mhurhangee/patent-ind-claim-en huggingface dataset:
Tyre having a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers of reinforcing elements , a layer (C) of rubber compound being arranged between at least the ends of said at least two working crown layers , said crown reinforcement being capped radially with a tread , said tread being joined to two beads via two sidewalls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements , said tread comprising a tread surface intended to come into contact with a road surface and form a contact surface, the tensile modulus of elasticity at 10% elongation of the layer (C) being greater than 9 MPa, the measurement of said modulus being performed under tension according to standard AFNOR-NFT-46002 of September 1988 in normal temperature and relative humidity conditions according to standard AFNOR-NFT-40101 of December 1979, the maximum value of tan(δ), denoted tan(δ) max , of the layer (C) being less than 0.100, the measurement of tan(δ) being performed according to Standard ASTM D 5992-96, characterized in that said tread consists of at least one central part extending at least in the region of the equatorial plane and two axially exterior parts and has, at least in said central part, at least one longitudinally-oriented cut and at least one transversely-oriented cut , a longitudinally-oriented cut being a cut in which the mean plane of at least a portion of the walls of said at least one cut forms an angle with a longitudinal plane of less than 10°, a transversely-oriented cut being a cut in which the mean plane of at least a portion of the walls of said at least one cut forms an angle with a radial plane of less than 35°, in that the depth, measured on a new tyre in at least said central part, of said at least one longitudinally-oriented cut is greater than or equal to 40% of the thickness of the tread, in that the ratio of the width (D f ) measured at the bottom of said at least one longitudinally-oriented cut to the width (ds) measured at the surface of the tread on a new tyre of said at least one longitudinally-oriented cut is greater than 1.2, in that the depth, measured on a new tyre in at least said central part, of said at least one transversely-oriented cut is greater than or equal to 40% of the thickness of the tread, and in that the ratio of the width (D' f ) measured at the bottom of said at least one transversely-oriented cut to the width (d's) measured at the surface of the tread on a new tyre of said at least one transversely-oriented cut is greater than or equal to 1.
A power conversion device for use in an electric rolling stock to convert alternating-current (AC) power taken from a contact line system and decreased in voltage by a transformer to direct-current (DC) power by controlling switching of multiple power semiconductor elements (111-114, 201-208) in which a parasitic diode is used as a circulation diode, the power conversion device comprising: a control unit to control driving of the multiple power semiconductor elements (111-114, 201-208); and a DC stage capacitor connected between a positive DC terminal and a negative DC terminal for output of DC power to which the AC power is converted; characterized in that : the power conversion device is operable in a converter mode in which AC power is converted to DC power by pulse width modulation and a rectification mode in which AC power is converted to DC power by bridge rectification; wherein, in the rectification mode the control unit is configured to apply a predetermined voltage pulse causing the power semiconductor elements (111-114, 201-208) to conduct current in a reverse direction for conversion of the AC current to DC current to the power semiconductor elements (111-114, 201-208), without exerting PWM control of the switching; when the power conversion device is operated in the rectification mode, the control unit is configured to apply the predetermined voltage pulse to the power semiconductor elements (111-114, 201-208) when the absolute value of the voltage of the AC power from the transformer exceeds the amplitude of the voltage of the DC stage capacitor ; and the power conversion device is configured to operate in the rectification mode when the electric rolling stock is at a stop and in the converter mode when the electric rolling stock is moving. a control unit to control driving of the multiple power semiconductor elements (111-114, 201-208); and a DC stage capacitor connected between a positive DC terminal and a negative DC terminal for output of DC power to which the AC power is converted; the power conversion device is operable in a converter mode in which AC power is converted to DC power by pulse width modulation and a rectification mode in which AC power is converted to DC power by bridge rectification; wherein, in the rectification mode the control unit is configured to apply a predetermined voltage pulse causing the power semiconductor elements (111-114, 201-208) to conduct current in a reverse direction for conversion of the AC current to DC current to the power semiconductor elements (111-114, 201-208), without exerting PWM control of the switching; when the power conversion device is operated in the rectification mode, the control unit is configured to apply the predetermined voltage pulse to the power semiconductor elements (111-114, 201-208) when the absolute value of the voltage of the AC power from the transformer exceeds the amplitude of the voltage of the DC stage capacitor ; and the power conversion device is configured to operate in the rectification mode when the electric rolling stock is at a stop and in the converter mode when the electric rolling stock is moving.
