mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device delivery system (10; 100), comprising: a sheath (12; 102) having a wall comprising an inner surface and an outer surface, the inner surface defining a lumen along the sheath (12; 102), an access opening (30; 106) in a proximal portion of the wall and in fluid communication with the lumen; a delivery member (29; 120) at least partially disposed within the lumen, the delivery member (28; 120) passing through the access opening (30; 106); and a lock (26; 118) slidably disposed on an outer periphery of the wall, the lock (26; 118) slidably moveable from a first position to a second position along a longitudinal axis of the sheath (12; 102); characterised by a first marker (22; 114) disposed proximal the access opening (30; 106) on the outer surface, the first marker (22; 114) protruding radially outwardly from the sheath (12; 102), the first marker (22; 114) limiting movement of the lock (26; 118) towards a proximal end of the sheath (12; 102); wherein the first marker (22; 114) is positioned such that, when the lock (26; 118) is in the first position, the lock (26; 118) covers the access opening (30; 106) and restricts movement of the delivery member (29; 120) relative to the sheath (12; 102). a sheath (12; 102) having a wall comprising an inner surface and an outer surface, the inner surface defining a lumen along the sheath (12; 102), an access opening (30; 106) in a proximal portion of the wall and in fluid communication with the lumen; a delivery member (29; 120) at least partially disposed within the lumen, the delivery member (28; 120) passing through the access opening (30; 106); and a lock (26; 118) slidably disposed on an outer periphery of the wall, the lock (26; 118) slidably moveable from a first position to a second position along a longitudinal axis of the sheath (12; 102); characterised by a first marker (22; 114) disposed proximal the access opening (30; 106) on the outer surface, the first marker (22; 114) protruding radially outwardly from the sheath (12; 102), the first marker (22; 114) limiting movement of the lock (26; 118) towards a proximal end of the sheath (12; 102); wherein the first marker (22; 114) is positioned such that, when the lock (26; 118) is in the first position, the lock (26; 118) covers the access opening (30; 106) and restricts movement of the delivery member (29; 120) relative to the sheath (12; 102).
An electronically commutated motor with a shaft , a commutation electronics (K) and a device for detecting a temperature rise, which is integrated on the shaft of the electronically commutated motor equipped with the commutation electronics (K) and formed to initiate a change of an electromotive force (EMK) of the electronically commutated motor which can be detected by the commutation electronics (K) of the electronically commutated motor when reaching a defined temperature T G , wherein the device is formed from an at least two-part cogging torque unit which consists of at least one ring element which is attached around the shaft of the motor and an element rotating with the shaft , wherein the at least one ring element and the element rotating with the shaft are arranged with regard to one another so that in case of a certain temperature rise at least one of the two elements experiences a volume change and creates a mechanical cogging torque due to mechanical friction with the respective other element as intended which leads to a detectable change of the electromotive force (EMK) of the electronically commutated motor due to which a certain temperature rise is sensed. wherein the device is formed from an at least two-part cogging torque unit which consists of at least one ring element which is attached around the shaft of the motor and an element rotating with the shaft , wherein the at least one ring element and the element rotating with the shaft are arranged with regard to one another so that in case of a certain temperature rise at least one of the two elements experiences a volume change and creates a mechanical cogging torque due to mechanical friction with the respective other element as intended which leads to a detectable change of the electromotive force (EMK) of the electronically commutated motor due to which a certain temperature rise is sensed.
Horizontal wood splitter, having a working area which is delimited by a fixed splitting tool and a displaceable pressure plate opposite thereto, and having a protection housing which is assigned to the working area and comprises several housing parts which can be moved towards each other, by means of which the working area of the splitter can be shielded from the outside for carrying out a splitting operation and can be partially exposed for the insertion and removal of splitting material, characterized in that the protection housing is of tunnel-shaped design, is subdivided over its length and can be extended and shortened telescopically in the working direction of the splitter.
