mhurhangee/patent-ind-claim-en huggingface dataset:
A system for direct vertebral rotation comprising: at least two levers , each of the levers being attachable to a pedicle screw implanted in a vertebra of a spine such that each lever extends proximally from the respective pedicle screw; and an elongate clamping instrument movable between an open position and a closed position, the clamping instrument defining a rectangular structure having a central opening therein in the closed position, the central opening configured to receive the levers therein when the clamping instrument is in the closed position, wherein the open position facilitates the arrangement of the clamping instrument about the levers, characterized in that : an inner portion of the clamping instrument along the central opening includes a compliant material , the compliant material being configured to conform so as to grip the levers received within the central opening when the clamping instrument is in the closed position. at least two levers , each of the levers being attachable to a pedicle screw implanted in a vertebra of a spine such that each lever extends proximally from the respective pedicle screw; and an elongate clamping instrument movable between an open position and a closed position, the clamping instrument defining a rectangular structure having a central opening therein in the closed position, the central opening configured to receive the levers therein when the clamping instrument is in the closed position, wherein the open position facilitates the arrangement of the clamping instrument about the levers, characterized in that : an inner portion of the clamping instrument along the central opening includes a compliant material , the compliant material being configured to conform so as to grip the levers received within the central opening when the clamping instrument is in the closed position.
A method of evaluating an earth formation intersected by a borehole , comprising: detecting a reflective boundary in the earth formation by using at least one processor for: generating a multipole acoustic signal with an acoustic tool in the borehole ; identifying a shear wave signal resulting from shear body waves reflected from the reflective boundary in the formation in a near-field region of the formation around the borehole responsive to the generated multipole acoustic signal; and estimating at least a depth along the borehole of the boundary based on the shear wave signal. detecting a reflective boundary in the earth formation by using at least one processor for: generating a multipole acoustic signal with an acoustic tool in the borehole ; identifying a shear wave signal resulting from shear body waves reflected from the reflective boundary in the formation in a near-field region of the formation around the borehole responsive to the generated multipole acoustic signal; and estimating at least a depth along the borehole of the boundary based on the shear wave signal. generating a multipole acoustic signal with an acoustic tool in the borehole ; identifying a shear wave signal resulting from shear body waves reflected from the reflective boundary in the formation in a near-field region of the formation around the borehole responsive to the generated multipole acoustic signal; and estimating at least a depth along the borehole of the boundary based on the shear wave signal.
A printed article with a visible surface and a printed surface that is arranged in the region of the visible surface , wherein the printed surface is printed with a halftone , in which halftone dots are arranged at a respective consistent dot-distance along halftone lines , each of which is a circular arc , wherein a first tangent on a first point of the circular arc and a second tangent on a second point of the circular arc include an angle (β) in the range between approximately 3 degrees and approximately 15 degrees, preferably in a range between approximately 5 degrees and approximately 10 degrees, wherein the angle (β) corresponds to the central angle of the circular arc defined by the first point and the second point , and wherein the second point of the circular arc , which is perpendicularly projected on the first tangent , is spaced apart from the first point of the circular arc along the first tangent by a distance in the range between approximately 10 cm and approximately 22 cm.
Heat ray shielding particles that are composite tungsten oxide particles having a hexagonal crystal structure represented by a general formula Li x M y WO z , wherein the element M in the general formula is one or more kinds of elements selected from alkaline earth metals and alkali metals other than lithium, 0.25 ≤ x ≤ 0.80, 0.10 ≤ y ≤ 0.50, and 2.20 ≤ z ≤ 3.00.
A system for determining a disease activity with respect to an area of interest of a body, comprising a control unit adapted to: record an intensity curve of detected intensities of light over time under at least two different perfusion conditions in an area of interest ; derive features from the detected intensities of light by fitting at least a part of the intensity curve by a fit function having fit parameters and using at least some of the fit parameters as the features for determining the disease activity; and determine the disease activity as a single value or a scalar value based on the features by using a predetermined regression vector, wherein the control unit is adapted to derive the features from the detected intensities of at least one predetermined wavelength or at least two predetermined wavelengths. record an intensity curve of detected intensities of light over time under at least two different perfusion conditions in an area of interest ; derive features from the detected intensities of light by fitting at least a part of the intensity curve by a fit function having fit parameters and using at least some of the fit parameters as the features for determining the disease activity; and determine the disease activity as a single value or a scalar value based on the features by using a predetermined regression vector, wherein the control unit is adapted to derive the features from the detected intensities of at least one predetermined wavelength or at least two predetermined wavelengths.
