mhurhangee/ep-ind-claims huggingface dataset:
A system comprising a medical device for performing ablation procedures, comprising: an elongate shaft having a distal region; an expandable member coupled to the distal region; a plurality of electrodes coupled to the expandable member; a conductive member connected to each of the electrodes, where each of the connected conductive members are capable of powering the electrode to which the conductive member is connected; wherein the system further comprises a generator or controller configured to activate and deactive the electrodes such that, when one of the plurality of electrodes is active, the remaining unpowered electrodes act as ground electrodes, and that an electrode (30b, 30c, 30d) of the remaining unpowered electrodes acting as ground electrodes is configured to be activated by the generator or controller to form an active electrode. an elongate shaft having a distal region; an expandable member coupled to the distal region; a plurality of electrodes coupled to the expandable member; a conductive member connected to each of the electrodes, where each of the connected conductive members are capable of powering the electrode to which the conductive member is connected; wherein the system further comprises a generator or controller configured to activate and deactive the electrodes such that, when one of the plurality of electrodes is active, the remaining unpowered electrodes act as ground electrodes, and that an electrode (30b, 30c, 30d) of the remaining unpowered electrodes acting as ground electrodes is configured to be activated by the generator or controller to form an active electrode.
Annular rotating bezel system intended to be rotatably mounted on a middle part of a watch case inside which is housed a timepiece movement which extends in a plane, including a rotating bezel, an annular holding ring, a toothed ring, and at least one elastic arm of which a free end is elastically and radially meshed with the toothed ring, said toothed ring and said at least one elastic arm being held in an axial direction perpendicular to the plane of the movement in the bezel by the annular holding ring, either the toothed ring or the elastic arm being arranged to be angularly joined to the rotating bezel, and other being arranged to be angularly joined to the case middle; characterized in that said at least one elastic arm is formed of a flat strip-spring mounted in a cantilever arrangement in the system.
Load carrier for a cleaning machine, comprising: - a carrying frame with a lower load carrier tier and an upper load carrier tier which are arranged parallel to one another and which are connected to one another by spacers (5, 6); - at least one further, removable load carrier tier which, parallel to the upper and lower load carrier tiers (2, 3), is detachably fastened to, preferably slidable into, the carrying frame; characterized in that the removable load carrier tier comprises a rotatably mounted wash arm and at least one feed line for the supply of a fluid to the wash arm, in particular such that the wash arm and the at least one feed line are removable and re-insertable jointly with the removable load carrier tier. - a carrying frame with a lower load carrier tier and an upper load carrier tier which are arranged parallel to one another and which are connected to one another by spacers (5, 6); - at least one further, removable load carrier tier which, parallel to the upper and lower load carrier tiers (2, 3), is detachably fastened to, preferably slidable into, the carrying frame;
A signal sending method, comprising: generating, by a terminal device, orthogonal frequency division multiplexing, OFDM, symbols; and sending, by the terminal device, at least two OFDM symbols to a network device in a first time unit in an uplink shared frequency band of a LTE communications system and a 5G communications system, and sending at least two OFDM symbols to the network device in a second time unit in the uplink shared frequency band of the LTE communications system and the 5G communications system, wherein phase offsets of the OFDM symbols at each sampling time point in the first time unit are equal to phase offsets of the OFDM symbols at each corresponding sampling time point in the second time unit, the phase offset of a first OFDM symbol in the first time unit is not equal to the phase offset of at least one OFDM symbol other than the first OFDM symbol in the first time unit, and duration of the first time unit is the same as duration of the second time unit. generating, by a terminal device, orthogonal frequency division multiplexing, OFDM, symbols; and sending, by the terminal device, at least two OFDM symbols to a network device in a first time unit in an uplink shared frequency band of a LTE communications system and a 5G communications system, and sending at least two OFDM symbols to the network device in a second time unit in the uplink shared frequency band of the LTE communications system and the 5G communications system, wherein phase offsets of the OFDM symbols at each sampling time point in the first time unit are equal to phase offsets of the OFDM symbols at each corresponding sampling time point in the second time unit, the phase offset of a first OFDM symbol in the first time unit is not equal to the phase offset of at least one OFDM symbol other than the first OFDM symbol in the first time unit, and duration of the first time unit is the same as duration of the second time unit.
