mhurhangee/patent-ind-claim-en huggingface dataset:
A hammer , comprising: a handle , the handle having a bottom end and an upper end; and a head disposed on the upper end of the handle ; the handle and the head being separately formed structures; wherein the handle comprises: a core member ; a rigid material layer , the rigid material layer having a Shore D durometer hardness of about 65 to about 90; and a grip member molded on at least a portion of the rigid material layer ; wherein the grip member comprises a first elastomeric material layer molded on the rigid material layer , and a second elastomeric material layer , and the first elastomeric material layer is a different material from the second elastomeric material layer; wherein the first elastomeric material layer has a Shore A durometer hardness of about 20 to about 60 and the second elastomeric material layer has a Shore A durometer hardness of about 60 to about 80; characterized in that the rigid material layer is molded on the core member , and the second elastomeric material layer is molded on the first elastomeric material layer . a handle , the handle having a bottom end and an upper end; and a head disposed on the upper end of the handle ; the handle and the head being separately formed structures; wherein the handle comprises: a core member ; a rigid material layer , the rigid material layer having a Shore D durometer hardness of about 65 to about 90; and a grip member molded on at least a portion of the rigid material layer ; a core member ; a rigid material layer , the rigid material layer having a Shore D durometer hardness of about 65 to about 90; and a grip member molded on at least a portion of the rigid material layer ; wherein the grip member comprises a first elastomeric material layer molded on the rigid material layer , and a second elastomeric material layer , and the first elastomeric material layer is a different material from the second elastomeric material layer; wherein the first elastomeric material layer has a Shore A durometer hardness of about 20 to about 60 and the second elastomeric material layer has a Shore A durometer hardness of about 60 to about 80; characterized in that the rigid material layer is molded on the core member , and the second elastomeric material layer is molded on the first elastomeric material layer .
A method of providing key information from a sender to one or more implementations of a white-box function, the method comprising: obtaining initial key information comprising a plurality of units that assume respective values; forming encoded key information from the initial key information, wherein the encoded key information comprises a plurality of encoded units that correspond to respective units of the initial key information, wherein said forming comprises, for each unit of the initial key information, selecting an encoding from a plurality of invertible encodings associated with said unit that are a secret shared between the sender and said one or more implementations of the white-box function and encoding said value assumed by said unit with said selected encoding to form the corresponding encoded unit; providing the encoded key information to said one or more implementations of the white-box function; and identifying the selected encodings to each implementation of the white-box function. obtaining initial key information comprising a plurality of units that assume respective values; forming encoded key information from the initial key information, wherein the encoded key information comprises a plurality of encoded units that correspond to respective units of the initial key information, wherein said forming comprises, for each unit of the initial key information, selecting an encoding from a plurality of invertible encodings associated with said unit that are a secret shared between the sender and said one or more implementations of the white-box function and encoding said value assumed by said unit with said selected encoding to form the corresponding encoded unit; providing the encoded key information to said one or more implementations of the white-box function; and identifying the selected encodings to each implementation of the white-box function.
A method of reporting on a software update performed on a network composed of at least a plurality of wireless devices , wherein prior to the update the network is installed with operating software on one or more of the plurality of wireless devices which enables one or more existing functions across the plurality of wireless devices, and wherein the update is applied to the operating software on at least one of said one or more wireless devices and affects operation of two or more of the plurality of wireless devices; the method comprising, at a centralized network element : i) detecting one or more properties of the two or more wireless devices in the network, ii) reading the update to determine one or more new, and/or modified, and/or deleted functions of said two or more devices which the update is programmed to implement, and iii) receiving an electronic update report reporting whether or not the software update was successfully installed in memory of said at least one wireless device; for each software update reported to be successfully installed in iii), comparing the new, and/or modified, and/or deleted functions determined in ii) against the properties detected in i) in order to establish which of the new functions are now enabled within the network, and/or which of the existing functions are now disabled within the network due to the update; creating a customized report indicating said enabled and/or disabled functions; and outputting the customized report to be output to a user via a user device of the user. i) detecting one or more properties of the two or more wireless devices in the network, ii) reading the update to determine one or more new, and/or modified, and/or deleted functions of said two or more devices which the update is programmed to implement, and iii) receiving an electronic update report reporting whether or not the software update was successfully installed in memory of said at least one wireless device; for each software update reported to be successfully installed in iii), comparing the new, and/or modified, and/or deleted functions determined in ii) against the properties detected in i) in order to establish which of the new functions are now enabled within the network, and/or which of the existing functions are now disabled within the network due to the update; creating a customized report indicating said enabled and/or disabled functions; and outputting the customized report to be output to a user via a user device of the user. for each software update reported to be successfully installed in iii), comparing the new, and/or modified, and/or deleted functions determined in ii) against the properties detected in i) in order to establish which of the new functions are now enabled within the network, and/or which of the existing functions are now disabled within the network due to the update; creating a customized report indicating said enabled and/or disabled functions; and outputting the customized report to be output to a user via a user device of the user.
