mhurhangee/patent-ind-claim-en huggingface dataset:
A steering system comprising: a steering shaft coupled at its one end to a steering member ; a column jacket holding the steering shaft ; a bracket supporting the column jacket such that the column jacket is rotatable in a tilt direction, the bracket being secured to a vehicle body ; a movable member including a first tooth arrangement , the movable member being movable together with the column jacket in the tilt direction (C) and being movable in an intersecting direction intersecting the tilt direction (C) and an axial direction (X) of the steering shaft ; and a tooth member supported by the bracket so that the tooth member is located between the movable member and the bracket in the intersecting direction, the tooth member including a second tooth arrangement engageable with the first tooth arrangement , and the tooth member is characterized by including a curved elastic portion supporting the second tooth arrangement , with the second tooth arrangement inclined toward the bracket such that the second tooth arrangement is away from the first tooth arrangement , wherein the tooth member is configured so that the second tooth arrangement is in engagement with the first tooth arrangement , with the elastic portion being sandwiched between the movable member and the bracket and elastically deformed. a steering shaft coupled at its one end to a steering member ; a column jacket holding the steering shaft ; a bracket supporting the column jacket such that the column jacket is rotatable in a tilt direction, the bracket being secured to a vehicle body ; a movable member including a first tooth arrangement , the movable member being movable together with the column jacket in the tilt direction (C) and being movable in an intersecting direction intersecting the tilt direction (C) and an axial direction (X) of the steering shaft ; and a tooth member supported by the bracket so that the tooth member is located between the movable member and the bracket in the intersecting direction, the tooth member including a second tooth arrangement engageable with the first tooth arrangement , and the tooth member is characterized by including a curved elastic portion supporting the second tooth arrangement , with the second tooth arrangement inclined toward the bracket such that the second tooth arrangement is away from the first tooth arrangement , wherein a second tooth arrangement engageable with the first tooth arrangement , and the tooth member is characterized by including a curved elastic portion supporting the second tooth arrangement , with the second tooth arrangement inclined toward the bracket such that the second tooth arrangement is away from the first tooth arrangement , wherein the tooth member is configured so that the second tooth arrangement is in engagement with the first tooth arrangement , with the elastic portion being sandwiched between the movable member and the bracket and elastically deformed.
A fan motor comprising: an impeller including a hub connected to a rotary shaft and at least one blade disposed at an outer surface of the hub ; a shroud that surrounds an outer circumference of the impeller ; and a coating layer provided at an inner circumferential surface of the shroud , wherein the coating layer includes: a polymer , a hardness of the polymer being less than a hardness of the blade , and a plurality of beads mixed with the polymer , a hardness of the plurality of beads being greater than the hardness of the polymer , wherein the impeller is a centrifugal impeller, and wherein the blade includes polyether ether ketone, PEEK, and the polymer includes silicon-based resin, and the polymer has a hardness in a range from 30 Shore A to 50 Shore A. an impeller including a hub connected to a rotary shaft and at least one blade disposed at an outer surface of the hub ; a shroud that surrounds an outer circumference of the impeller ; and a coating layer provided at an inner circumferential surface of the shroud , wherein the coating layer includes: a polymer , a hardness of the polymer being less than a hardness of the blade , and a plurality of beads mixed with the polymer , a hardness of the plurality of beads being greater than the hardness of the polymer , wherein the impeller is a centrifugal impeller, and wherein a polymer , a hardness of the polymer being less than a hardness of the blade , and a plurality of beads mixed with the polymer , a hardness of the plurality of beads being greater than the hardness of the polymer , wherein the impeller is a centrifugal impeller, and wherein the blade includes polyether ether ketone, PEEK, and the polymer includes silicon-based resin, and the polymer has a hardness in a range from 30 Shore A to 50 Shore A.
External rotor for an electric machine, wherein the external rotor comprises a yoke component and multiple magnets which are arranged on an inner circumference of the yoke component , wherein the external rotor comprises a carrier component , on the inner circumference of which the yoke component is arranged, wherein an electrical conductivity (κ 20 ) of the yoke component is lower than an electrical conductivity (κ 10 ) of the carrier component , the yoke component comprises a soft magnetic powder compound substance and the multiple magnets are distributed over the entire inner circumference of the yoke component , characterised in that - the carrier component is manufactured from a fibre composite material, - the yoke component has webs , in the interspace of which the multiple magnets are arranged, - the multiple magnets are embodied as segmented magnets with a segmentation performed in the circumferential direction, - wherein the magnet segmentation is intended to reduce the eddy current losses and the warming inside the magnet body. - the carrier component is manufactured from a fibre composite material, - the yoke component has webs , in the interspace of which the multiple magnets are arranged, - the multiple magnets are embodied as segmented magnets with a segmentation performed in the circumferential direction, - wherein the magnet segmentation is intended to reduce the eddy current losses and the warming inside the magnet body.