A CT security inspection system for baggage, the CT security inspection system comprising: a scanning passage, through which a baggage enters and exits the CT security inspection system for baggage; an X-ray source comprising a target provided at one side of the scanning passage; a plurality of detector units , wherein each detector unit of the plurality of detector units comprises two or more detector crystals; and a gantry provided at an opposite side of the scanning passage, and on which the plurality of detector units are mounted; wherein, in each of all the plurality of detector units , a vertex point of at least one detector crystal receiving face of the two or more detector crystals is positioned in a detector unit distribution circle centered at a center of the scanning passage, and all the plurality of detector units mounted on the gantry are arranged successively in which one is adjacent to another; and the detector crystal receiving faces of all the plurality of detector units are within a scope of radiating ray beams with their center at the target of the X-ray source , and, in each of all the plurality of detector units , a connection line between a midpoint of at least one of the detector crystal receiving faces and the target of the X-ray source is normal to the corresponding detector crystal receiving face . a scanning passage, through which a baggage enters and exits the CT security inspection system for baggage; an X-ray source comprising a target provided at one side of the scanning passage; a plurality of detector units , wherein each detector unit of the plurality of detector units comprises two or more detector crystals; and a gantry provided at an opposite side of the scanning passage, and on which the plurality of detector units are mounted; wherein, in each of all the plurality of detector units , a vertex point of at least one detector crystal receiving face of the two or more detector crystals is positioned in a detector unit distribution circle centered at a center of the scanning passage, and all the plurality of detector units mounted on the gantry are arranged successively in which one is adjacent to another; and the detector crystal receiving faces of all the plurality of detector units are within a scope of radiating ray beams with their center at the target of the X-ray source , and, in each of all the plurality of detector units , a connection line between a midpoint of at least one of the detector crystal receiving faces and the target of the X-ray source is normal to the corresponding detector crystal receiving face .
A wet-cleaning appliance , in particular a wet mop, having a cleaning roller mounted so that it can rotate around a roller axis , and a roller cover that at least partially encloses the cleaning roller in a circumferential direction, which has at least one displaceable covering element for optionally closing and/or releasing an opening region of the roller cover , wherein the displaceable covering element is coupled with the cleaning roller by a gear mechanism , in particular a toothed gear mechanism, in such a way that the cleaning roller can be displaced by displacing the covering element , or the covering element can be displaced by displacing the cleaning roller , characterized in that the covering element is displaceable in a circumferential direction of the cleaning roller around a covering axis .
A wire harness (WH) comprising: a flexible conductor connecting to each other a vehicle body part of a vehicle and a movable body installed in the vehicle and configured to slide along the vehicle body ; a flexible restricting member extending along the conductor and restricting a path of the conductor ; a flexible armoring member through which the conductor and the restricting member are inserted; a first holding member including a first recessed part and fixed to the vehicle body , the first recessed part having a first end of the restricting member inserted therein; and a second holding member including a second recessed part and fixed to the movable body , the second recessed part having a second end of the restricting member inserted therein, wherein respective ends of the armoring member are fixed to the first holding member and the second holding member , and the respective ends of the restricting member are held by the first recessed part and the second recessed part , characterized in that the first recessed part and the second recessed part allow the ends of the restricting member to displace along longitudinal directions of the restricting member , and depths (Dp) of the first recessed part and the second recessed part in the longitudinal directions of the restricting member are larger than largest possible amounts by which the ends of the restricting member are displaced when the restricting member moves inside the armoring member . a flexible conductor connecting to each other a vehicle body part of a vehicle and a movable body installed in the vehicle and configured to slide along the vehicle body ; a flexible restricting member extending along the conductor and restricting a path of the conductor ; a flexible armoring member through which the conductor and the restricting member are inserted; a first holding member including a first recessed part and fixed to the vehicle body , the first recessed part having a first end of the restricting member inserted therein; and a second holding member including a second recessed part and fixed to the movable body , the second recessed part having a second end of the restricting member inserted therein, wherein respective ends of the armoring member are fixed to the first holding member and the second holding member , and the respective ends of the restricting member are held by the first recessed part and the second recessed part , characterized in that the first recessed part and the second recessed part allow the ends of the restricting member to displace along longitudinal directions of the restricting member , and depths (Dp) of the first recessed part and the second recessed part in the longitudinal directions of the restricting member are larger than largest possible amounts by which the ends of the restricting member are displaced when the restricting member moves inside the armoring member .
