mhurhangee/ep-ind-claims huggingface dataset:
An electrophysiology catheter, comprising: an elongated catheter shaft having a first lumen; a balloon distal of the catheter shaft, the balloon having a distal end and a proximal end defining a longitudinal axis, the balloon including a membrane and a contact electrode supported on an outer surface of the membrane, the membrane defining an interior of the balloon; an irrigation tubing extending through the first lumen of the catheter shaft, the irrigation tubing having a second lumen, the irrigation tubing having a distal end terminating generally at the proximal end of the balloon; and an elongated expander having a first portion extending through the second lumen of the irrigation tubing, and a second portion extending through the proximal end of the balloon and into the interior of the balloon, the expander having a distal end coupled to the distal end of the balloon, the expander being longitudinally movable relative to the catheter shaft to move the distal end of the balloon in changing a configuration of the balloon, wherein the balloon further comprises a plurality of support spines extending longitudinally along the outer surface of the membrane of the balloon, characterised in that the support spines are made of a material with shape-memory and are pre-shaped with a curvature to ensure that the balloon assumes a generally spherical configuration. an elongated catheter shaft having a first lumen; a balloon distal of the catheter shaft, the balloon having a distal end and a proximal end defining a longitudinal axis, the balloon including a membrane and a contact electrode supported on an outer surface of the membrane, the membrane defining an interior of the balloon; an irrigation tubing extending through the first lumen of the catheter shaft, the irrigation tubing having a second lumen, the irrigation tubing having a distal end terminating generally at the proximal end of the balloon; and an elongated expander having a first portion extending through the second lumen of the irrigation tubing, and a second portion extending through the proximal end of the balloon and into the interior of the balloon, the expander having a distal end coupled to the distal end of the balloon, the expander being longitudinally movable relative to the catheter shaft to move the distal end of the balloon in changing a configuration of the balloon, wherein the balloon further comprises a plurality of support spines extending longitudinally along the outer surface of the membrane of the balloon, characterised in that the support spines are made of a material with shape-memory and are pre-shaped with a curvature to ensure that the balloon assumes a generally spherical configuration.
An operative lighting apparatus comprising at least two light sources (6a, 6b), a lighting head remote of said light sources (6a, 6b) and a light guide in the form of harness of optical fibers with at least one head bundle (10a, 10b) of optical fibers coupled to said light sources (6a, 6b) and a plurality of output bundles (9, 9a, 9b) of optical fibers coupled to a plurality of lighting outlet in said lighting head for conducting light from said light sources (6a, 6b) to said lighting head, characterized in that said harness of optical fibers comprises two head bundles (10a, 10b) and said lighting apparatus comprises two laser light sources (6a, 6b) emitting a laser light beam, said two laser light sources (6a, 6b) being respectively coupled to said two head bundles (10a, 10b) of optical fibers, and in that a first phosphor element of a first type and a second phosphor element of a second type are interposed between said output bundles (9, 9a, 9b) of optical fibers and said lighting outlets, so that in each lighting outlet a first beam of white light at a first color temperature and a second beam of white light at a second color temperature different from the first color temperature are produced.
A method for wireless communication at a user equipment, UE, comprising: transmitting an indication of a capability to support concurrent or time division multiplexed uplink, UL, transmission of at least one of multiple uplink, UL, channels across multiple component carriers, the indication being transmitted in a band combination index field; transmitting (406, 408) a second indication of at least one of a number of physical antennas or a number of transmission layers of the at least one of the multiple uplink, UL, channels supported for each of the multiple component carriers or each of multiple combinations of the multiple component carriers; and receiving, based on the indication and the second indication, a configuration to transmit over the at least one of the multiple uplink, UL, channels over the multiple component carriers using concurrent transmission or time division multiplexed transmission. transmitting an indication of a capability to support concurrent or time division multiplexed uplink, UL, transmission of at least one of multiple uplink, UL, channels across multiple component carriers, the indication being transmitted in a band combination index field; transmitting (406, 408) a second indication of at least one of a number of physical antennas or a number of transmission layers of the at least one of the multiple uplink, UL, channels supported for each of the multiple component carriers or each of multiple combinations of the multiple component carriers; and receiving, based on the indication and the second indication, a configuration to transmit over the at least one of the multiple uplink, UL, channels over the multiple component carriers using concurrent transmission or time division multiplexed transmission.
