mhurhangee/ep-ind-claims huggingface dataset:
A cask buffer body comprising: a shock absorber of a wood material configured to be attached to a cask that stores a recycle fuel to absorb a shock against the cask by being deformed, the shock absorber being formed by combining a plurality of shock absorber blocks made of a wood material in an annular shape and including a space (20; 22; 23; 24; 25; 26; 27), the space being a hole (20; 22; 23; 24; 27) or a notch (25; 26) formed in the shock absorber, characterized in that the space is provided so as to penetrate each of the plurality of shock absorber blocks in at least of the directions of a direction along a circumferential direction (Co) of the shock absorber and perpendicular to an axial direction of the cask and a radial direction of the shock absorber and to divide the fibres of the wood material, the space is suitable to generate shearing, cracking, and crashing in the shock absorber with this space as a point of origin, and in that the space is provided so as to divide the fibers of the wood material. a shock absorber of a wood material configured to be attached to a cask that stores a recycle fuel to absorb a shock against the cask by being deformed, the shock absorber being formed by combining a plurality of shock absorber blocks made of a wood material in an annular shape and including a space (20; 22; 23; 24; 25; 26; 27), the space being a hole (20; 22; 23; 24; 27) or a notch (25; 26) formed in the shock absorber, characterized in that the space is provided so as to penetrate each of the plurality of shock absorber blocks in at least of the directions of a direction along a circumferential direction (Co) of the shock absorber and perpendicular to an axial direction of the cask and a radial direction of the shock absorber and to divide the fibres of the wood material, the space is suitable to generate shearing, cracking, and crashing in the shock absorber with this space as a point of origin, and in that the space is provided so as to divide the fibers of the wood material.
A shock wave catheter system, comprising: a catheter having an elongated carrier, a balloon about the carrier in sealed relation thereto, the balloon being arranged to receive a fluid therein that inflates the balloon, and an arc generator including at least two electrodes (26, 28) within the balloon; and a power source that delivers a first electrical voltage across the at least two electrodes (26, 28) that grows a bubble at one of the at least two electrodes (26, 28) and then thereafter delivers a second electrical voltage across the at least two electrodes (26, 28) to create an arc across the at least two electrodes (26, 28) and to rapidly expand the bubble to form a shock wave within the balloon. a catheter having an elongated carrier, a balloon about the carrier in sealed relation thereto, the balloon being arranged to receive a fluid therein that inflates the balloon, and an arc generator including at least two electrodes (26, 28) within the balloon; and a power source that delivers a first electrical voltage across the at least two electrodes (26, 28) that grows a bubble at one of the at least two electrodes (26, 28) and then thereafter delivers a second electrical voltage across the at least two electrodes (26, 28) to create an arc across the at least two electrodes (26, 28) and to rapidly expand the bubble to form a shock wave within the balloon.
A system for performing an ovarian procedure comprising a transvaginal probe 9030) having a probe handle and an ultrasound transducer, the system comprising: an ovarian tissue apparatus comprising a docking device having an elongate body, a proximal end, a distal end, a side port disposed proximal to the distal end and defining a lumen therethrough, the docking device further comprising: an alignment element disposed on the proximal end of the docking device; an anchoring member disposed for reciprocation within the lumen and having a distal region and a beveled tip, the distal region transitioning to a curved shape when extended through the side port; a therapeutic element disposed on the distal region of the anchoring member; and a docking device handle comprising a deployment feature configured to be manipulated to deploy and retract the therapeutic element within the lumen of the docking device; an adapter configured to be removably coupled to the probe handle, the adapter comprising a receiving alignment channel having a corresponding geometry that allows engagement with the alignment element in a manner that prevents rotation of the docking device and therapeutic element relative to the ultrasound transducer to maintain planar orientation of the anchoring member and therapeutic element within a visualization plane of the transvaginal probe; and a generator configured to supply energy to the therapeutic element. an ovarian tissue apparatus comprising a docking device having an elongate body, a proximal end, a distal end, a side port disposed proximal to the distal end and defining a lumen therethrough, the docking device further comprising: an alignment element disposed on the proximal end of the docking device; an anchoring member disposed for reciprocation within the lumen and having a distal region and a beveled tip, the distal region transitioning to a curved shape when extended through the side port; a therapeutic element disposed on the distal region of the anchoring member; and a docking device handle comprising a deployment feature configured to be manipulated to deploy and retract the therapeutic element within the lumen of the docking device; an adapter configured to be removably coupled to the probe handle, the adapter comprising a receiving alignment channel having a corresponding geometry that allows engagement with the alignment element in a manner that prevents rotation of the docking device and therapeutic element relative to the ultrasound transducer to maintain planar orientation of the anchoring member and therapeutic element within a visualization plane of the transvaginal probe; and a generator configured to supply energy to the therapeutic element.
