mhurhangee/ep-ind-claims huggingface dataset:
A portable telephone, comprising: an antenna for transmitting/receiving radio waves to and from a network; a wireless section for modulating/demodulating radio waves transmitted/received by said antenna; and a control section configured to: analyze and process layer 3 messages including MBMS related messages demodulated by said wireless section and wherein, upon recognizing that there is user information which has not been received while receiving user information by a MBMS service in PtM mode, said control section transmits a request for providing a MBMS service in PtP mode to said network via said wireless section, wherein while being in RRC IDLE mode, and performing communication by a MBMS service in PtM mode, the control section transmits a RRC Connection Request message to the network and sets an information element 'Establishment cause' in that message to be a 'MBMS ptp RB request'. an antenna for transmitting/receiving radio waves to and from a network; a wireless section for modulating/demodulating radio waves transmitted/received by said antenna; and a control section configured to: analyze and process layer 3 messages including MBMS related messages demodulated by said wireless section and wherein, upon recognizing that there is user information which has not been received while receiving user information by a MBMS service in PtM mode, said control section transmits a request for providing a MBMS service in PtP mode to said network via said wireless section, wherein while being in RRC IDLE mode, and performing communication by a MBMS service in PtM mode, the control section transmits a RRC Connection Request message to the network and sets an information element 'Establishment cause' in that message to be a 'MBMS ptp RB request'. analyze and process layer 3 messages including MBMS related messages demodulated by said wireless section and wherein, upon recognizing that there is user information which has not been received while receiving user information by a MBMS service in PtM mode, said control section transmits a request for providing a MBMS service in PtP mode to said network via said wireless section, wherein while being in RRC IDLE mode, and performing communication by a MBMS service in PtM mode, the control section transmits a RRC Connection Request message to the network and sets an information element 'Establishment cause' in that message to be a 'MBMS ptp RB request'.
A content delivery network, CDN, comprising at least one CDN origin node and multiple CDN cache nodes (2, 3) which are connected to the CDN origin node via an optical transport network, OTN, wherein the OTN represents a first CDN network level from the CDN origin node to the multiple CDN cache nodes and the optical routing is performed by means of NxN AWGs, arrayed waveguide gratings,, and full meshing is realized by DWDM, dense wavelength division multiplex, channels, characterized in that a second CDN network level is formed by CDN cache nodes which are connected via optical MxM AWG elements to the first CDN network level so that also in the second CDN network level a wavelength-addressed full meshing becomes possible for transparent optical connections between the CDN origin and CDN cache nodes, wherein the at least one CDN origin node and the multiple CDN cache nodes (2, 3) are configured such that the delivery and/or the routing from the CDN cache node (2, 3) to the CDN origin node and/or vice versa is performed below layer 3 of the OSI model, and the delivery of data and/or the routing of CDN cache nodes (2, 3) to the CDN origin node and vice versa is performed without an IP overlay network.
An anvil for use in connection with a first ring shaped member of an anastomotic device in the side wall of an intestine, said anvil comprising: a distal head portion and a connecting rod extending proximally from the head portion; said distal head portion having a first ring shaped member retaining means, being displaceable laterally and centrally between a first member locking position and a first member releasing position; characterized in that the retaining means comprises laterally extending blades, that extend centrally to the connecting rod, and then proximally along the connecting rod, said blades being displaceable proximally in relation to the connecting rod such that the blades are movable centrally from a periphery of the head portion to release the first member. a distal head portion and a connecting rod extending proximally from the head portion; said distal head portion having a first ring shaped member retaining means, being displaceable laterally and centrally between a first member locking position and a first member releasing position; characterized in that the retaining means comprises laterally extending blades, that extend centrally to the connecting rod, and then proximally along the connecting rod, said blades being displaceable proximally in relation to the connecting rod such that the blades are movable centrally from a periphery of the head portion to release the first member.