Method for transmission channel selection in a multiantenna network radio connection that is used to transmit data by means of radio signals between a radio base station and a mobile terminal , wherein the radio base station and the mobile terminal each have at least two antennas that form a plurality of transmission paths for the radio connection and at least two transmission channels for the data transmission, which each use one or more of the transmission paths in accordance with a channel matrix, - the mobile terminal has at least one decoder that can be used to decode radio signals received from at least one of the terminal antennas to obtain the data, and - the transmission channel selection is used to decide which instance(s) of the transmission paths and which communication system technology are used to transmit the data between the radio base station and the mobile terminal , comprising the following steps: - the mobile radio base station uses the transmission paths to transmit mobile radio signals for first data to the mobile terminal using at least two different communication system technologies, - the mobile radio signals are supplied to the decoder on a transmission-channel-by-transmission-channel basis, - the decoder decodes the mobile radio signals and in so doing obtains the first data on a transmission-channel-by-transmission-channel basis, - the decoded first data are used on a transmission-channel-by-transmission-channel basis to form at least one quality value that is representative of a quality of the data transmission via the respective transmission channel, and - wherein the transmission channel is selected on the basis of a comparison of the quality values of the transmission channels, and the transmission channel selection is made for the subsequent transmission of second data that form useful data. - the mobile terminal has at least one decoder that can be used to decode radio signals received from at least one of the terminal antennas to obtain the data, and - the transmission channel selection is used to decide which instance(s) of the transmission paths and which communication system technology are used to transmit the data between the radio base station and the mobile terminal , - the mobile radio base station uses the transmission paths to transmit mobile radio signals for first data to the mobile terminal using at least two different communication system technologies, - the mobile radio signals are supplied to the decoder on a transmission-channel-by-transmission-channel basis, - the decoder decodes the mobile radio signals and in so doing obtains the first data on a transmission-channel-by-transmission-channel basis, - the decoded first data are used on a transmission-channel-by-transmission-channel basis to form at least one quality value that is representative of a quality of the data transmission via the respective transmission channel, and - wherein the transmission channel is selected on the basis of a comparison of the quality values of the transmission channels, and the transmission channel selection is made for the subsequent transmission of second data that form useful data.
A vehicle travel control apparatus, mounted on a host vehicle , which performs travel control of the host vehicle on the basis of a positional relationship between the host vehicle and a preceding vehicle traveling ahead of the host vehicle , the apparatus comprising: a radar detection unit that acquires target data of the preceding vehicle by receiving a reflected wave of an emitted electromagnetic wave; and characterized by comprising a control unit that determines presence or absence of a preceding vehicle traveling directly ahead of the host vehicle from the target data acquired by the radar detection unit and performs acceleration and deceleration control of the host vehicle on the basis of the presence or absence of the preceding vehicle, the control unit performing the acceleration and deceleration control of the host vehicle so as to suppress acceleration and deceleration when target misidentification occurs in which a plurality of pieces of target data are acquired with respect to the same object by the radar detection unit , wherein the control unit performs the acceleration and deceleration control of the host vehicle so as to suppress deceleration in a case where it is determined that the preceding vehicle is currently present and that a preceding vehicle was not previously present when the target misidentification occurs. a radar detection unit that acquires target data of the preceding vehicle by receiving a reflected wave of an emitted electromagnetic wave; and characterized by comprising a control unit that determines presence or absence of a preceding vehicle traveling directly ahead of the host vehicle from the target data acquired by the radar detection unit and performs acceleration and deceleration control of the host vehicle on the basis of the presence or absence of the preceding vehicle, the control unit performing the acceleration and deceleration control of the host vehicle so as to suppress acceleration and deceleration when target misidentification occurs in which a plurality of pieces of target data are acquired with respect to the same object by the radar detection unit , wherein the control unit performs the acceleration and deceleration control of the host vehicle so as to suppress deceleration in a case where it is determined that the preceding vehicle is currently present and that a preceding vehicle was not previously present when the target misidentification occurs.