A die cushion force control method that outputs a predetermined die cushion force command value and generates a die cushion force on a cushion pad based on the die cushion force command value, the die cushion force control method characterized by comprising: initially outputting a die cushion force command value equal to or larger than a target die cushion force command value in order to suppress an initial die cushion force overshoot generated when the target die cushion force command value configured to be stepwise is used as the die cushion force command value; then outputting a die cushion force command value (F1 to F2) decreased continuously or stepwise so as to be smaller than the target die cushion force command value; and subsequently outputting a die cushion force command value (F2 to F3) increasing continuously or stepwise so as to be equal to the target die cushion force command value. initially outputting a die cushion force command value equal to or larger than a target die cushion force command value in order to suppress an initial die cushion force overshoot generated when the target die cushion force command value configured to be stepwise is used as the die cushion force command value; then outputting a die cushion force command value (F1 to F2) decreased continuously or stepwise so as to be smaller than the target die cushion force command value; and subsequently outputting a die cushion force command value (F2 to F3) increasing continuously or stepwise so as to be equal to the target die cushion force command value.
A method for detecting a ligand in a sample, comprising the steps of: a) obtaining a nanopore sensor comprising a protein nanopore and a protein adaptor internalized in the lumen of the nanopore, wherein the protein adaptor is a functional enzyme that is capable of binding the ligand, b) adding the sample comprising the ligand to the cis side or the trans side of the nanopore, and c) measuring a first conductance change across the nanopore which reflects binding of the ligand to the internalized enzyme adaptor, and measuring additional conductance changes across the nanopore which reflect enzyme kinetics such as association and dissociation of the ligand and the internalized enzyme adaptor. a) obtaining a nanopore sensor comprising a protein nanopore and a protein adaptor internalized in the lumen of the nanopore, wherein the protein adaptor is a functional enzyme that is capable of binding the ligand, b) adding the sample comprising the ligand to the cis side or the trans side of the nanopore, and c) measuring a first conductance change across the nanopore which reflects binding of the ligand to the internalized enzyme adaptor, and measuring additional conductance changes across the nanopore which reflect enzyme kinetics such as association and dissociation of the ligand and the internalized enzyme adaptor.
Mounting device for inserting a stator of an electric machine which is a constituent part of a hybrid drive module into a transmission housing of bell-shaped configuration, a rotor of the electric machine being connected via a rotor carrier and a rotor hub at least indirectly to a transmission input shaft, and it being possible for its stator, running concentrically with respect to the rotor and enclosing the latter radially, to be fastened to the transmission housing, characterized in that the mounting device has an inner guide element which is provided to be guided in a positively locking manner with respect to the rotor hub or the transmission input shaft which receives the rotor hub, in that the mounting device has an outer guide element in order to be guided in a positively locking manner on the transmission housing, in that the two guide elements (37 and 38), spaced apart radially from one another, are fixed on one another via at least one radially running connecting element, and in that at least one slide is guided longitudinally displaceably in the connecting element, the slide having two slide parts (31 and 32) which can be adjusted with respect to one another and of which a first radially outer slide part is provided for positively locking engagement on the outer circumference of the stator and a second radially inner slide part is provided for action on an end face of the stator.
A construction vehicle having a body and an operator support including a seat supported on a frame, the operator support further comprising an operator manipulable control; and a first armrest movably coupling the operator manipulable control to the frame, the first armrest being movable from a first vertical orientation to a second vertical orientation at a second end of said armrest around a first horizontal axis and from a first horizontal orientation to a second horizontal orientation around a first vertical axis, wherein when the first armrest is in the second horizontal orientation, the first armrest is positioned within an outer perimeter of the body; and the construction vehicle characterized in that operator support further comprises: a coupling assembly for coupling the first armrest to the frame, the coupling assembly including a spring and a pin, the coupling assembly configured such that when the first armrest is moved into the second horizontal orientation the pin and a mating aperture are substantially in alignment such that the spring biases the pin into the aperture to inhibit movement of the first armrest about said first vertical axis from the second horizontal orientation until the first armrest is moved upward at said second end about said first horizontal axis to disengage the pin from the aperture. a coupling assembly for coupling the first armrest to the frame, the coupling assembly including a spring and a pin, the coupling assembly configured such that when the first armrest is moved into the second horizontal orientation the pin and a mating aperture are substantially in alignment such that the spring biases the pin into the aperture to inhibit movement of the first armrest about said first vertical axis from the second horizontal orientation until the first armrest is moved upward at said second end about said first horizontal axis to disengage the pin from the aperture.