A method of configuring a personal computing device for communication with an aerosol generation device over a short-range wireless communication connection, the method comprising: a native application launching a web browser on the personal computing device; the web browser launching a progressive web application, PWA,, on the personal computing device; and the native application providing a resource to the web browser, which resource causes the web browser to process a call received by the web browser from the PWA intended for the aerosol generation device by directing a command based on the call to the native application, the command causing the native application to cause the personal communication device to communicate with the aerosol generation device over the short-range wireless communication connection. a native application launching a web browser on the personal computing device; the web browser launching a progressive web application, PWA,, on the personal computing device; and the native application providing a resource to the web browser, which resource causes the web browser to process a call received by the web browser from the PWA intended for the aerosol generation device by directing a command based on the call to the native application, the command causing the native application to cause the personal communication device to communicate with the aerosol generation device over the short-range wireless communication connection.
A transceiver arrangement (300, 402) comprising a receiver arranged for frequency-division duplex communication with a communication network; a transmitter arranged for frequency-division duplex communication with the communication network; a transmission port; a phase shifter arrangement which comprises a first 180° phase shifter and a second 180° phase shifter; and a filtering arrangement, which comprises filters of a first type (310, 312, 314) and filters of a second type (316, 318, 320), wherein the filtering arrangement and the phase shifter arrangement are arranged to connect the receiver, transmitter and transmission port forming a first signal path between the transmission port and the transmitter by a first one of the filters of the first type and the first phase shifter in series; a second signal path between the transmission port and the transmitter by a second one of the filters of the first type and a first one of the filters of the second type in series; a third signal path between the transmission port and the receiver by a second one of the filters of the second type and the second phase shifter in series; a fourth signal path between the transmission port and the receiver by a third one of the filters of the second type and a third one of the filters of the first type in series, and wherein the filters of the first type (310, 312, 314) are arranged to pass signals at transmitter frequency and attenuate signals at receiver frequency, and the filters of the second type (316, 318, 320) are arranged to attenuate signals at transmitter frequency and pass signals at receiver frequency.
A cartridge to be installed in a tape printing device including a cartridge installation part for installing the cartridge and a contact terminal part that is provided in the cartridge installation part and that comes in contact with an electrode part provided on a peripheral wall part of the cartridge and is elastically displaceable when the cartridge is installed in the cartridge installation part, the cartridge comprising: a cartridge case having a tape ejection port that ejects a printing tape; a tape path through which the printing tape is fed toward the tape ejection port; a feeding part that applies a feeding force (Fc) to the printing tape; and the electrode part, characterized in that, when seen from a front side in an installation direction of the cartridge, a feeding angle (θc) that is an angle formed by a feeding direction of the printing tape at a portion at which the feeding force is applied to the printing tape by the feeding part when the printing tape is fed toward the tape ejection port with respect to a direction in which the electrode part receives a force (Fdx) from the contact terminal part is less than 45°. a cartridge case having a tape ejection port that ejects a printing tape; a tape path through which the printing tape is fed toward the tape ejection port; a feeding part that applies a feeding force (Fc) to the printing tape; and the electrode part, characterized in that, when seen from a front side in an installation direction of the cartridge, a feeding angle (θc) that is an angle formed by a feeding direction of the printing tape at a portion at which the feeding force is applied to the printing tape by the feeding part when the printing tape is fed toward the tape ejection port with respect to a direction in which the electrode part receives a force (Fdx) from the contact terminal part is less than 45°.
A method for uplink power allocation in a Frequency Division Multiple Access communication system comprising: determining a channel condition in association with each user equipment of a plurality of user equipment (UEs); and wherein the method is characterized by: determining a parameter alpha α, wherein α is based on path loss compensation of a bottom percentage of UEs of the plurality of UEs, whose uplink transmit power is desired to be upwardly adjusted; determining a maximum transmit power of a UE of the plurality of UEs; determining a path loss threshold based on the determined channel conditions for the plurality of UEs; and determining an uplink transmit power level for the UE of the plurality of UEs based on the determined parameter alpha α, the determined maximum transmit power of the UE, the channel condition determined in association with the UE, and the determined path loss threshold. determining a channel condition in association with each user equipment of a plurality of user equipment (UEs); and wherein the method is characterized by: determining a parameter alpha α, wherein α is based on path loss compensation of a bottom percentage of UEs of the plurality of UEs, whose uplink transmit power is desired to be upwardly adjusted; determining a parameter alpha α, wherein α is based on path loss compensation of a bottom percentage of UEs of the plurality of UEs, whose uplink transmit power is desired to be upwardly adjusted; determining a maximum transmit power of a UE of the plurality of UEs; determining a path loss threshold based on the determined channel conditions for the plurality of UEs; and determining an uplink transmit power level for the UE of the plurality of UEs based on the determined parameter alpha α, the determined maximum transmit power of the UE, the channel condition determined in association with the UE, and the determined path loss threshold.