A method performed by a second base station in a wireless communication system, the method comprising: receiving (S602), from a user equipment, UE, a random access preamble; transmitting (S604), to the UE, a response message to the random access preamble; receiving (S606), from the UE, a radio resource control, RRC, connection request message including an existing first ID, the first ID being identification information on the UE allocated by a first base station; determining (S608) whether the second base station has UE context corresponding to the first ID received from the UE; when the second base station fails to discover the UE context, allocating (S610) a second ID to the UE as part of new UE context instead of the first ID; transmitting (S612), to the UE, an RRC connection setup message including the second ID; receiving (S614), from the UE, an RRC connection setup complete message including a non-access stratum, NAS, service request message, in response to the RRC connection setup message; transmitting (S616), to a mobility management, MM, entity an initial UE message including the first ID and the second ID of the UE, the first ID indicating that the UE context corresponding to the first ID is stored in the first base station, and the second ID indicating that the new UE context is stored in the second base station . receiving (S602), from a user equipment, UE, a random access preamble; transmitting (S604), to the UE, a response message to the random access preamble; receiving (S606), from the UE, a radio resource control, RRC, connection request message including an existing first ID, the first ID being identification information on the UE allocated by a first base station; determining (S608) whether the second base station has UE context corresponding to the first ID received from the UE; when the second base station fails to discover the UE context, allocating (S610) a second ID to the UE as part of new UE context instead of the first ID; transmitting (S612), to the UE, an RRC connection setup message including the second ID; receiving (S614), from the UE, an RRC connection setup complete message including a non-access stratum, NAS, service request message, in response to the RRC connection setup message; transmitting (S616), to a mobility management, MM, entity an initial UE message including the first ID and the second ID of the UE, the first ID indicating that the UE context corresponding to the first ID is stored in the first base station, and the second ID indicating that the new UE context is stored in the second base station .
Data cable for high-speed data transmissions having at least one core pair comprised of two cores , which are surrounded by a film-like pair shield , wherein the pair shield is provided with an inner shielding film and an outer shielding film and the two shielding films are in mutual electrical contact, and the inner shielding film is wound around the core pair , the outer shielding film is wound around the inner shielding film in a gapped arrangement, characterized in that the gapped arrangement lies within a range from 1 to 10% of the width of the outer shielding film and in that the inner shielding film is wound with an overlap within a range between 20% and 40% of the width (B) of the inner shielding film .