An aerosol-generating system, comprising: an elongate aerosol-generating device having a polygonal transverse cross-section, and a charging device comprising a cavity having a polygonal transverse cross-section corresponding to the polygonal transverse cross-section of the aerosol-generating device, the cavity being adapted to receive the elongate aerosol-generating device and comprising means for keying the aerosol-generating device to the charging device, wherein the means for keying comprises at least one notch for reciving at least one corresponding protrusion on the aerosol-generating device, characterised in that the at least one protrusion is a button adapted to activate the aerosol-generating device and in that the polygon comprises at least 6 sides an elongate aerosol-generating device having a polygonal transverse cross-section, and a charging device comprising a cavity having a polygonal transverse cross-section corresponding to the polygonal transverse cross-section of the aerosol-generating device, the cavity being adapted to receive the elongate aerosol-generating device and comprising means for keying the aerosol-generating device to the charging device, wherein the means for keying comprises at least one notch for reciving at least one corresponding protrusion on the aerosol-generating device, characterised in that the at least one protrusion is a button adapted to activate the aerosol-generating device and in that the polygon comprises at least 6 sides
Magnetic core for an inductive component, produced by thin-film technology, wherein the magnetic core (10, 20) consists of at least two different magnetic materials (36, 40), wherein the magnetic core (10, 20) forms a closed ring, wherein the ring has a circular, oval, elliptical, square or rectangular shape, wherein the different magnetic materials are selected from the materials Ni, NiFe, CoFe, CoP and CoZrTi, wherein, in a first embodiment, seen over the length the different magnetic materials (36, 40) alternate and respectively take up the complete cross section of the magnetic core, or wherein, in a second embodiment, the magnetic core is formed by means of at least an inner ring of a first magnetic material and an outer ring of a second magnetic material, and the different magnetic materials (36, 40) respectively extend over the entire length of the magnetic core and a cross section of the magnetic core is formed from different magnetic materials (36, 40).
A procatalyst composition comprising: a combination of a magnesium moiety, a titanium moiety, and an internal electron donor comprising an alkoxyalkyl 2-propenoate. a combination of a magnesium moiety, a titanium moiety, and an internal electron donor comprising an alkoxyalkyl 2-propenoate.
A connector structured to be employed in a patient interface that is structured to provide a flow of breathable gas to an airway of a patient, the patient interface having a resilient cushion that is structured to be engaged with the face of the patient, the connector comprising: a support apparatus structured to be connected with a source of breathable gas, wherein the support apparatus further comprises a support element that is elbow-shaped and that has a flow passage formed therein that is structured to deliver the flow of breathable gas; a connection apparatus disposed on the support apparatus and structured to be engaged with the cushion; the connection apparatus comprising an engagement element; and the engagement element having a frusto-conic engagement surface structured to receive against it at least a portion of the cushion; characterized in that the connector further comprises a retention apparatus comprising at least a first retention element that protrudes outwardly from the frusto-conic engagement surface and that is structured to be engaged with the cushion and to retain the at least portion of the cushion in a condition received against the engagement surface. a support apparatus structured to be connected with a source of breathable gas, wherein the support apparatus further comprises a support element that is elbow-shaped and that has a flow passage formed therein that is structured to deliver the flow of breathable gas; a connection apparatus disposed on the support apparatus and structured to be engaged with the cushion; the connection apparatus comprising an engagement element; and the engagement element having a frusto-conic engagement surface structured to receive against it at least a portion of the cushion; characterized in that the connector further comprises a retention apparatus comprising at least a first retention element that protrudes outwardly from the frusto-conic engagement surface and that is structured to be engaged with the cushion and to retain the at least portion of the cushion in a condition received against the engagement surface.
A method of forming upholstery of a foam seat element comprising the steps of: inserting, into an injection mold, a plastic film delimiting at least one first foam injection area from a second foam injection area in the mold; injecting foam to form the upholstery in one piece, characterized in that the film disappears with the polymerization of the foam. inserting, into an injection mold, a plastic film delimiting at least one first foam injection area from a second foam injection area in the mold; injecting foam to form the upholstery in one piece, characterized in that the film disappears with the polymerization of the foam.