Sensor arrangement for measuring a temperature of a surface comprising: - a mounting element for mounting the sensor arrangement directly to the surface , - a basic body which is removably attached to the mounting element , - at least one sensor element arranged in an interior of the basic body , - a separating element which is at least partly inserted into the basic body , wherein the separating element is adapted and arranged to hold the sensor element in a fixed position with respect to the basic body , - a locking mechanism adapted and arranged to lock the basic body to the mounting element , wherein the locking mechanism comprises at least one first locking element and at least one second locking element which are adapted and arranged to mechanically cooperate with one another to lock the basic body to the mounting element , wherein the first locking element is part of the separating element , wherein the second locking element is part of the mounting element , and wherein the first locking element extends in a direction away from the surface once the sensor arrangement is mounted to the surface . - a mounting element for mounting the sensor arrangement directly to the surface , - a basic body which is removably attached to the mounting element , - at least one sensor element arranged in an interior of the basic body , - a separating element which is at least partly inserted into the basic body , wherein the separating element is adapted and arranged to hold the sensor element in a fixed position with respect to the basic body , - a locking mechanism adapted and arranged to lock the basic body to the mounting element , wherein the locking mechanism comprises at least one first locking element and at least one second locking element which are adapted and arranged to mechanically cooperate with one another to lock the basic body to the mounting element , wherein the first locking element is part of the separating element , wherein the second locking element is part of the mounting element , and wherein the first locking element extends in a direction away from the surface once the sensor arrangement is mounted to the surface .
An integrated antenna, comprising an antenna unit and a radio frequency unit , wherein the radio frequency unit comprises a duplexer , a power amplifier circuit board , and a transceiver circuit board , the duplexer connects to the power amplifier circuit board and the transceiver circuit board , the power amplifier circuit board connects to the transceiver circuit board , the power amplifier circuit board and the transceiver circuit board are respectively located at two end portions of the duplexer , the power amplifier circuit board and the transceiver circuit board are projected along a direction being vertical to the power amplifier circuit board , onto the same plane with their projections on the same plane non-overlapped each other, and the duplexer connects to a circuit board of the antenna unit through a coaxial connector ; characterized in that , the circuit board of the antenna unit comprises a feeder network circuit board and an antenna radiation unit feeder circuit board , the feeder network circuit board connects to the antenna radiation unit feeder circuit board , and the duplexer connects to the feeder network circuit board of the antenna unit through the coaxial connector .
An ultrasound diagnostic apparatus comprising: a table configured to mount at least one probe (P); a first sensor configured to detect a type information of the probe and a mounting state of the probe; a driver configured to generate a driving force for moving the table; and a controller , CHARACTERIZED BY a second sensor configured to detect a position of the table; a third sensor configured to detect a gesture of the user; and wherein the controller is configured to control the driver based on detection results of the first sensor and the second sensor, and to determine a first position of the table based on a detection result of the second sensor and move the table from the first position to a second position based on a detection result of the third sensor . a table configured to mount at least one probe (P); a first sensor configured to detect a type information of the probe and a mounting state of the probe; a driver configured to generate a driving force for moving the table; and a controller , CHARACTERIZED BY a second sensor configured to detect a position of the table; a third sensor configured to detect a gesture of the user; and wherein the controller is configured to control the driver based on detection results of the first sensor and the second sensor, and to determine a first position of the table based on a detection result of the second sensor and move the table from the first position to a second position based on a detection result of the third sensor .