A sensing device, comprising: a substrate; a ferroelectric sensor ink printed onto the substrate to form a first sensor layer; a plurality of connected first electrodes and a plurality of connected second electrodes with said first sensor layer arranged in between, wherein pairs of overlapping first and second electrodes are configured to form capacitors, each corresponding to a sensor spot to generate a measurable voltage in response to charge generated in the first sensor layer; characterised in that the sensing device further comprises: a second sensor layer, wherein the second sensor layer is provided on the backside of the substrate, in particular by printing, or on top of the first sensor layer, in particular laminated on top of the first sensor layer; wherein the first sensor layer comprises a first plurality of substantially parallel conductive lines connected to the first electrodes, and the second sensor layer comprises a second plurality of substantially parallel conductive lines connected to the second electrodes, wherein the direction of the first electrodes and first conductive lines and the direction of the second electrodes and second conductive lines are rotated relative to one another by a predetermined angle, around an axis that extends perpendicular to the longitudinal extension of the first and second plurality of lines. a substrate; a ferroelectric sensor ink printed onto the substrate to form a first sensor layer; a plurality of connected first electrodes and a plurality of connected second electrodes with said first sensor layer arranged in between, wherein pairs of overlapping first and second electrodes are configured to form capacitors, each corresponding to a sensor spot to generate a measurable voltage in response to charge generated in the first sensor layer; a second sensor layer, wherein the second sensor layer is provided on the backside of the substrate, in particular by printing, or on top of the first sensor layer, in particular laminated on top of the first sensor layer; wherein the first sensor layer comprises a first plurality of substantially parallel conductive lines connected to the first electrodes, and the second sensor layer comprises a second plurality of substantially parallel conductive lines connected to the second electrodes, wherein the direction of the first electrodes and first conductive lines and the direction of the second electrodes and second conductive lines are rotated relative to one another by a predetermined angle, around an axis that extends perpendicular to the longitudinal extension of the first and second plurality of lines.
Method for the quality control of a spectacle lens (12, 12', 12"), having the following steps: establishing the topography of at least one optically effective surface of the spectacle lens; calculating local actual values (I[X,Y]) of at least one optical variable of the spectacle lens taking into account the established topography; calculating local deviations (F[X,Y]) of the calculated local actual values (I[X,Y]) from local intended values (S[X,Y]) for the at least one optical variable of the spectacle lens; establishing a quality measure for the spectacle lens (12, 12', 12") by virtue of the calculated local deviations (F[X,Y]) being evaluated; and assessing the established quality measure according to a quality specification, characterized in that the quality measure is calculated from a mean value M of the calculated local deviations (F[X,Y]) at grid points (P[X,Y]) distributed over the spectacle lens, wherein the mean value M is a mean value of the calculated local deviations (F[X,Y]) weighted by a weight distribution (G[X,Y]), wherein the weight distribution (G[f[X,Y]])for weighting the local deviation (F[X,Y]) is a function which assumes the value of zero if the calculated local deviation (F[X,Y]) drops below a predetermined value. establishing the topography of at least one optically effective surface of the spectacle lens; calculating local actual values (I[X,Y]) of at least one optical variable of the spectacle lens taking into account the established topography; calculating local deviations (F[X,Y]) of the calculated local actual values (I[X,Y]) from local intended values (S[X,Y]) for the at least one optical variable of the spectacle lens; establishing a quality measure for the spectacle lens (12, 12', 12") by virtue of the calculated local deviations (F[X,Y]) being evaluated; and assessing the established quality measure according to a quality specification, characterized in that the quality measure is calculated from a mean value M of the calculated local deviations (F[X,Y]) at grid points (P[X,Y]) distributed over the spectacle lens, wherein the mean value M is a mean value of the calculated local deviations (F[X,Y]) weighted by a weight distribution (G[X,Y]), wherein the weight distribution (G[f[X,Y]])for weighting the local deviation (F[X,Y]) is a function which assumes the value of zero if the calculated local deviation (F[X,Y]) drops below a predetermined value.