Wheel suspension for a wheel of an axle of a motor vehicle, in the case of which a wheel carrier is guided over five wheel control elements (14, 16, 18, 20, 22), wherein the wheel control elements (14, 16, 18, 20, 22) are each mounted on the wheel carrier on the wheel carrier side by means of a bearing, and at the side facing away from the wheel carrier are each mounted by means of a bearing on an auxiliary frame characterised in that in the case of at least one, substantially oriented in the vehicle longitudinal direction first wheel control element, the bearing on the auxiliary frame side and the bearing on the wheel carrier side are formed as a hydraulically dampable elastomer bearing, wherein the first wheel control element is a longitudinal control arm which is at the front viewed in direction of driving, and in the case of at least one, substantially orientated in the vehicle transverse direction second wheel control element, the bearing on the auxiliary frame side is formed as a hydraulically dampable bearing.
A method of increasing communication security, said method comprising: responsive to receiving a first message from a first computer system, determining whether said first computer system is authorized to communicate with a second computer system, wherein said determining is performed at a third computer system; if said first computer system is authorized to communicate with a second computer system, communicating a second message from said third computer system to said first computer system, wherein said second message includes a first data portion and a second data portion, wherein said first data portion is associated with a security token, wherein said first data portion includes a first instance of a session key, and wherein said second data portion includes a second instance of said session key; communicating a third message from said first computer system to said second computer system, wherein said third message includes said first data portion; generating, at said first computer system, authentication data using said second instance of said session key; communicating a fourth message from said first computer system to said second computer system, wherein said fourth message includes said authentication data; and performing, at said second computer system, message validation associated with said fourth message, wherein said performing further comprises performing, using said first instance of said session key, message validation based on said authentication data. responsive to receiving a first message from a first computer system, determining whether said first computer system is authorized to communicate with a second computer system, wherein said determining is performed at a third computer system; if said first computer system is authorized to communicate with a second computer system, communicating a second message from said third computer system to said first computer system, wherein said second message includes a first data portion and a second data portion, wherein said first data portion is associated with a security token, wherein said first data portion includes a first instance of a session key, and wherein said second data portion includes a second instance of said session key; communicating a third message from said first computer system to said second computer system, wherein said third message includes said first data portion; generating, at said first computer system, authentication data using said second instance of said session key; communicating a fourth message from said first computer system to said second computer system, wherein said fourth message includes said authentication data; and performing, at said second computer system, message validation associated with said fourth message, wherein said performing further comprises performing, using said first instance of said session key, message validation based on said authentication data.
Container including an outer shell having two flexible walls combined together so as to form at least one main compartment containing or intended to contain a fluid, said container further comprising at least one flow pipe one end of which leads into said main compartment and the other end of which extends beyond said flexible walls, characterised in that said flow pipe is combined with said flexible walls along a proximal joint and a distal joint separate from the proximal joint, said flexible walls surrounding the flow pipe portion between said joints (6, 7), so as to form, around said portion of the flow pipe, a closed, inaccessible sealing chamber.
A computer-implemented method for determining a jump characteristic of an individual, the method comprising: identifying take-off of a jump performed by the individual and determining a time of initiation of the jump; determining a first vertical velocity of the individual, based on first acceleration data sensed at the initiation of the jump, using a sensor module, determining a second vertical velocity of the individual at the take-off of the jump, based on the first vertical velocity and second acceleration data sensed between the initiation of the jump and the take-off of the jump; and calculating a maximum jump height based on the second vertical velocity; wherein the sensor module is coupled to the individual and positioned at or near the expected center of mass of the individual or along the centerline of the torso of the individual; wherein identifying take-off of the jump comprises sensing a resultant acceleration of about zero for at least 50 ms, using the sensor module, and wherein the time of initiation of the jump is determined to be a time during a period immediately preceding the take-off of the jump at which resultant acceleration sensed by the sensor module is at a minimum for the period, wherein the period spans 50 ms. identifying take-off of a jump performed by the individual and determining a time of initiation of the jump; determining a first vertical velocity of the individual, based on first acceleration data sensed at the initiation of the jump, using a sensor module, determining a second vertical velocity of the individual at the take-off of the jump, based on the first vertical velocity and second acceleration data sensed between the initiation of the jump and the take-off of the jump; and calculating a maximum jump height based on the second vertical velocity; wherein the sensor module is coupled to the individual and positioned at or near the expected center of mass of the individual or along the centerline of the torso of the individual; wherein identifying take-off of the jump comprises sensing a resultant acceleration of about zero for at least 50 ms, using the sensor module, and wherein the time of initiation of the jump is determined to be a time during a period immediately preceding the take-off of the jump at which resultant acceleration sensed by the sensor module is at a minimum for the period, wherein the period spans 50 ms.