A method for establishing a fast-forwarding table, comprising: when a communication packet is received, determining , according to matching rules of services set in a packet processing policy, a target service matching the communication packet; if a fast-forwarding table corresponding to the communication packet is not stored locally, obtaining , a preset target priority of the target service, and determining a target resource utilization threshold corresponding to the target priority according to a preset correspondence between priorities and resource utilization thresholds; determining , whether a current resource utilization is greater than the target resource utilization threshold; and establishing , a fast-forwarding table corresponding to the communication packet if the current resource utilization is not greater than the target resource utilization threshold. when a communication packet is received, determining , according to matching rules of services set in a packet processing policy, a target service matching the communication packet; if a fast-forwarding table corresponding to the communication packet is not stored locally, obtaining , a preset target priority of the target service, and determining a target resource utilization threshold corresponding to the target priority according to a preset correspondence between priorities and resource utilization thresholds; determining , whether a current resource utilization is greater than the target resource utilization threshold; and establishing , a fast-forwarding table corresponding to the communication packet if the current resource utilization is not greater than the target resource utilization threshold.
A dialysis machine comprising: a front door that can be opened to install disposable components including a) a manifold that is insertable into a space provided therefor in the dialysis machine , b) a dialyzer that is insertable into a designated recess, wherein the front door is provided with a plurality of pump shoes such that when the front door is closed, flexible tubing of the manifold becomes sandwiched between the pump shoes of the door and pump rollers of the dialysis machine and the flexible tubing is compressed against respective of the pump shoes by a respective of the pump rollers during operation, wherein each of the pump shoes comprises: a. a contact surface for receiving the tubing, wherein the contact surface has a degree of curvature matching the curvature of the pump roller and imparts a concave shape for receiving the flexible tubing as it is compressed by the pump roller; b. an attachment surface opposite the contact surface for attachment of the pump shoe to the door of the dialysis machine; and, c. two side walls opposite one another and perpendicular to the contact and attachment surfaces, wherein an edge of each side surface adjacent the contact surface extends outwardly beyond the contact surface, forming elevated side walls to contain the tubing and adapted to prevent lateral movement of the tubing along the contact surface during operation. a) a manifold that is insertable into a space provided therefor in the dialysis machine , b) a dialyzer that is insertable into a designated recess, a. a contact surface for receiving the tubing, wherein the contact surface has a degree of curvature matching the curvature of the pump roller and imparts a concave shape for receiving the flexible tubing as it is compressed by the pump roller; b. an attachment surface opposite the contact surface for attachment of the pump shoe to the door of the dialysis machine; and, c. two side walls opposite one another and perpendicular to the contact and attachment surfaces, wherein an edge of each side surface adjacent the contact surface extends outwardly beyond the contact surface, forming elevated side walls to contain the tubing and adapted to prevent lateral movement of the tubing along the contact surface during operation.
A valve actuator comprising: a variable speed motor ; a solid-state motor controller operably connected to the variable speed motor and configurable to operate the variable speed motor in a manner to provide a continuous valve stroke having a varying speed and varying torque profile; a braking device operably connected to the variable speed motor , the braking device comprised of a gear set ; a power converter configured to receive electrical input of any voltage from 24 VDC to 690 VAC from a power supply and to output an electrical supply to the solid-state motor controller , wherein the power converter is selected from the group comprising: a transformer, AC to DC converter, DC to DC converter, DC to AC inverter, phase converter, or a universal power converter; a universal field connection block operably connecting the power converter to the power supply , the universal field connection block including connecting devices to convey any commonly used voltage or current type delivered by the power supply to the power converter; and a housing , wherein the variable speed motor , the solid-state motor controller , the power converter , and the universal field connection block are integrated within the housing . a variable speed motor ; a solid-state motor controller operably connected to the variable speed motor and configurable to operate the variable speed motor in a manner to provide a continuous valve stroke having a varying speed and varying torque profile; a braking device operably connected to the variable speed motor , the braking device comprised of a gear set ; a power converter configured to receive electrical input of any voltage from 24 VDC to 690 VAC from a power supply and to output an electrical supply to the solid-state motor controller , wherein the power converter is selected from the group comprising: a transformer, AC to DC converter, DC to DC converter, DC to AC inverter, phase converter, or a universal power converter; a universal field connection block operably connecting the power converter to the power supply , the universal field connection block including connecting devices to convey any commonly used voltage or current type delivered by the power supply to the power converter; and a housing , wherein the variable speed motor , the solid-state motor controller , the power converter , and the universal field connection block are integrated within the housing .