A pre-sintered powder metal composition, comprising: at least a fraction of prealloyed steel powder containing C in an amount of 3.8 wt %; Cr in an amount of 13 wt%; V in an amount of 4 wt%; Mo in an amount of 1.5 wt%; W in an amount of 2.5 wt%; an O content of less than 0.5 wt%, and the balance Fe apart from incidental impurities. at least a fraction of prealloyed steel powder containing C in an amount of 3.8 wt %; Cr in an amount of 13 wt%; V in an amount of 4 wt%; Mo in an amount of 1.5 wt%; W in an amount of 2.5 wt%; an O content of less than 0.5 wt%, and the balance Fe apart from incidental impurities.
An image projection apparatus comprising: a light source configured to cause a vaporized light-emitting material to emit light by an electric discharge between a pair of electrodes, said vaporized light-emitting material returning to a liquid state when the image projection apparatus is powered off; an image forming unit configured to form an image by modulating intensity of the light emitted from the light source; a receiving unit configured to, in a state where the power to the apparatus is on, receive a first input provided by first push-down of a power button for designating whether to supply electric power to the image projection apparatus; and an electric-power control unit configured to increase electric power supplied to the electrodes before also stopping power supply to the image projection apparatus; characterized in that: the electric-power control unit is configured to increase electric power supplied to the electrodes when the receiving unit receives the first input and stop power supply to the image projection apparatus after the receiving unit receives a second input provided by second or later push-down of the power button;and by further comprising: an image control unit configured to decrease grayscale values of respective pixels contained in image data from which an image to be projected onto a projection surface is formed when the receiving unit receives the first input. a light source configured to cause a vaporized light-emitting material to emit light by an electric discharge between a pair of electrodes, said vaporized light-emitting material returning to a liquid state when the image projection apparatus is powered off; an image forming unit configured to form an image by modulating intensity of the light emitted from the light source; a receiving unit configured to, in a state where the power to the apparatus is on, receive a first input provided by first push-down of a power button for designating whether to supply electric power to the image projection apparatus; and an electric-power control unit configured to increase electric power supplied to the electrodes before also stopping power supply to the image projection apparatus; characterized in that: the electric-power control unit is configured to increase electric power supplied to the electrodes when the receiving unit receives the first input and stop power supply to the image projection apparatus after the receiving unit receives a second input provided by second or later push-down of the power button;and by further comprising: an image control unit configured to decrease grayscale values of respective pixels contained in image data from which an image to be projected onto a projection surface is formed when the receiving unit receives the first input.
A photodiode array comprising: a semiconductor substrate, wherein a plurality of photodiodes are formed in array form on a surface onto which light to be detected is made incident and the semiconductor substrate has penetrating wirings, which pass through from the incidence surface side to the back surface side, formed for the photodiodes; characterized in that a protruding portion, having a predetermined height, is formed at regions of the incidence surface side at which the photodiodes are not formed, wherein the protruding portion is formed in a predetermined pattern comprising a plurality of spacer units (13c and 13d) and the respective spacer units (13c and 13d) are formed so as to be positioned intermittently at predetermined intervals, such that adjacent photodiode regions are in communication with each other through gaps between adjacent spacer units (13c and 13d). a semiconductor substrate, wherein a plurality of photodiodes are formed in array form on a surface onto which light to be detected is made incident and the semiconductor substrate has penetrating wirings, which pass through from the incidence surface side to the back surface side, formed for the photodiodes; characterized in that a protruding portion, having a predetermined height, is formed at regions of the incidence surface side at which the photodiodes are not formed, wherein the protruding portion is formed in a predetermined pattern comprising a plurality of spacer units (13c and 13d) and the respective spacer units (13c and 13d) are formed so as to be positioned intermittently at predetermined intervals, such that adjacent photodiode regions are in communication with each other through gaps between adjacent spacer units (13c and 13d).