An apparatus comprising: a Shockley diode having a plurality of regions of semiconductor material including: a first p region connected to an anode of the Shockley diode; a first n region forming a first p-n junction with the first p region, the first p-n junction having a first forward-bias voltage; a second p region forming a second p-n junction with the first n region; and a second n region connected to a cathode of the Shockley diode and forming a third p-n junction with the second p region; and a bypass circuit connected to the anode and forming an electrical connection with the first n region, having a second forward-bias voltage that is lower than the first forward-bias voltage, wherein the bypass circuit includes a Schottky diode . a Shockley diode having a plurality of regions of semiconductor material including: a first p region connected to an anode of the Shockley diode; a first n region forming a first p-n junction with the first p region, the first p-n a first p region connected to an anode of the Shockley diode; a first n region forming a first p-n junction with the first p region, the first p-n junction having a first forward-bias voltage; a second p region forming a second p-n junction with the first n region; and a second n region connected to a cathode of the Shockley diode and forming a third p-n junction with the second p region; and a second p region forming a second p-n junction with the first n region; and a second n region connected to a cathode of the Shockley diode and forming a third p-n junction with the second p region; and a bypass circuit connected to the anode and forming an electrical connection with the first n region, having a second forward-bias voltage that is lower than the first forward-bias voltage, wherein the bypass circuit includes a Schottky diode .
Method for operating a spring energy store drive of a medium-voltage switchgear installation , comprising the following steps: - measuring a drive current of an electric auxiliary drive for tensioning a drive spring of the spring energy store drive of the medium-voltage switchgear installation ; - tensioning the drive spring by means of the electric auxiliary drive ; - creating an evaluation data set depending on the measured drive current; - comparing the evaluation data set with an expectation; and - outputting a maintenance signal depending on a result of the comparing, wherein a temporal profile of the drive current is measured in the step of measuring the drive current and wherein the evaluation data set is created depending on the measured temporal profile of the drive current, characterized in that an integral of the temporal profile of the drive current is determined in the step of creating the evaluation data set, and in that in this case a first portion of the integral is determined, which indicates a tensioning work performed by the auxiliary drive. - measuring a drive current of an electric auxiliary drive for tensioning a drive spring of the spring energy store drive of the medium-voltage switchgear installation ; - tensioning the drive spring by means of the electric auxiliary drive ; - creating an evaluation data set depending on the measured drive current; - comparing the evaluation data set with an expectation; and - outputting a maintenance signal depending on a result of the comparing,
An apparatus for producing a workpiece made of glass, comprising at least - a device for heating the glass until it softens; - an inner forming tool for shaping the inner circumferential surfaces of the workpiece; - at least one outer forming tool for shaping the outer circumferential surfaces of the workpiece, comprising a forming roller with a forming surface, an accommodation device for the forming roller; and - a device for applying a lubricating oil to the forming surface of the forming roller, having an outlet opening for dispensing the lubricating oil; wherein the forming roller is mounted for free rotation in the accommodation device and can be fixed during the forming process by a lockable locking means, wherein the locking of the forming roller is effected by a releasable connection so that the forming roller can be released between the individual forming processes and can be rotated about an angle α in the locking means. - a device for heating the glass until it softens; - an inner forming tool for shaping the inner circumferential surfaces of the workpiece; - at least one outer forming tool for shaping the outer circumferential surfaces of the workpiece, comprising a forming roller with a forming surface, an accommodation device for the forming roller; and - a device for applying a lubricating oil to the forming surface of the forming roller, having an outlet opening for dispensing the lubricating oil;
A composite structure comprising a structure that contains first reinforced fibers and first resin and a laminate that is disposed on at least one surface of the structure and has a plurality of layers containing second reinforced fibers and second resin, with the structure and the laminate integrated, the first reinforced fibers being discontinuous fibers and having a thickness-wise average fiber orientation angle, measured by the method of the description, in a range of 5 to 60°, the second reinforced fibers being discontinuous fibers and having a thickness-wise average fiber orientation angle, measured by the method of the description, in a range of 0 to 5°, the structure having a density in a range of 0.01 to 1 g/cm 3 , the laminate having a variation in volume content of the second reinforced fibers, measured by the method of the description, in a range of 0 to 10%, each layer in the laminate having a cut, an absolute value of an angle θ between the cut and the second reinforced fibers being 2 to 25°, each layer in the laminate having substantially all the second reinforced fibers thereof divided by a cut, such that second reinforced fibers not divided by the cut have an area proportion of less than 5% in the area accounted for by the layer, and the composite structure having a protruding portion on a laminate's surface opposite from a laminate's surface in contact with the structure. the first reinforced fibers being discontinuous fibers and having a thickness-wise average fiber orientation angle, measured by the method of the description, in a range of 5 to 60°, the second reinforced fibers being discontinuous fibers and having a thickness-wise average fiber orientation angle, measured by the method of the description, in a range of 0 to 5°, the structure having a density in a range of 0.01 to 1 g/cm 3 , the laminate having a variation in volume content of the second reinforced fibers, measured by the method of the description, in a range of 0 to 10%, each layer in the laminate having a cut, an absolute value of an angle θ between the cut and the second reinforced fibers being 2 to 25°, each layer in the laminate having substantially all the second reinforced fibers thereof divided by a cut, such that second reinforced fibers not divided by the cut have an area proportion of less than 5% in the area accounted for by the layer, and the composite structure having a protruding portion on a laminate's surface opposite from a laminate's surface in contact with the structure.
