mhurhangee/patent-ind-claim-en huggingface dataset:
A self-expanding vascular implant for implanting into a blood vessel, comprising a hollow-cylindrical body with a proximal end and a distal end and a longitudinal direction, and also comprising stent springs successively arranged at a distance in its longitudinal direction and, respectively, circumferentially meandering, and comprising an implant material fixed to the stent springs and connecting them, the stent springs only being connected by way of the implant material and not between one another, and the circumferential stent springs having pointed arches facing alternately toward the proximal direction (x) and the distal direction (y), which are connected to one another by way of legs, wherein a higher pointed arch , facing toward the proximal direction x, of a first stent spring lies opposite a shorter pointed arch , facing toward the distal direction y, of a second stent spring arranged proximally thereafter, at a distance and at an imaginary line (A) that is parallel to the longitudinal direction of the vascular implant , and/or in that a shorter pointed arch , facing toward the proximal direction x, of a first stent spring lies opposite a longer pointed arch , facing toward the distal direction y, of a second stent spring arranged thereafter in the proximal direction x, at a distance and at an imaginary line (A) that is parallel to the longitudinal direction of the vascular implant characterized in that at least two stent springs successively arranged in the longitudinal direction, respectively, have legs of different lengths for forming of circumferentially arranged pointed arches of varying height, with higher and shorter pointed arches, wherein at least three legs that are successively arranged in circumferential direction of one stent spring have different lengths.
A vacuum insulated structure , comprising: a first panel having an inner surface and an access aperture disposed therethrough; a mesh member positioned on the inner surface of the first panel ; a filter member covering the mesh member to define a channel between the mesh member (30 and the filter member , wherein the channel is in fluid communication with the access aperture of the first panel ; a second panel operably coupled to the first panel to define a vacuum cavity therebetween, wherein air can be drawn from the vacuum cavity through the filter member and through the channel to a vacuum port disposed over the access aperture ; and an insulation material disposed in the vacuum cavity , characterized in that the mesh member covers the entire inner surface of the first panel and that the filter member covers the entire inner surface of the first panel . a first panel having an inner surface and an access aperture disposed therethrough; a mesh member positioned on the inner surface of the first panel ; a filter member covering the mesh member to define a channel between the mesh member (30 and the filter member , wherein the channel is in fluid communication with the access aperture of the first panel ; a second panel operably coupled to the first panel to define a vacuum cavity therebetween, wherein air can be drawn from the vacuum cavity through the filter member and through the channel to a vacuum port disposed over the access aperture ; and an insulation material disposed in the vacuum cavity , characterized in that the mesh member covers the entire inner surface of the first panel and that the filter member covers the entire inner surface of the first panel .
A base-station control device that is configured to issue an operation instruction to each of base stations in a wireless communication system in which a plurality of the base stations (10, 10 1 , 10 2 ,...) perform transmission at a same time and a same frequency, wherein the base-station control device is configured to collect, from each of the plurality of base stations (10, 10 1 , 10 2 ,...), a frequency offset of a reception signal from a mobile station (30, 30 1 , 30 2 ,...) that is detected by each of the plurality of base stations (10, 10 1 , 10 2 ,...), and the base-station control device is configured to determine phase rotation amounts for the base stations (10, 10 1 , 10 2 ,...), respectively, the rotation amount being used when each base station (10, 10 1 , 10 2 ,...) rotates a phase of a transmission signal, the base-station control device being configured to determine each rotation amount with respect to the base station having collected the frequency offsets to be used by at least, among a plurality of the frequency offsets collected from the base stations (10, 10 1 , 10 2 ,...), using two or more of the frequency offsets detected by base stations (10, 10 1 , 10 2 ,...) that are different from each other out of the plurality of base stations (10, 10 1 , 10 2 ,...), or using the frequency offsets of reception signals from two or more different mobile stations (30, 30 1 , 30 2 ,...) that are collected from one of the base stations (10, 10 1 , 10 2 ,...).