A method for controlling an implantable blood pump with an external controller, the method comprising: identifying a status of one or more power sources for the implantable blood pump that is indicative of a mode to conserve power; and transmitting, from the external controller, a command signal to the implantable blood pump to transition the implantable blood pump from a pulsatile pumping operation to a constant speed operation, the constant speed operation consuming less power than the pulsatile pumping operation; wherein identifying the power source status that is indicative of a mode to conserve power comprises: identifying a duration of time in which the controller is disconnected from the one or more external power sources or a duration of time in which the implantable blood pump is operated in a low power hazard condition; and comparing the duration of time to a threshold time period; and transmitting the signal to the implantable blood pump when the duration of time exceeds the threshold time period. identifying a status of one or more power sources for the implantable blood pump that is indicative of a mode to conserve power; and transmitting, from the external controller, a command signal to the implantable blood pump to transition the implantable blood pump from a pulsatile pumping operation to a constant speed operation, the constant speed operation consuming less power than the pulsatile pumping operation; wherein identifying the power source status that is indicative of a mode to conserve power comprises: identifying a duration of time in which the controller is disconnected from the one or more external power sources or a duration of time in which the implantable blood pump is operated in a low power hazard condition; and comparing the duration of time to a threshold time period; and transmitting the signal to the implantable blood pump when the duration of time exceeds the threshold time period. identifying a duration of time in which the controller is disconnected from the one or more external power sources or a duration of time in which the implantable blood pump is operated in a low power hazard condition; and comparing the duration of time to a threshold time period; and transmitting the signal to the implantable blood pump when the duration of time exceeds the threshold time period.
A fluidized bed boiler with a fluidized bed heat exchanger, the heat exchanger comprising a front wall adjacent the fluidized bed boiler, a rear wall opposite to the front wall and two side walls (60, 60'), the walls being formed as water tube panels, an inlet opening arranged in a first section of an upper portion of the heat exchanger for introducing hot particles from the fluidized bed boiler to the heat exchanger, heat exchange surfaces for recovering heat from the particles and an outlet opening arranged in a second section of the upper portion of the heat exchanger for returning cooled particles as an overflow from the heat exchanger back to the fluidized bed boiler, wherein the heat exchanger comprises a partition wall between the first and second sections of the upper portion of the heat exchanger, wherein the partition wall is downwards slanted so as to guide particles into the heat exchanger further away from the furnace, and characterized in that the partition wall extends from the front wall to a portion of the heat exchanger which is spaced apart from the front wall and the rear wall by 40-60 % of the distance between the front wall and the rear wall, the partition wall is formed by bending water tubes from at least one side wall (60, 60') of the heat exchanger as a first horizontal section (62, 62') extending towards a center section of the partition wall and as a second horizontal section (66, 66') from the center section of the partition wall back to the side wall.
Quadrilateral-type front suspension for a steerable wheel of a motor-vehicle, comprising: - a wheel support, - an upper oscillating arm, having one end articulated to the wheel support by means of a first joint and an opposite end articulated to the motor-vehicle structure by means of at least one second joint (8, 9), - a lower oscillating arm, having one end articulated to the wheel support by means of a first joint and an opposite end articulated to the motor-vehicle structure by means of at least one second joint (10,11), - a spring-shock absorber unit operatively interposed between said suspension and the structure of the motor-vehicle, and - an anti-roll bar mounted on the structure of the motor-vehicle along a transverse axis with respect to the longitudinal direction of the motor-vehicle, and having an end arm operatively connected to said suspension, - each of said upper and lower oscillating arms (UA, LA) being in the form of a single oscillating arm or being defined by two independent oscillating rods each articulated at one end to the wheel support and at the opposite end to the structure of the motor-vehicle, wherein the aforesaid spring-shock absorber unit is operatively connected to said suspension by means of a connection to said wheel support, wherein said spring-shock absorber unit is connected to said wheel support at a connecting point lying substantially on the steering axis of the wheel support or adjacent to it, wherein the spring-shock absorber unit is connected to the wheel support by means of an articulated joint (32;36;40), and wherein an anti-rotation device (35; 37; 40) is associated with the connection between the spring-shock absorber unit and the suspension, to prevent or limit a relative rotation between the spring-shock absorber unit and the wheel support, said suspension being characterized in that said anti-rotation device (35; 37; 40) is associated with the connection between the spring-shock absorber unit and the wheel support, the anti-rotation device comprising an additional element (35; 37; 40) connecting the spring-shock absorber unit to the wheel support. - a wheel support, - an upper oscillating arm, having one end articulated to the wheel support by means of a first joint and an opposite end articulated to the motor-vehicle structure by means of at least one second joint (8, 9), - a lower oscillating arm, having one end articulated to the wheel support by means of a first joint and an opposite end articulated to the motor-vehicle structure by means of at least one second joint (10,11), - a spring-shock absorber unit operatively interposed between said suspension and the structure of the motor-vehicle, and - an anti-roll bar mounted on the structure of the motor-vehicle along a transverse axis with respect to the longitudinal direction of the motor-vehicle, and having an end arm operatively connected to said suspension, - each of said upper and lower oscillating arms (UA, LA) being in the form of a single oscillating arm or being defined by two independent oscillating rods each articulated at one end to the wheel support and at the opposite end to the structure of the motor-vehicle,