A bellows valve comprising: - a first bellows connected to a first cap member at one end and to a first side of a support member at the other end; and - a second bellows connected to a second cap member at one end and to a second side of said support member at the other end; - thereby forming respective first and second bellows cavities (15a,b) inside each bellows; and - an orifice arranged to fluidly interconnect the first and second bellows cavities and formed in the support member ; and - a bellows-internal valve device arranged to selectively open and close the orifice , wherein the bellows-internal valve device comprises first and second valve sealing elements (19a,b) arranged to selectively mate with respective first and second valve seats (14a,b) to close the orifice , and the valve sealing elements (19a,b) are interconnected via a connecting member , which extends through the orifice , and wherein the bellows-internal valve device comprises first and second resilient members (20a,b) arranged on the respective first and second sides (11a,b) of the support member and having respective portions being coupled to respective first and second holding members (18a,b) on the valve device . - a first bellows connected to a first cap member at one end and to a first side of a support member at the other end; and - a second bellows connected to a second cap member at one end and to a second side of said support member at the other end; - thereby forming respective first and second bellows cavities (15a,b) inside each bellows; and - an orifice arranged to fluidly interconnect the first and second bellows cavities and formed in the support member ; and - a bellows-internal valve device arranged to selectively open and close the orifice , wherein the bellows-internal valve device comprises first and second valve sealing elements (19a,b) arranged to selectively mate with respective first and second valve seats (14a,b) to close the orifice , and the valve sealing elements (19a,b) are interconnected via a connecting member , which extends through the orifice , and wherein the bellows-internal valve device comprises first and second resilient members (20a,b) arranged on the
A magnetic sensing device , comprising: a magnetic multi-turn sensor configured to detect a number of turns of a rotating magnetic field; an angle sensor configured to detect an orientation of the rotating magnetic field, the angle sensor configured to detect angles in a range from 0 to 180 degrees; and a quadrant detector comprising at least two magnetoresistive elements (R1-R16), the quadrant detector being configured to detect a quadrant of a magnetic field angle of the rotating magnetic field. a magnetic multi-turn sensor configured to detect a number of turns of a rotating magnetic field; an angle sensor configured to detect an orientation of the rotating magnetic field, the angle sensor configured to detect angles in a range from 0 to 180 degrees; and a quadrant detector comprising at least two magnetoresistive elements (R1-R16), the quadrant detector being configured to detect a quadrant of a magnetic field angle of the rotating magnetic field.
A method for predicting content based recommendations, comprising: recognizing, by a first electronic device in a first IoT network , content displayed on a display of the first electronic device ; displaying, on the display of the first electronic device , at least one recommendation corresponding to the recognized content based on a history of user activities performed by a user using at least one of the first electronic device and other electronic devices (100B-100F) in the first IoT network ; detecting, by the first electronic device , user input for selecting the at least one recommendation; and sending, by the first electronic device , a message including the at least one selected recommendation to a second IoT network , characterized in that : the message comprises control configuration for setting of a second electronic device in a second IoT network , and in that the control configuration is previously determined and stored by the first electronic device based on the history of user activities. recognizing, by a first electronic device in a first IoT network , content displayed on a display of the first electronic device ; displaying, on the display of the first electronic device , at least one recommendation corresponding to the recognized content based on a history of user activities performed by a user using at least one of the first electronic device and other electronic devices (100B-100F) in the first IoT network ; detecting, by the first electronic device , user input for selecting the at least one recommendation; and sending, by the first electronic device , a message including the at least one selected recommendation to a second IoT network , characterized in that : the message comprises control configuration for setting of a second electronic device in a second IoT network , and in that the control configuration is previously determined and stored by the first electronic device based on the history of user activities. the message comprises control configuration for setting of a second electronic device in a second IoT network , and in that the control configuration is previously determined and stored by the first electronic device based on the history of user activities.
A method for transmitting, by a transmitting device , data units in a wireless communication system, the method comprising: receiving, at a radio link control, RLC, entity from an upper layer, a first RLC service data unit, SDU; receiving, at the RLC entity from the upper layer, a discard indication to discard the first RLC SDU; characterized by : checking, at the RLC entity in response to receiving the discard indication, whether the first RLC SDU has been submitted to a lower layer; and discarding, at the RLC entity, the first RLC SDU if neither the first RLC SDU nor a segment of the first RLC SDU has been submitted to the lower layer, even if the first RLC SDU or a segment of the first RLC SDU has been included in an RLC protocol data unit, PDU. receiving, at a radio link control, RLC, entity from an upper layer, a first RLC service data unit, SDU; receiving, at the RLC entity from the upper layer, a discard indication to discard the first RLC SDU; characterized by : checking, at the RLC entity in response to receiving the discard indication, whether the first RLC SDU has been submitted to a lower layer; and discarding, at the RLC entity, the first RLC SDU if neither the first RLC SDU nor a segment of the first RLC SDU has been submitted to the lower layer, even if the first RLC SDU or a segment of the first RLC SDU has been included in an RLC protocol data unit, PDU. checking, at the RLC entity in response to receiving the discard indication, whether the first RLC SDU has been submitted to a lower layer; and discarding, at the RLC entity, the first RLC SDU if neither the first RLC SDU nor a segment of the first RLC SDU has been submitted to the lower layer, even if the first RLC SDU or a segment of the first RLC SDU has been included in an RLC protocol data unit, PDU.