An ice cream making assembly for a base driven appliance, the ice cream making assembly to be supported by the base driven appliance, the ice cream making assembly including: a freezer bowl for cooling foods therein; a paddle within the freezer bowl , the paddle configured to be driven to rotate by the base driven appliance; and a lid configured to be retained by the freezer bowl , wherein the freezer bowl is a dual wall freezer bowl, wherein the freezer bowl has a central sleeve that defines an annular reservoir region within the freezer bowl , wherein the central sleeve defines a centrally located aperture for receiving a paddle coupling , wherein the central sleeve extends upwardly past a fill height, wherein the freezer bowl has an inner-surface formation and an outer-surface formation , the inner-surface formation being a seamless surface that is wrapped over an upper edge of an outer wall of the freezer bowl and the central sleeve , and the inner-surface formation and the outer-surface formation defining a sealed intermediate void region; characterized in that the ice cream making assembly further includes a gear assembly to be driven by the base driven appliance to provide a geared drive coupling element for driving rotation of the paddle within the freezer bowl , and the central sleeve defines a lower recess in which the gear assembly is located. a freezer bowl for cooling foods therein; a paddle within the freezer bowl , the paddle configured to be driven to rotate by the base driven appliance; and a lid configured to be retained by the freezer bowl , wherein the freezer bowl is a dual wall freezer bowl, wherein the freezer bowl has a central sleeve that defines an annular reservoir region within the freezer bowl , wherein the central sleeve defines a centrally located aperture for receiving a paddle coupling , wherein the central sleeve extends upwardly past a fill height, wherein the freezer bowl has an inner-surface formation and an outer-surface formation , the inner-surface formation being a seamless surface that is wrapped over an upper edge of an outer wall of the freezer bowl and the central sleeve , and the inner-surface formation and the outer-surface formation defining a sealed intermediate void region; characterized in that the ice cream making assembly further includes a gear assembly to be driven by the base driven appliance to provide a geared drive coupling element for driving rotation of the paddle within the freezer bowl , and the central sleeve defines a lower recess in which the gear assembly is located.
A method comprising: receiving an orthogonal frequency division multiplexing, OFDM, symbol that comprises a plurality of signals on a subset of subcarriers, wherein information is coded to a phase difference between two adjacent subcarriers, and wherein the subset of subcarriers is represented by a sequence of bits, wherein each bit of the sequence indicates whether a subcarrier contains a signal or no power, and detecting a fast Fourier transform size of following OFDM symbols based on the signals on the subset of subcarriers. receiving an orthogonal frequency division multiplexing, OFDM, symbol that comprises a plurality of signals on a subset of subcarriers, wherein information is coded to a phase difference between two adjacent subcarriers, and wherein the subset of subcarriers is represented by a sequence of bits, wherein each bit of the sequence indicates whether a subcarrier contains a signal or no power, and detecting a fast Fourier transform size of following OFDM symbols based on the signals on the subset of subcarriers.
An energetic material device , comprising: a casing ; an energetic material in a solid state within the casing; an optical sensor (530a-d, 531a-d, 532a-d, 533a-d) encased within the energetic material to sense a condition of the energetic material; an optical fiber (540-543), wherein the optical fiber includes the optical sensor; characterized in that the energetic material device further comprises: an optical fiber positioning device (570a-c) supporting the optical fiber, thereby positioning the optical fiber in a strategic location. a casing ; an energetic material in a solid state within the casing; an optical sensor (530a-d, 531a-d, 532a-d, 533a-d) encased within the energetic material to sense a condition of the energetic material; an optical fiber (540-543), wherein the optical fiber includes the optical sensor; characterized in that the energetic material device further comprises: an optical fiber positioning device (570a-c) supporting the optical fiber, thereby positioning the optical fiber in a strategic location.
A hydroponic growing apparatus , comprising: a housing ; a water reservoir positioned in the housing and comprising a bottom surface and an open top surface; a support structure configured to fit into the open top surface of the housing and defining a plurality of openings ; at least one cover plate configured to fit over the support structure in the open top surface of the housing, the at least one cover plate comprising a plurality of cut-outs corresponding to the plurality of openings of the support structure ; a pump positioned in the water reservoir , the pump comprising an inlet and an outlet; a sprayer coupled to the outlet of the pump ; and a lighting system coupled to the housing ; characterized in that the hydroponic growing apparatus further comprises: a power source positioned in the housing ; and a pump power cord extending from the pump in the water reservoir to the power source in the housing , wherein the bottom surface of the water reservoir comprises a channel including raised walls configured to receive the pump power cord . a housing ; a water reservoir positioned in the housing and comprising a bottom surface and an open top surface; a support structure configured to fit into the open top surface of the housing and defining a plurality of openings ; at least one cover plate configured to fit over the support structure in the open top surface of the housing, the at least one cover plate comprising a plurality of cut-outs corresponding to the plurality of openings of the support structure ; a pump positioned in the water reservoir , the pump comprising an inlet and an outlet; a sprayer coupled to the outlet of the pump ; and a lighting system coupled to the housing ; characterized in that the hydroponic growing apparatus further comprises: a power source positioned in the housing ; and a pump power cord extending from the pump in the water reservoir to the power source in the housing , wherein the bottom surface of the water reservoir comprises a channel including raised walls configured to receive the pump power cord .
