 852) to the one or more images to obtain one or more locations of the obstructive object within the one or more images; and detecting the at least a portion of the obstructive object at the one or more locations within the one or more images, wherein the template (640, 852) includes a pattern representing the one or more locations of the at least a portion of the obstructive object during a rotational motion of the obstructive object, and wherein the pattern comprises one or more lines (822, 824, 826, 828, 830) respectively representing the one or more locations of the obstructive object during the rotational motion, each line associated with a rotation angle of a corresponding location, and wherein the template (640, 852) comprises a first group of markers (831, 832, 833, 834, 854, 856) distributed on the one or more lines (822, 824, 826, 828, 830), wherein markers distributed on a respective line comprise a first set of markers located at centers of stripes on the obstructive object, and a second set of markers located at centers of intervals between two adjacent stripes on the obstructive object. acquiring one or more images captured by an imaging device borne by the movable object, wherein the imaging device is at least partially blocked by an obstructive object attached to the movable object, such that at least one image captured by the imaging device includes at least a portion of the obstructive object; applying a template (640, 852) to the one or more images to obtain one or more locations of the obstructive object within the one or more images; and detecting the at least a portion of the obstructive object at the one or more locations within the one or more images, wherein the template (640, 852) includes a pattern representing the one or more locations of the at least a portion of the obstructive object during a rotational motion of the obstructive object, and wherein the pattern comprises one or more lines (822, 824, 826, 828, 830) respectively representing the one or more locations of the obstructive object during the rotational motion, each line associated with a rotation angle of a corresponding location, and wherein the template (640, 852) comprises a first group of markers (831, 832, 833, 834, 854, 856) distributed on the one or more lines (822, 824, 826, 828, 830), wherein markers distributed on a respective line comprise a first set of markers located at centers of stripes on the obstructive object, and a second set of markers located at centers of intervals between two adjacent stripes on the obstructive object.
A method for detecting the presence of an electrical current and/or voltage, comprising providing a detection means to detect a physical effect associated with the presence of the electrical current and/or voltage; providing an evaluation means for converting a detection signal generated in the presence of an electrical current and/or electrical voltage into an evaluation signal; providing an output means for converting the evaluation signal into an output signal; wherein the method comprises the detection of a sound associated with the presence of the electrical current and/or the electrical voltage, the sound comprises body sound, and the method comprises non-contact detection; characterized in that: the detection means and the output means are comprised by a portable apparatus. providing a detection means to detect a physical effect associated with the presence of the electrical current and/or voltage; providing an evaluation means for converting a detection signal generated in the presence of an electrical current and/or electrical voltage into an evaluation signal; providing an output means for converting the evaluation signal into an output signal; wherein the method comprises the detection of a sound associated with the presence of the electrical current and/or the electrical voltage, the sound comprises body sound, and the method comprises non-contact detection; characterized in that: the detection means and the output means are comprised by a portable apparatus.
A lead-free and cadmium-free dielectric composition comprising a solids portion, the solids portion comprising: from about 47.8 wt% to about 61.3 wt% BaZrOs; from about 39.4 wt% to about 53.6 wt% SrZrOs; from about 1.2 wt% to about 3.6 wt% CaTiOs; from about 0.1 wt% to about 2.14 wt% Mg 2; and from about 0.1 wt% to about 1.78 wt% H 3 BO 3. from about 47.8 wt% to about 61.3 wt% BaZrOs; from about 39.4 wt% to about 53.6 wt% SrZrOs; from about 1.2 wt% to about 3.6 wt% CaTiOs; from about 0.1 wt% to about 2.14 wt% Mg 2; and from about 0.1 wt% to about 1.78 wt% H 3 BO 3.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: selecting a suitable cell on a base station, BS, providing multiple beams; measuring quality of the multiple beams; receiving, from the BS through the multiple beams, scheduling information for multimedia broadcast multicast service, MBMS, control information related to each of multiple beams, respectively; selecting a beam among the multiple beams based on the measured quality; transmitting, to the BS through L1 uplink control information or an MAC control element, an MBMS control information request message including a beam index indicating the selected beam; and receiving, from the BS, the MBMS control information through the selected beam in response to the MBMS control information request message based on the received scheduling information. selecting a suitable cell on a base station, BS, providing multiple beams; measuring quality of the multiple beams; receiving, from the BS through the multiple beams, scheduling information for multimedia broadcast multicast service, MBMS, control information related to each of multiple beams, respectively; selecting a beam among the multiple beams based on the measured quality; transmitting, to the BS through L1 uplink control information or an MAC control element, an MBMS control information request message including a beam index indicating the selected beam; and receiving, from the BS, the MBMS control information through the selected beam in response to the MBMS control information request message based on the received scheduling information.
A cartridge (1, 2, 3) for use with an apparatus configured to heat smokable material and thereby volatilize at least one component of the smokable material, the cartridge (1, 2, 3) comprising: a container that defines a cavity; smokable material disposed in the cavity, wherein the cavity comprises up to 1 gram of the smokable material; and heatable heater material that is configured to, in use, be heated by penetration of a varying magnetic field and to thereby heat the smokable material and volatilize at least one component thereof; wherein the heatable heater material is a body in the form of a mesh. a container that defines a cavity; smokable material disposed in the cavity, wherein the cavity comprises up to 1 gram of the smokable material; and heatable heater material that is configured to, in use, be heated by penetration of a varying magnetic field and to thereby heat the smokable material and volatilize at least one component thereof; wherein the heatable heater material is a body in the form of a mesh.