Filter material for the adsorption of phosphate, comprising: - 50 to 90 % by weight of grit with a grain size of 1 to 20 mm; - 1 to 25 % by weight of one or more oxides and/or hydroxides of Fe, La and/or Al; - 1 to 12 % by weight of cement; - 0.1 to 5 % by weight of fast-setting binder; and - 1 to 10 % by weight of water; in each case in relation to the total weight of the filter material. - 50 to 90 % by weight of grit with a grain size of 1 to 20 mm; - 1 to 25 % by weight of one or more oxides and/or hydroxides of Fe, La and/or Al; - 1 to 12 % by weight of cement; - 0.1 to 5 % by weight of fast-setting binder; and - 1 to 10 % by weight of water;
A pacemaker comprising: a pulse detector circuit configured to detect pacing pulses delivered by another medical device and produce a pulse detect signal in response to each one of the detected pacing pulses; a control circuit configured to: determine a pulse detect interval between two pulse detect signals consecutively received from the pulse detector circuit; set a first pacing escape interval based on the pulse detect interval less a pre-interval; and a pulse generator configured to deliver a first pacing pulse upon expiration of the first pacing escape interval, characterised by the control circuit being further configured to: set at least one time window after the delivered first pacing pulse; determine whether a next pulse detect signal is received from the pulse detector circuit during the time window; select a first response for controlling delivery of a second pacing pulse in response to the next pulse detect signal being received during the time window; and select a second response for controlling delivery of the second pacing pulse in response to the next pulse detect signal being received outside the time window, the second response different than the first response. a pulse detector circuit configured to detect pacing pulses delivered by another medical device and produce a pulse detect signal in response to each one of the detected pacing pulses; a control circuit configured to: determine a pulse detect interval between two pulse detect signals consecutively received from the pulse detector circuit; set a first pacing escape interval based on the pulse detect interval less a pre-interval; and determine a pulse detect interval between two pulse detect signals consecutively received from the pulse detector circuit; set a first pacing escape interval based on the pulse detect interval less a pre-interval; and a pulse generator configured to deliver a first pacing pulse upon expiration of the first pacing escape interval, characterised by the control circuit being further configured to: set at least one time window after the delivered first pacing pulse; determine whether a next pulse detect signal is received from the pulse detector circuit during the time window; select a first response for controlling delivery of a second pacing pulse in response to the next pulse detect signal being received during the time window; and select a second response for controlling delivery of the second pacing pulse in response to the next pulse detect signal being received outside the time window, the second response different than the first response. set at least one time window after the delivered first pacing pulse; determine whether a next pulse detect signal is received from the pulse detector circuit during the time window; select a first response for controlling delivery of a second pacing pulse in response to the next pulse detect signal being received during the time window; and select a second response for controlling delivery of the second pacing pulse in response to the next pulse detect signal being received outside the time window, the second response different than the first response.
A connector comprising: a resin housing configured to be assembled to a wall portion of a box-shaped body that is an attachment target; and a pair of bus bars , each bus bar including a body portion insert-molded and held in the housing and a fastened portion that is disposed on an inner side of the box-shaped body with respect to the wall portion and is configured to be connected to a terminal fitting by fastening using a bolt , wherein the body portion of the bus bars includes a portion at which an exposed portion that is exposed to an outside of the housing without being covered with a resin constituting the housing is configured to be provided on an inner side of the box-shaped body with respect to the wall portion , wherein the body portion of the bus bars has, in the exposed portion, a recessed portion recessed downward formed at an upper edge of a portion adjacent to a rear side of the fastened portion characterized in that a lower edge is positioned directly below the recessed portion , wherein the fastened portion of one of the pair of bus bars is bent from a front end portion of the body portion and extends rightward, and the fastened portion of the other of the pair of bus bars is bent from a front end portion of the body portion and extends leftward, wherein the fastened portion of one of the pair of bus bars and the fastened portion of the other of the pair of bus bars are disposed so as to be offset from each other in an up-down direction which is perpendicular to an axis line of the body portion being different with each other. a resin housing configured to be assembled to a wall portion of a box-shaped body that is an attachment target; and a pair of bus bars , each bus bar including a body portion insert-molded and held in the housing and a fastened portion that is disposed on an inner side of the box-shaped body with respect to the wall portion and is configured to be connected to a terminal fitting by fastening using a bolt , wherein the body portion of the bus bars includes a portion at which an exposed portion that is exposed to an outside of the housing without being covered with a resin constituting the housing is configured to be provided on an inner side of the box-shaped body with respect to the wall portion , wherein the body portion of the bus bars has, in the exposed portion, a recessed portion recessed downward formed at an upper edge of a portion adjacent to a rear side of the fastened portion characterized in that a lower edge is positioned directly below the recessed portion , wherein the fastened portion of one of the pair of bus bars is bent from a front end portion of the body portion and extends rightward, and the fastened portion of the other of the pair of bus bars is bent from a front end portion of the body portion and extends leftward, wherein the fastened portion of one of the pair of bus bars and the fastened portion of the other of the pair of bus bars are disposed so as to be offset from each other in an up-down direction which is perpendicular to an axis line of the body portion being different with each other.