A terminal comprising: a receiving section configured to detect a first synchronization signal block including a synchronization signal and a physical broadcast channel, and receive, in a random access procedure based on the first synchronization signal block, a configuration information indicating a second synchronization signal block; and a control section configured to control reception of the second synchronization signal block based on the configuration information, wherein when the control section is configured to perform a radio resource management, RRM, measurement based on the second synchronization signal block and whole or part of the second synchronization signal block is not included in a band assigned to the terminal, the control section is configured to perform the RRM measurement with a measurement gap. a receiving section configured to detect a first synchronization signal block including a synchronization signal and a physical broadcast channel, and receive, in a random access procedure based on the first synchronization signal block, a configuration information indicating a second synchronization signal block; and a control section configured to control reception of the second synchronization signal block based on the configuration information, wherein when the control section is configured to perform a radio resource management, RRM, measurement based on the second synchronization signal block and whole or part of the second synchronization signal block is not included in a band assigned to the terminal, the control section is configured to perform the RRM measurement with a measurement gap.
Method for determining a pair of ophthalmic lenses for a wearer, comprising the steps of: - measurement of the near-vision offset of the sagittal plane of the wearer, with respect to the standard sagittal plane ; where: ▪ the standard sagittal plane is a plane perpendicular to the segment having for ends the rotation centres of the eyes and passing through the middle of said segment; and ▪ the sagittal plane of the wearer is a plane perpendicular to said segment and passing through the gaze fixation point (M); - selection of donned conditions under which the pair of lenses will be worn by a wearer; - selection , depending on the offset measured for the wearer, of target astigmatism and power values for an optimization via optical calculation under the selected donned conditions, the astigmatism and power targets in the object space being offset by said measured offset and the selection of the astigmatism and power targets being such that, in the near-vision zone, the middle of the field of vision corresponds to the direction of the gaze of the wearer toward points of the measured sagittal plane; - determination of the pair of lenses via optimization via optical calculation under the donned conditions, using the selected target astigmatism and power values. - measurement of the near-vision offset of the sagittal plane of the wearer, with respect to the standard sagittal plane ; where: ▪ the standard sagittal plane is a plane perpendicular to the segment having for ends the rotation centres of the eyes and passing through the middle of said segment; and ▪ the sagittal plane of the wearer is a plane perpendicular to said segment and passing through the gaze fixation point (M); ▪ the standard sagittal plane is a plane perpendicular to the segment having for ends the rotation centres of the eyes and passing through the middle of said segment; and ▪ the sagittal plane of the wearer is a plane perpendicular to said segment and passing through the gaze fixation point (M); - selection of donned conditions under which the pair of lenses will be worn by a wearer; - selection , depending on the offset measured for the wearer, of target astigmatism and power values for an optimization via optical calculation under the selected donned conditions, the astigmatism and power targets in the object space being offset by said measured offset and the selection of the astigmatism and power targets being such that, in the near-vision zone, the middle of the field of vision corresponds to the direction of the gaze of the wearer toward points of the measured sagittal plane; - determination of the pair of lenses via optimization via optical calculation under the donned conditions, using the selected target astigmatism and power values.
A tyre comprising a tread portion having a main groove extending continuously in a tyre circumferential direction and a pair of land regions adjacent to the main groove on both sides thereof, wherein at least one of the pair of the land regions has, on an edge (4B1) thereof facing the main groove , a plurality of main groove side step-like portions , a height of each of the plurality of the main groove side step-like portions is decreased stepwise in two or more steps from a ground contacting surface (4B2) of the at least one of the pair of the land regions to a bottom surface (3B1) of the main groove , and the plurality of the main groove side step-like portions includes at least a first main groove side step-like portion and a second main groove side step-like portion having different numbers of the steps from each other, wherein the tyre further comprises a plurality of lateral grooves extending in a tyre axial direction and arranged at intervals in the tyre circumferential direction, wherein the at least one of the pair of the land regions is divided into a plurality of blocks by the main groove and the plurality of the lateral grooves , characterized in that at least a first edge (8B1) of edges adjacent to the lateral grooves of the plurality of the blocks includes a lateral groove side step-like portion in which a height thereof is decreased stepwise in two or more steps from a ground contacting surface (8B3) of the block to which the first edge (8B1) belongs to a bottom surface (7B1) of one of the lateral grooves adjacent thereto, and a second edge (8B2) of one of the blocks facing the lateral groove side step-like portion with the one of the lateral grooves therebetween has different a number of steps from that of the lateral groove side step-like portion .