Preform for making a component of a braking system, consisting of a fibre-reinforced ceramic composite material, obtained by forming and subsequent pyrolysis of a pre-preg, wherein said pre-preg consists of a fibrous mass impregnated with a polymeric binder composition based on one or more resins selected from the group consisting of siloxane resins and silsesquioxane resins, said siloxane resins comprising polysiloxanes and said silsesquioxane resins comprising polysilsesquioxanes, wherein said polymeric binder composition appears as a liquid having viscosity of between 55000 and 10000 mPAs at temperatures of between 50°C and 70°C, wherein said fibre-reinforced ceramic composite material comprises a ceramic or partially ceramic matrix, which develops itself in the interstices of the fibrous mass and comprises silicon carbide and amorphous structures consisting of Si-O-C chains, said silicon carbide and said Si-O-C chains having been generated by a pyrolysis process on said polysiloxanes and/or said polysilsesquioxanes, said fibre-reinforced ceramic composite material having a porosity generated by the pyrolysis on the polymeric binder composition of the pre-preg, characterised in that said polymeric binder composition only comprises resins selected from the group consisting of siloxane resins and silsesquioxane resins and does not comprise organic resins.
A portable enteral feeding apparatus comprising a pouch which defines a reservoir for enteral fluid and having an outlet for delivery of enteral fluid from the pouch, the pouch being formed by an expansile element having an expanded filled configuration and a collapsed configuration, the expansion of the expansile element providing the sole force under which enteral fluid is delivered from the pouch, the apparatus further comprising a substantially gas impermeable barrier surrounding the pouch, characterized in that , the apparatus further comprises a regulator for regulating the flow of enteral fluid from the pouch, wherein the regulator comprises a friction regulator comprising a plurality of coiled tubes .
A communication system comprising an MME , eNBs and UE , wherein: the eNBs are configured to transmit an S1 setup request message including information about own one or more communication functions to the MME under a state where S1 connection has not been established between each of the eNBs and the MME ; the MME comprises a storage unit storing a first table (103-1) for the one or more communication functions of the eNBs associated with eNB IDs; and the MME is configured to: when it receives the S1 setup request message from the eNBs , store the communication function(s) in the first table (103-1); and when it receives an incoming request to the UE transmitted by an MTC-Inter Working Function, refer to UE location registration information and determine candidate eNBs having cells where the UE is allocated, then select an eNB capable of using a communication function supported by the UE among the candidate eNBs with reference to the first table (103-1), and then transmit a paging message to the selected eNB; and the eNB, having received the paging message transmitted by the MME , being configured to transmit a paging message to own cells. the eNBs are configured to transmit an S1 setup request message including information about own one or more communication functions to the MME under a state where S1 connection has not been established between each of the eNBs and the MME ; the MME comprises a storage unit storing a first table (103-1) for the one or more communication functions of the eNBs associated with eNB IDs; and the MME is configured to: when it receives the S1 setup request message from the eNBs , store the communication function(s) in the first table (103-1); and when it receives an incoming request to the UE transmitted by an MTC-Inter Working Function, refer to UE location registration information and determine candidate eNBs having cells where the UE is allocated, then select an eNB capable of using a communication function supported by the UE among the candidate eNBs with reference to the first table (103-1), and then transmit a paging message to the selected eNB; and comprises a storage unit storing a first table (103-1) for the one or more communication functions of the eNBs associated with eNB IDs; and the MME is configured to: when it receives the S1 setup request message from the eNBs , store the communication function(s) in the first table (103-1); and when it receives an incoming request to the UE transmitted by an MTC-Inter Working Function, refer to UE location registration information and determine candidate eNBs having cells where the UE is allocated, then select an eNB capable of using a communication function supported by the UE among the candidate eNBs with reference to the first table (103-1), and then transmit a paging message to the selected eNB; and the eNB, having received the paging message transmitted by the MME , being configured to transmit a paging message to own cells.