A bulk acoustic wave resonator, BAWR, comprising: a membrane disposed on an air cavity formed on a substrate; a first electrode disposed on the membrane; a piezoelectric layer disposed on the first electrode; a second electrode disposed on the piezoelectric layer; and a temperature coefficient of frequency, TCF, compensation layer to compensate for a TCF of the first electrode, the piezoelectric layer, and the second electrode, wherein the first electrode, the piezoelectric layer, the second electrode, and the TCF compensation layer comprise a carbon-based material, wherein the carbon-based material comprises at least one of a carbon nano tube, CNT, a CNT compound, graphene, and a graphene compound. a membrane disposed on an air cavity formed on a substrate; a first electrode disposed on the membrane; a piezoelectric layer disposed on the first electrode; a second electrode disposed on the piezoelectric layer; and a temperature coefficient of frequency, TCF, compensation layer to compensate for a TCF of the first electrode, the piezoelectric layer, and the second electrode, wherein the first electrode, the piezoelectric layer, the second electrode, and the TCF compensation layer comprise a carbon-based material, wherein the carbon-based material comprises at least one of a carbon nano tube, CNT, a CNT compound, graphene, and a graphene compound.
A method for generating a display frame on a terminal device having system vertical synchronization signals, the method comprising: obtaining virtual vertical synchronization signals, the virtual vertical synchronization signals being obtained by delaying the system vertical synchronization signals by a predetermined delay, respectively; triggering, by a first virtual vertical synchronization signal, a render operation, wherein each application currently running on the terminal device renders an image based on a user's touch slide operation on a screen of the terminal device; triggering, by a completion of the rendering operation or by a second virtual vertical synchronization signal immediately following the first virtual vertical synchronization signal, a compose operation within an application framework layer of the terminal device to compose a display frame from the rendered images of the applications; triggering, by a system vertical synchronization signal immediately following the second virtual vertical synchronization signal, the display on the screen of the terminal of the composed display frame. obtaining virtual vertical synchronization signals, the virtual vertical synchronization signals being obtained by delaying the system vertical synchronization signals by a predetermined delay, respectively; triggering, by a first virtual vertical synchronization signal, a render operation, wherein each application currently running on the terminal device renders an image based on a user's touch slide operation on a screen of the terminal device; triggering, by a completion of the rendering operation or by a second virtual vertical synchronization signal immediately following the first virtual vertical synchronization signal, a compose operation within an application framework layer of the terminal device to compose a display frame from the rendered images of the applications; triggering, by a system vertical synchronization signal immediately following the second virtual vertical synchronization signal, the display on the screen of the terminal of the composed display frame.
Mobile and/or household interactive furniture equipment, comprising: at least one work surface formed by at least one substrate made of transparent monolithic glass material with a surface area greater than 0.7 m2, said substrate having a light transmission T L greater than 60% and an opacity indicator ranging from 5 to 90, said substrate being mostly or entirely bare or coated with one or more coatings such that the coated substrate has a blur of less than 15% and/or a light transmission T L greater than 60% and/or an opacity indicator lower than 85, at least one heating element, at least one light source, particularly intended to materialize one or more zones, elements, or displays on the substrate, said source being positioned above the substrate for projection display or below the substrate for transmission display through the substrate, at least one communication interface with at least one element of the surface such as the light sources and/or the heating element(s), and/or with at least one external element for wireless communication, and an element attached to the substrate or work surface in such a way that the combination of the substrate or work surface and the attached element has a blur of more than 15%, and/or a light transmission T L lower than 50%, and/or an opacity indicator higher than 85. at least one work surface formed by at least one substrate made of transparent monolithic glass material with a surface area greater than 0.7 m2, said substrate having a light transmission T L greater than 60% and an opacity indicator ranging from 5 to 90, said substrate being mostly or entirely bare or coated with one or more coatings such that the coated substrate has a blur of less than 15% and/or a light transmission T L greater than 60% and/or an opacity indicator lower than 85, at least one heating element, at least one light source, particularly intended to materialize one or more zones, elements, or displays on the substrate, said source being positioned above the substrate for projection display or below the substrate for transmission display through the substrate, at least one communication interface with at least one element of the surface such as the light sources and/or the heating element(s), and/or with at least one external element for wireless communication, and an element attached to the substrate or work surface in such a way that the combination of the substrate or work surface and the attached element has a blur of more than 15%, and/or a light transmission T L lower than 50%, and/or an opacity indicator higher than 85.