Encoder for rail vehicles for detecting a rotational position and/or change in position of the axle of a rail vehicle, comprising - an encoder housing for mounting the encoder on the rail vehicle; - a first scanning component rotatably mounted relative to the encoder housing ; - a second scanning component mounted so that it is stationary relative to the encoder housing ; and - a bearing mechanism mounted in the encoder housing , with a shaft and at least one rotary bearing rotatably supporting the shaft in the encoder housing , the shaft carrying the first scanning component , characterized in that the bearing mechanism and the first scanning component are combined to form a bearing module which can be inserted into the encoder housing in one piece and/or removed from the encoder housing in one piece. - an encoder housing for mounting the encoder on the rail vehicle; - a first scanning component rotatably mounted relative to the encoder housing ; - a second scanning component mounted so that it is stationary relative to the encoder housing ; and - a bearing mechanism mounted in the encoder housing , with a shaft and at least one rotary bearing rotatably supporting the shaft in the encoder housing , the shaft carrying the first scanning component ,
A supporting and stable positioning system suitable for a shelf of a piece of furniture, wherein said piece of furniture comprises a pair of shoulders positioned on a floor (P) and between which shelves are arranged, each shoulder providing a series of spaced overlapping holes , and wherein said system comprises a bush and a shelf support , said bush being suitable to be inserted in each hole , said bush being suitable for receiving a pin which extends from said shelf support , wherein said pin of said shelf support is rotatable within said bush so as to allow said shelf support to be positioned in a housing formed in said shelf in a surface thereof facing said floor (P), and said bush is expandable and provided with a movable stopper facing a shelf or towards an opposite shoulder characterized in that said movable stopper is pushed to align with a surface of said shoulder in which said hole is formed by means of a spring arranged in said bush .
A compound or salt or solvate thereof, whereby said compound is selected from the group consisting of: 9-Ethyl-8-[4-(2-hydroxy-ethylamino)-piperidin-1-yl]-6,6-dimethyl-11-oxo-6,11-dihydro-5H-benzo[b]carbazole-3-carbonitrile and 8-(4-Amino-piperidine-1-yl)-9-ethyl-6,6-dimethyl-11-oxo-6,11-dihydro-5H-benzo[b]carbazole-3-carbonitrile. 9-Ethyl-8-[4-(2-hydroxy-ethylamino)-piperidin-1-yl]-6,6-dimethyl-11-oxo-6,11-dihydro-5H-benzo[b]carbazole-3-carbonitrile and 8-(4-Amino-piperidine-1-yl)-9-ethyl-6,6-dimethyl-11-oxo-6,11-dihydro-5H-benzo[b]carbazole-3-carbonitrile.
Panic bar device comprising - a first bearing assembly and a second bearing assembly configured for being fixed to a door , - a first arm pivotally coupled at a first end to the first bearing assembly by means of a first operating shaft , - a second arm pivotally coupled at a first end to the second bearing assembly by means of a second operating shaft , and - a bar coupled to a second end of the first arm and to a second end of the second arm , such that the bar , the first arm , and the second arm pivot with respect to the bearing assemblies when the bar is pushed, the bearing assembly comprising a rotating shaft comprising a housing for the operating shaft , the rotating shaft being configured for rotating together with the operating shaft and the respective arm of the panic bar device , characterized in that it further comprises a plurality of pairs of arms configured for having different inclinations in the panic bar device with respect to a front surface of the door in a standby state of the panic bar device in which the bar is not pushed, the different inclinations being obtained by varying the angular orientation of the operating shaft with respect to the arms , the first arm and the second arm being selected from the plurality of pairs of arms . - a first bearing assembly and a second bearing assembly configured for being fixed to a door , - a first arm pivotally coupled at a first end to the first bearing assembly by means of a first operating shaft , - a second arm pivotally coupled at a first end to the second bearing assembly by means of a second operating shaft , and - a bar coupled to a second end of the first arm and to a second end of the second arm , such that the bar , the first arm , and the second arm pivot with respect to the bearing assemblies when the bar is pushed, the bearing assembly comprising a rotating shaft comprising a housing for the operating shaft , the rotating shaft being configured for rotating together with the operating shaft and the respective arm of the panic bar device , characterized in that it further comprises a plurality of pairs of arms configured for having different inclinations in the panic bar device with respect to a front surface of the door in a standby state of the panic bar device in which the bar is not pushed, the different inclinations being obtained by varying the angular orientation of the operating shaft with respect to the arms , the first arm and the second arm being selected from the plurality of pairs of arms .