A martensitic alloy component, consisting by weight: 0.38% to 0.43% C; 0.15% to 0.30% Si; 1.00% to 1.25% Mn; 0.75% to 0.90% Ni; 1.00% to 1.30% Cr; 0.25% to 0.35% Mo; 0.05% to 0.12% V; up to 0.015% S; up to 0.015% P; up to 0.15% Cu; and balance iron and incidental impurities; wherein the component has a hardenability corresponding to an ideal diameter of greater than 25.4 cm (10 inches). 0.38% to 0.43% C; 0.15% to 0.30% Si; 1.00% to 1.25% Mn; 0.75% to 0.90% Ni; 1.00% to 1.30% Cr; 0.25% to 0.35% Mo; 0.05% to 0.12% V; up to 0.015% S; up to 0.015% P; up to 0.15% Cu; and balance iron and incidental impurities; wherein the component has a hardenability corresponding to an ideal diameter of greater than 25.4 cm (10 inches).
Airbag system for a ride-on motor vehicle having a vehicle body, comprising a seat, an airbag which, in its inoperative state, is arranged in an airbag container, a gas generator for generating a high-pressure gas for inflating the airbag, and a control system which, in the event of a collision of the ride-on motor vehicle with an obstacle, sets the gas generator into operation in order to inflate the airbag, wherein the airbag in the inflated state is intended to at least partially envelop a front side and the flanks of a rider and to hold against the rider in the event of a fall, in order to damp the impact, characterized in that the seat has a seat mount which is intended to be fastened to the vehicle body, a seat part which is fastened releasably to the seat mount and comprises the airbag container, and at least one catapulting device which is set into operation by the control system during the collision and is intended to release the seat part together with the rider from the seat mount.
A method of providing information regarding an implanted lead for an implantable medical device, the method comprising: conducting, by a processor of an implantable medical device, one or more measurements in relation to an implanted lead coupled to the IMD; determining, by the processor, characteristics of the implanted lead based on the one or more measurements; and identifying, by the processor, type of implanted lead based on the lead characteristics, and wherein the implanted lead comprises one of a lead having one or more modular circuits incorporated therewith and a lead without said modular circuits, wherein each of the modular circuits defines an interface between conductors and corresponding electrodes of the implanted lead, and characterized in that the IMD is configured to function with the modular circuits, and in that the method further comprises: transmitting one or more query signals along the lead conductors to prompt in-kind responses transmitted from each of the modular circuits to the processor, wherein the responses comprise electrode configuration information pertaining to the modular circuits. conducting, by a processor of an implantable medical device, one or more measurements in relation to an implanted lead coupled to the IMD; determining, by the processor, characteristics of the implanted lead based on the one or more measurements; and identifying, by the processor, type of implanted lead based on the lead characteristics, and wherein the implanted lead comprises one of a lead having one or more modular circuits incorporated therewith and a lead without said modular circuits, wherein each of the modular circuits defines an interface between conductors and corresponding electrodes of the implanted lead, and characterized in that the IMD is configured to function with the modular circuits, and in that the method further comprises: transmitting one or more query signals along the lead conductors to prompt in-kind responses transmitted from each of the modular circuits to the processor, wherein the responses comprise electrode configuration information pertaining to the modular circuits. transmitting one or more query signals along the lead conductors to prompt in-kind responses transmitted from each of the modular circuits to the processor, wherein the responses comprise electrode configuration information pertaining to the modular circuits.
An oven, comprising: an oven body (12, 112) having a peripheral wall (14, 114) at least partially defining a cooking cavity (32, 132) with a top wall (16, 116) comprising spaced interior panels (18, 118) and exterior panels (20, 120) defining a channel (22, 122) therebetween; insulation located in the channel (22, 122); an imaging device (40, 140) mounted in the channel (22, 122) in thermal engagement with the insulation with a field of view (42, 142) including at least a portion of the cooking cavity (32, 132); and a heat sink coupled to the imaging device (40, 140); characterized in that the oven comprises a heat pipe comprising a first end coupled to the imaging device (40, 140) and a second end spaced from the first end coupled to the heat sink. an oven body (12, 112) having a peripheral wall (14, 114) at least partially defining a cooking cavity (32, 132) with a top wall (16, 116) comprising spaced interior panels (18, 118) and exterior panels (20, 120) defining a channel (22, 122) therebetween; insulation located in the channel (22, 122); an imaging device (40, 140) mounted in the channel (22, 122) in thermal engagement with the insulation with a field of view (42, 142) including at least a portion of the cooking cavity (32, 132); and a heat sink coupled to the imaging device (40, 140); characterized in that the oven comprises a heat pipe comprising a first end coupled to the imaging device (40, 140) and a second end spaced from the first end coupled to the heat sink.