A method of transmitting an uplink signal by a user equipment, UE , in a wireless communication system , the method comprising: determining (S105) a data transmission mode for a contention-based, CB, data transmission; and transmitting (S110) simultaneously, to a base station , a preamble including a preamble index, a control channel carrying control information including the data transmission mode and a data channel carrying one transport block, TB, during the CB data transmission, wherein the preamble index indicates a location of a resource to which the control channel is mapped within a contention resource region or a location of a resource to which the data transmission is mapped within the contention resource region, wherein the data transmission mode determined by the UE corresponds to either a first transmission mode where the one TB is divided into N sub-blocks and then the N sub-blocks are transmitted using N transmission units, with a one-to-one mapping, or a second transmission mode where the one TB is repeatedly transmitted M times using M transmission units, with a one-to-one mapping, and wherein the data transmission mode is determined based on received signal received power, RSRP, reference signal received quality, RSRQ, or received signal strength indicator, RSSI, obtained by measuring a reference signal, RS, received from the base station . determining (S105) a data transmission mode for a contention-based, CB, data transmission; and transmitting (S110) simultaneously, to a base station , a preamble including a preamble index, a control channel carrying control information including the data transmission mode and a data channel carrying one transport block, TB, during the CB data transmission, wherein the preamble index indicates a location of a resource to which the control channel is mapped within a contention resource region or a location of a resource to which the data transmission is mapped within the contention resource region, wherein the data transmission mode determined by the UE corresponds to either a first transmission mode where the one TB is divided into N sub-blocks and then the N sub-blocks are transmitted using N transmission units, with a one-to-one mapping, or a second transmission mode where the one TB is repeatedly transmitted M times using M transmission units, with a one-to-one mapping, and wherein the data transmission mode is determined based on received signal received power, RSRP, reference signal received quality, RSRQ, or received signal strength indicator, RSSI, obtained by measuring a reference signal, RS, received from the base station .
Method for masking messages in a list of messages displayed on a touch screen terminal, characterized in that it comprises, after an action by a user, the following steps: - Displaying a first masking symbol associated with a first message at a first location, and a second masking symbol associated with a second message at a second location, the first message and the second message being located on either side of a third message, - Simultaneously detecting a first contact with the screen on the masking symbol associated with the first message and a second contact with the screen on the masking symbol associated with the second message, - Continuously moving the masking symbol associated with each message on the list except the third message, in correlation with the movement of the contacts detected on the screen, and masking, for all the displayed messages except the third message, the portion located between the initial position of the masking symbol associated with each message and its current position, and - Masking , for each message on the list except the third message, the whole of the message when the masking symbol is at a second location and contact is no longer detected. - Displaying a first masking symbol associated with a first message at a first location, and a second masking symbol associated with a second message at a second location, the first message and the second message being located on either side of a third message, - Simultaneously detecting a first contact with the screen on the masking symbol associated with the first message and a second contact with the screen on the masking symbol associated with the second message, - Continuously moving the masking symbol associated with each message on the list except the third message, in correlation with the movement of the contacts detected on the screen, and masking, for all the displayed messages except the third message, the portion located between the initial position of the masking symbol associated with each message and its current position, and - Masking , for each message on the list except the third message, the whole of the message when the masking symbol is at a second location and contact is no longer detected.