Method for determining the placement ([R|T]) of the head of a vehicle driver, comprising the steps consisting in: a) acquiring at least an image (Img i ) in the thermal infrared range (LWIR), on which at least a part of the driver's head appears, b) processing of said image (Img i ) in order to identify specific points (P i ) of the head of the driver, and c) determining the placement ([R|T]) of the head of the driver, as a function of the position of the specific points (P i ) on said image (Img i ), characterised in that a preliminary initialisation phase is provided during which: - a three-dimensional modelling of the head of the driver is acquired, - a texture is applied on at least a part of said three-dimensional modelling , considering at least one acquired image of the head of the driver, - a plurality of two-dimensional synthesized images (Img_s j ) is generated, corresponding to the projection of said three-dimensional modelling textured in a plurality of planes inclined from each other, - specific points (P_s j ) of the head of the driver are identified on each synthesized image (Img_s j ), - data issued from said three-dimensional modelling textured and characterised of the specific points (P_s j ) identified on the synthesized image (Img_s j ) is stored in the individual records of a computer memory, each associated to one of said synthesized images (Img_s j ), in step c), the specific points (P i ) identified in step b) are compared with the data stored in the computer memory in order to derive the placement ([R|T]) of the head of the driver. a) acquiring at least an image (Img i ) in the thermal infrared range (LWIR), on which at least a part of the driver's head appears, b) processing of said image (Img i ) in order to identify specific points (P i ) of the head of the driver, and c) determining the placement ([R|T]) of the head of the driver, as a function of the position of the specific points (P i ) on said image (Img i ), - a three-dimensional modelling of the head of the driver is acquired, - a texture is applied on at least a part of said three-dimensional modelling , considering at least one acquired image of the head of the driver, - a plurality of two-dimensional synthesized images (Img_s j ) is generated, corresponding to the projection of said three-dimensional modelling textured in a plurality of planes inclined from each other, - specific points (P_s j ) of the head of the driver are identified on each synthesized image (Img_s j ), - data issued from said three-dimensional modelling textured and characterised of the specific points (P_s j ) identified on the synthesized image (Img_s j ) is stored in the individual records of a computer memory, each associated to one of said synthesized images (Img_s j ),
A method of configuring a signal period, the method being applied to a macro base station , and comprising: when the macro base station determines that a terminal currently accessing the macro base station is going to access a target base station , configuring , by the macro base station, a first period for the target base station broadcasting a target signal according to a number of terminals currently accessing the target base station , wherein the target base station is a base station that is used for hotspot coverage and managed by the macro base station , and the target signal controls the terminal to access the target base station ; and sending , by the macro base station, first period configuration information indicating the first period to the target base station and the terminal, wherein the first period configuration information controls the target base station to broadcast the target signal with the first period. when the macro base station determines that a terminal currently accessing the macro base station is going to access a target base station , configuring , by the macro base station, a first period for the target base station broadcasting a target signal according to a number of terminals currently accessing the target base station , wherein the target base station is a base station that is used for hotspot coverage and managed by the macro base station , and the target signal controls the terminal to access the target base station ; and sending , by the macro base station, first period configuration information indicating the first period to the target base station and the terminal, wherein the first period configuration information controls the target base station to broadcast the target signal with the first period.
A method for wireless communications at a user equipment, UE, comprising: identifying (505; 1005; 1105; 1205; 1305) that the UE is configured with a first cell group (305; 405) and a second cell group (310; 410), the first cell group having a first cell (320-a; 420-a) operating within a first frequency range (315-a; 415-a) and a second cell (320-b; 420-b) operating within a second frequency range (315-b; 415-b), and the second cell group having a third cell (325-a; 425-a) operating within the first frequency range and a fourth cell (325-b; 425-b) operating within the second frequency range; receiving (510; 1010; 1110; 1210; 1310) an uplink grant (340; 440) scheduling an uplink transmission (330; 430) on the first cell during a symbol and within the first frequency range; determining (520; 1015; 1115; 1215; 1315) a maximum transmission power for the uplink transmission based at least in part on a direction of communications with the third cell during a duration of the symbol and without taking a direction of communications with the fourth cell into account; and transmitting (530; 1020; 1130; 1230; 1325) the uplink transmission on the first cell of the first cell group within the first frequency range in accordance with the maximum transmission power. identifying (505; 1005; 1105; 1205; 1305) that the UE is configured with a first cell group (305; 405) and a second cell group (310; 410), the first cell group having a first cell (320-a; 420-a) operating within a first frequency range (315-a; 415-a) and a second cell (320-b; 420-b) operating within a second frequency range (315-b; 415-b), and the second cell group having a third cell (325-a; 425-a) operating within the first frequency range and a fourth cell (325-b; 425-b) operating within the second frequency range; receiving (510; 1010; 1110; 1210; 1310) an uplink grant (340; 440) scheduling an uplink transmission (330; 430) on the first cell during a symbol and within the first frequency range; determining (520; 1015; 1115; 1215; 1315) a maximum transmission power for the uplink transmission based at least in part on a direction of communications with the third cell during a duration of the symbol and without taking a direction of communications with the fourth cell into account; and transmitting (530; 1020; 1130; 1230; 1325) the uplink transmission on the first cell of the first cell group within the first frequency range in accordance with the maximum transmission power.