A mouthpiece for a fluid dispenser device, comprising a body that is provided with a fluid dispenser orifice through which the fluid is expelled, said body presenting a substantially rounded elongate shape, with a top surface incorporating said dispenser orifice and extending longitudinally on both sides of said dispenser orifice, two lateral bearing surfaces being provided laterally on both sides of said dispenser orifice for receiving the lips of the user during inhalation, said top surface being slightly convex characterized in that said lateral bearing surfaces are slightly concave.
A method for generating a high dose rate of electrons of different energies using a traveling wave linear accelerator, the method comprising: coupling a first electromagnetic wave generated by a magnetron (432,502) into the accelerator; ejecting a first beam of electrons from an electron gun (433,508) into the accelerator, wherein the first beam of electrons is accelerated by the first electromagnetic wave to a first range of energies and output at a first captured electron beam current; coupling a second electromagnetic wave generated by the magnetron into the accelerator; and ejecting a second beam of electrons from the electron gun, wherein the second beam of electrons is accelerated by the second electromagnetic wave to a second range of energies and output at a second captured electron beam current, wherein a magnitude of the second captured electron beam current is different from a magnitude of the first captured electron beam current; wherein a central value of the second range of energies is different from a central value of the first range of energies; and wherein the second range of energies and the first range of energies are interleaved. coupling a first electromagnetic wave generated by a magnetron (432,502) into the accelerator; ejecting a first beam of electrons from an electron gun (433,508) into the accelerator, wherein the first beam of electrons is accelerated by the first electromagnetic wave to a first range of energies and output at a first captured electron beam current; coupling a second electromagnetic wave generated by the magnetron into the accelerator; and ejecting a second beam of electrons from the electron gun, wherein the second beam of electrons is accelerated by the second electromagnetic wave to a second range of energies and output at a second captured electron beam current, wherein a magnitude of the second captured electron beam current is different from a magnitude of the first captured electron beam current; wherein a central value of the second range of energies is different from a central value of the first range of energies; and wherein the second range of energies and the first range of energies are interleaved.
A nacelle for a turbofan gas turbine engine, an inner wall of the nacelle defining an air intake which directs air into the fan section of the engine, the intake having, in flow series, an intake lip, a throat and a diffuser; wherein the diffuser has, in flow series, first and second flow conditioning sections over both of which the flow cross-sectional area of the diffuser increases with increasing downstream distance from the throat, and over the second section the nacelle inner wall lying substantially on a surface of an oblique circular cone having an apex which is offset from the centreline of the engine, characterised in that the second section occupies at least 10% and at most 50% of the length, as measured in the direction of the engine axis (X-X), of the diffuser profile which, on the longitudinal section containing the engine axis (X-X) and the oblique circular cone axis, is on the other side of the engine axis (X-X) from the apex of the oblique circular cone.
Retaining arrangement of a retaining ring on a first component and a second component for a motor vehicle, in which: - the retaining ring is partly arranged in an outer peripheral groove of the first component; - the retaining ring is bent at its two opposite free ends (24, 26) in the same direction extending in the axial direction of the retaining ring; - the two free ends (24, 26) of the retaining ring engage in the axial direction of the retaining ring into respective first axial pockets (30, 32) of the first component; and - the two free ends (24, 26) of the retaining ring engage in the axial direction of the retaining ring into respective second axial pockets (44, 46) of the second component. - the retaining ring is partly arranged in an outer peripheral groove of the first component; - the retaining ring is bent at its two opposite free ends (24, 26) in the same direction extending in the axial direction of the retaining ring; - the two free ends (24, 26) of the retaining ring engage in the axial direction of the retaining ring into respective first axial pockets (30, 32) of the first component; and - the two free ends (24, 26) of the retaining ring engage in the axial direction of the retaining ring into respective second axial pockets (44, 46) of the second component.