An isolated chimeric molecule comprising a human monoclonal antibody or an antigen-binding fragment thereof comprising a heavy chain variable region and a light chain variable region, wherein the heavy chain variable region comprises amino acids 26-33 of SEQ ID NO: 1, amino acids 51-58 of SEQ ID NO: 1, amino acids 97-103 of SEQ ID NO: 1 and wherein the light chain variable region comprises amino acids 27-32 of SEQ ID NO: 2, amino acids 50-52 of SEQ ID NO: 2, amino acids 89-97 of SEQ ID NO: 2, wherein the human monoclonal antibody or antigen binding fragment specifically binds human endoplasmin, and wherein the human monoclonal antibody or antigen binding fragment thereof is joined to an effector molecule, wherein the effector molecule is an interferon.
A polycrystalline diamond cutting element, comprising: a polycrystalline diamond table formed with a cavity in a back side surface thereof; and a supporting substrate secured to the polycrystalline diamond table, a protrusion of the supporting substrate extending into, and at least partially filling at least a portion of the cavity; characterised in that the cavity and the protrusion are configured so the protrusion will contact a surface of the cavity before the back side surface contacts the supporting substrate. a polycrystalline diamond table formed with a cavity in a back side surface thereof; and a supporting substrate secured to the polycrystalline diamond table, a protrusion of the supporting substrate extending into, and at least partially filling at least a portion of the cavity; characterised in that the cavity and the protrusion are configured so the protrusion will contact a surface of the cavity before the back side surface contacts the supporting substrate.
Closing system for large and small bottles with the particularity of being a single piece that acts as a cap or closing, integrated by three parts: a cover, a screw and an elastic part. The first two are made of a rigid material and the third one overpressed on them; all of them are manufactured using a food grade material, said closing system characterised by: - a cover covering the opening of the bottle and it having a narrowing of the material at one of the diameters defining two covering half fins that, starting at the top of the cover stem out from a neck that enters the bottle opening. Inside this neck there is an inner threaded hole and outside there is a lip that defines a circular groove. The neck ends with an inverted tapered shape. The interior of the inner threaded hole is joined to the screw part opposite its head by a fine strip of material. This joint between the inner threaded hole and the screw will break when the screw is fastened inside the inner threaded hole of the neck: - the screw has a drive shape on its head that allows using a tool to fasten the screw to the inner threaded hole. In addition, the head of the screw has a clamping line on the elastic part. - the elastic part is overpressed on the cover and the screw from the lip to the clamping line and it has some perimeter grooves so when the threaded part of the screw is inserted into the inner threaded hole in the neck, the elastic part is compressed and it attaches to the lip of the neck by a fastening ring. This opens the grooves of the elastic part with a suction effect and the piece is attached to the walls of the bottleneck. - a cover covering the opening of the bottle and it having a narrowing of the material at one of the diameters defining two covering half fins that, starting at the top of the cover stem out from a neck that enters the bottle opening. Inside this neck there is an inner threaded hole and outside there is a lip that defines a circular groove. The neck ends with an inverted tapered shape. The interior of the inner threaded hole is joined to the screw part opposite its head by a fine strip of material. This joint between the inner threaded hole and the screw will break when the screw is fastened inside the inner threaded hole of the neck: - the screw has a drive shape on its head that allows using a tool to fasten the screw to the inner threaded hole. In addition, the head of the screw has a clamping line on the elastic part. - the elastic part is overpressed on the cover and the screw from the lip to the clamping line and it has some perimeter grooves so when the threaded part of the screw is inserted into the inner threaded hole in the neck, the elastic part is compressed and it attaches to the lip of the neck by a fastening ring. This opens the grooves of the elastic part with a suction effect and the piece is attached to the walls of the bottleneck.
An expandable introducer sheath for use in inserting a medical device into a body vessel of a patient comprising: a body extending from a proximal end to a distal end along an axis A; said body including an inner layer, an outer layer, and an expandable reinforcement member disposed between said inner and outer layers; said expandable reinforcement member configured to radially expand as the medical device is axially advanced or retracted through the introducer sheath; characterized in that said expandable reinforcement member includes a plurality of struts disposed in spaced relationship to one another and each extending longitudinally between said proximal and distal ends (16, 18) and a plurality of linkages each extending radially between adjacent struts. a body extending from a proximal end to a distal end along an axis A; said body including an inner layer, an outer layer, and an expandable reinforcement member disposed between said inner and outer layers; said expandable reinforcement member configured to radially expand as the medical device is axially advanced or retracted through the introducer sheath; characterized in that said expandable reinforcement member includes a plurality of struts disposed in spaced relationship to one another and each extending longitudinally between said proximal and distal ends (16, 18) and a plurality of linkages each extending radially between adjacent struts.