Matrix-type pharmaceutical tablet administrable by oral route once to twice per day with controlled release of baclofen by gastric retention comprising granules obtained by wet granulation of Baclofen, of one or more diluents selected from cellulose derivatives such as microcrystalline cellulose and polyols such as mannitol, and optionally a binder within a matrix comprising: from 5 to 50% by weight of gelling agent relative to the total weight of the tablet, said gelling agent being selected from gums of plant origin of carbohydrate nature, linear and substituted linear polysaccharides, polyethylene glycol, methylcellulose and hydroxypropylcellulose; from 3 to 15% by weight of a gas-generating agent relative to the total weight of the tablet; and from 1 to 30% by weight of a superdisintegrant relative to the total weight of the tablet; said tablet comprising less than 5% by weight of the total weight of the tablet of sodium alginate. from 5 to 50% by weight of gelling agent relative to the total weight of the tablet, said gelling agent being selected from gums of plant origin of carbohydrate nature, linear and substituted linear polysaccharides, polyethylene glycol, methylcellulose and hydroxypropylcellulose; from 3 to 15% by weight of a gas-generating agent relative to the total weight of the tablet; and from 1 to 30% by weight of a superdisintegrant relative to the total weight of the tablet; said tablet comprising less than 5% by weight of the total weight of the tablet of sodium alginate.
A shaped flexible polymeric material having a three-dimensional configuration with one or more angular displacements, wherein the polymeric material is formed from a thermoplastic composition containing a continuous phase that includes a matrix polymer, and further wherein a polymeric microinclusion additive and a polymeric nanoinclusion additive are dispersed within the continuous phase in the form of discrete domains, and wherein a porous network is defined in the material wherein the microinclusion additive constitutes from 1 wt.% to 30 wt.% of the composition, based on the weight of the continuous phase; wherein the nanoinclusion additive constitutes from 0.05 wt.% to 20 wt.% of the composition, based on the weight of the continuous phase; wherein the porous network includes a plurality of nanopores having an average cross-sectional dimension of 800 nanometers or less; wherein the discrete domains of nanoinclusion additive have an average cross-sectional dimension of from 1 to 500 nanometers; and wherein the discrete domains of microinclusion additive have an average cross-sectional dimension of from 0.5 to 50 micrometers.
A resistance spot welding method for joining together two or more overlapping steel sheets of a sheet combination, the method comprising squeezing the sheet combination between a pair of electrodes and passing a current through the sheet combination while applying an electrode force thereto, wherein at least one of the two or more steel sheets is a surface-treated steel sheet including a metal coating layer and characterized in that , in the method, the electrode force retaining time is set to satisfy the following relationships, 2 · A · (t · T/F) 1/2 ≤ H when 0.2 ≤ A <1 (3 · A - 1) · (t · T/F) 1/2 ≤ H when 1 < A <10 (A + 19) · (t · T/F) 1/2 ≤ H when 10 < A <20 where H (ms) is an electrode force retaining time after completion of current passage, A (degrees) is an electrode angle of the electrodes , t (mm) is a sheet thickness of a steel sheet having a largest sheet thickness among the two or more steel sheets , T (MPa) is a tensile strength of a steel sheet having a highest tensile strength among the two or more steel sheets , and F (N) is the electrode force wherein the electrode force retaining time is set to less than or equal to 30 ms and wherein A is greater than or equal to 0.2. wherein at least one of the two or more steel sheets is a surface-treated steel sheet including a metal coating layer and characterized in that , in the method, the electrode force retaining time is set to satisfy the following relationships, 2 · A · (t · T/F) 1/2 ≤ H when 0.2 ≤ A <1 (3 · A - 1) · (t · T/F) 1/2 ≤ H when 1 < A <10 (A + 19) · (t · T/F) 1/2 ≤ H when 10 < A <20 2 · A · (t · T/F) 1/2 ≤ H when 0.2 ≤ A <1 (3 · A - 1) · (t · T/F) 1/2 ≤ H when 1 < A <10 (A + 19) · (t · T/F) 1/2 ≤ H when 10 < A <20 where H (ms) is an electrode force retaining time after completion of current passage, A (degrees) is an electrode angle of the electrodes , t (mm) is a sheet thickness of a steel sheet having a largest sheet thickness among the two or more steel sheets , T (MPa) is a tensile strength of a steel sheet having a highest tensile strength among the two or more steel sheets , and F (N) is the electrode force wherein the electrode force retaining time is set to less than or equal to 30 ms and wherein A is greater than or equal to 0.2.