An apparatus for controlling a variable frequency ratio-metric pulse width clock signal, comprising: a subtractor having sign output used to generate a count enable signal, wherein the count enable signal is asserted when a first value at a first input is equal to or greater than a second value at a second input of the subtractor; an accumulator having a clock input coupled to a clock signal comprising a plurality of clock pulses at a certain frequency; an adder having an output coupled to an input of the accumulator; a multiplexer having an output coupled to a second input of the adder; a first input coupled to an output of the accumulator, a second input coupled to a difference output of the subtractor, and a control input coupled to the sign output of the subtractor; a numerator register having an output coupled to a first input of the adder, wherein the numerator register stores a numerator value; and a denominator register having an output coupled to the second input of the subtractor, wherein the denominator register stores a denominator value; wherein the numerator value is added to a value in the accumulator at each clock pulse until the subtractor determines that the value in the accumulator is equal to or greater than the denominator value in the denominator register then a resultant difference from the output of the subtractor is subtracted from the value in the accumulator, whereby the value in the accumulator remains between zero and the value in the denominator register. a subtractor having sign output used to generate a count enable signal, wherein the count enable signal is asserted when a first value at a first input is equal to or greater than a second value at a second input of the subtractor; an accumulator having a clock input coupled to a clock signal comprising a plurality of clock pulses at a certain frequency; an adder having an output coupled to an input of the accumulator; a multiplexer having an output coupled to a second input of the adder; a first input coupled to an output of the accumulator, a second input coupled to a difference output of the subtractor, and a control input coupled to the sign output of the subtractor; an output coupled to a second input of the adder; a first input coupled to an output of the accumulator, a second input coupled to a difference output of the subtractor, and a control input coupled to the sign output of the subtractor; a numerator register having an output coupled to a first input of the adder, wherein the numerator register stores a numerator value; and a denominator register having an output coupled to the second input of the subtractor, wherein the denominator register stores a denominator value; wherein the numerator value is added to a value in the accumulator at each clock pulse until the subtractor determines that the value in the accumulator is equal to or greater than the denominator value in the denominator register then a resultant difference from the output of the subtractor is subtracted from the value in the accumulator, whereby the value in the accumulator remains between zero and the value in the denominator register.
A cover anchor clip comprising: a base section having a plate shape extending in one direction, that is formed with through holes (36, 38) into which a foam body enters, and that is configured to be retained in the foam body; and an anchor portion formed at the front face of the base section, including: a pair of extension portions that extend upward from a surface of the base section and that are disposed facing each other, and a pair of anchor claws that are formed at respective leading ends of the pair of extension portions, and that are configured to anchor an anchored member attached to a cover for covering the foam body by sandwiching the anchored member therebetween, wherein the through holes (36, 38) formed at the base section are aligned in the one direction, and a plurality of hole-rows (46, 48) formed by the through holes (36, 38) aligned in the one direction are separated by a spacing in an intersection direction intersecting the one direction, a gate mark that indicates an injection port for resin material during molding being formed at a back face that is an opposite side face to the surface of the base section, between adjacent hole-rows of the hole-rows (46, 48), and a plate thickness changing portion (42, 44, 142, 144) at which a thickness of the base section changes being formed between the gate mark and the through holes (36, 38) at the back face, as viewed from the back face of the base section along a plate thickness direction of the base section, wherein the plate thickness changing portion (42, 44) is either shaped as a curved line as viewed along the plate thickness direction, or the plate thickness changing portion (142, 144) is shaped by a straight line portion and an angular portion as viewed along the plate thickness direction, wherein the plate thickness changing portion (42, 44, 142, 144) is formed at one side in the one direction and at another side in the one direction, with the gate mark lying therebetween, and the plate thickness of the base section between two plate thickness changing portions (42, 44, 142, 144) is thicker than that of other portions of the base section. a base section having a plate shape extending in one direction, that is formed with through holes (36, 38) into which a foam body enters, and that is configured to be retained in the foam body; and an anchor portion formed at the front face of the base section, including: a pair of extension portions that extend upward from a surface of the base section and that are disposed facing each other, and a pair of anchor claws that are formed at respective leading ends of the pair of extension portions, and that are configured to anchor an anchored member attached to a cover for covering the foam body by sandwiching the anchored member therebetween, a pair of extension portions that extend upward from a surface of the base section and that are disposed facing each other, and a pair of anchor claws that are formed at respective leading ends of the pair of extension portions, and that are configured to anchor an anchored member attached to a cover for covering the foam body by sandwiching the anchored member therebetween,
A method for configuring an X-ray imaging system for taking an X-ray image of an object in a stationary position (107, 207, 307, 607, 707) comprising the following steps: - obtaining one or more first depth images from one or more depth cameras (801, 101, 102, 201); said one or more depth cameras covering at least an area (103, 203) covered by an X-ray bundle of an X-ray source (108, 208, 808) of said X-ray imaging system during actual exposure and object; - displaying an impression image (302, 402, 502, 602, 702, 854) derived from said one or more depth images on a display, of a client device (301, 851) to a user; said impression image comprising a representation of said area covered by said X-ray bundle during actual exposure; - obtaining from said client device a first geometric position correction of said X-ray imaging system with respect to said impression image; - converting said first geometric position correction to an actual geometric position configuration of said X-ray imaging system by a known relation between said one or more depth cameras and said X-ray imaging system; - applying said actual geometric position configuration to said X-ray imaging system. - obtaining one or more first depth images from one or more depth cameras (801, 101, 102, 201); said one or more depth cameras covering at least an area (103, 203) covered by an X-ray bundle of an X-ray source (108, 208, 808) of said X-ray imaging system during actual exposure and object; - displaying an impression image (302, 402, 502, 602, 702, 854) derived from said one or more depth images on a display, of a client device (301, 851) to a user; said impression image comprising a representation of said area covered by said X-ray bundle during actual exposure; - obtaining from said client device a first geometric position correction of said X-ray imaging system with respect to said impression image; - converting said first geometric position correction to an actual geometric position configuration of said X-ray imaging system by a known relation between said one or more depth cameras and said X-ray imaging system; - applying said actual geometric position configuration to said X-ray imaging system.
Method for determining a pressure inside a housing of a battery cell, which comprises a measurement electrode arranged inside the housing and an electrode unit arranged inside the housing, said electrode unit having a cathode, an anode and a separator impregnated with an electrolyte, wherein the housing is at least partly electrically conductive, wherein an electrical impedance between the measurement electrode and the housing is measured, and the pressure inside the housing is determined from the electrical impedance, characterized in that the electrical impedance of the separator of the electrode unit, said separator being impregnated with the electrolyte, is measured.
A delivery apparatus for implanting a prosthetic valve, comprising: a first elongated shaft having a proximal end portion and a distal end portion; a second elongated shaft extending through the first shaft and having a proximal end portion and a distal end portion, the second shaft being rotatable relative to the first shaft but fixed against axial movement relative to the first shaft; and a delivery sheath having a distal end portion configured to receive and retain a prosthetic valve in a compressed delivery state, and a proximal end portion coupled to the distal end portion of the second elongated shaft; wherein the second shaft is configured to be rotatable relative to the first shaft such that rotation of the second shaft causes the delivery sheath to move axially relative to the first and second shafts (606, 614), characterized in that the delivery apparatus further comprises a suture-retention member connected to a distal end of the distal end portion of the first shaft, the distal end portion of the first shaft extending through the delivery sheath; a plurality of suture loops extending from the suture-retention member and configured to extend through apertures (304, 308) in a stent of the prosthetic valve; and at least one slidable release member configured to extend through the suture-retention member and the suture loops to releasably secure the prosthetic valve to the suture-retention member. a first elongated shaft having a proximal end portion and a distal end portion; a second elongated shaft extending through the first shaft and having a proximal end portion and a distal end portion, the second shaft being rotatable relative to the first shaft but fixed against axial movement relative to the first shaft; and a delivery sheath having a distal end portion configured to receive and retain a prosthetic valve in a compressed delivery state, and a proximal end portion coupled to the distal end portion of the second elongated shaft; wherein the second shaft is configured to be rotatable relative to the first shaft such that rotation of the second shaft causes the delivery sheath to move axially relative to the first and second shafts (606, 614), characterized in that the delivery apparatus further comprises a suture-retention member connected to a distal end of the distal end portion of the first shaft, the distal end portion of the first shaft extending through the delivery sheath; a plurality of suture loops extending from the suture-retention member and configured to extend through apertures (304, 308) in a stent of the prosthetic valve; and at least one slidable release member configured to extend through the suture-retention member and the suture loops to releasably secure the prosthetic valve to the suture-retention member.