Method for calibrating a drive of a throttle valve of an internal combustion engine of a motor vehicle, wherein a correlation between a rotor position of the drive and an output voltage of a throttle valve angle transducer follows a characteristic, wherein the method comprises the following steps: detecting (S1) whether the internal combustion engine is currently running or is not running; characterized in that -- if it is detected that the internal combustion engine is currently not running, --- activating (S3) the drive to displace the throttle valve into a target position; and ---- calibrating (S4) the characteristic at the target position by means of a first calibration method; and -- if it is detected that the internal combustion engine is currently running, ---- the characteristic is calibrated (S5) by means of a second calibration method. detecting (S1) whether the internal combustion engine is currently running or is not running; characterized in that -- if it is detected that the internal combustion engine is currently not running, --- activating (S3) the drive to displace the throttle valve into a target position; and ---- calibrating (S4) the characteristic at the target position by means of a first calibration method; and -- if it is detected that the internal combustion engine is currently running, ---- the characteristic is calibrated (S5) by means of a second calibration method. -- if it is detected that the internal combustion engine is currently not running, --- activating (S3) the drive to displace the throttle valve into a target position; and ---- calibrating (S4) the characteristic at the target position by means of a first calibration method; and --- activating (S3) the drive to displace the throttle valve into a target position; and ---- calibrating (S4) the characteristic at the target position by means of a first calibration method; and -- if it is detected that the internal combustion engine is currently running, ---- the characteristic is calibrated (S5) by means of a second calibration method. ---- the characteristic is calibrated (S5) by means of a second calibration method.
A mask assembly comprising: a first upper portion comprising a first wall and a second wall converging to an apex , the apex being positioned in use in proximity to the nose of a user; a lower portion being connected to and positioned below the first upper portion ; a face contacting flange defined at least in part by the first upper portion and the lower portion ; a hinge axis (H) extending laterally across the mask assembly, the first upper portion being positioned vertically higher than the hinge axis (H); a first boundary extending along at least a portion of the first wall and along at least a portion of the second wall , the first boundary comprising a first end and a second end , both ends being spaced away from the hinge axis (H) toward the apex ; a radius R ( R 1 , R 2 , R 3 ) defined between the hinge axis (H) and the apex ; a second upper portion positioned distally from the first upper portion in a direction away from the face contacting flange , the second upper portion comprising an arc length defined along an upper extremity of a surface of the second upper portion , the arc length forming a second boundary; and a radius r defined between the hinge axis (H) and an uppermost point of the arc length , the radius R ( R 1 , R 2 , R 3 ) being different than the radius r; wherein at least a portion of a first outer surface of the first upper portion is configured to roll so as to overlie or underlie at least a portion of a second outer surface of the second upper portion when the first boundary is moved toward the second boundary. a first upper portion comprising a first wall and a second wall converging to an apex , the apex being positioned in use in proximity to the nose of a user; a lower portion being connected to and positioned below the first upper portion ; a face contacting flange defined at least in part by the first upper portion and the lower portion ; a hinge axis (H) extending laterally across the mask assembly, the first upper portion being positioned vertically higher than the hinge axis (H); a first boundary extending along at least a portion of the first wall and along at least a portion of the second wall , the first boundary comprising a first end and a second end , both ends being spaced away from the hinge axis (H) toward the apex ; a radius R ( R 1 , R 2 , R 3 ) defined between the hinge axis (H) and the apex ; a second upper portion positioned distally from the first upper portion in a direction away from the face contacting flange , the second upper portion comprising an arc length defined along an upper extremity of a surface of the second upper portion , the arc length forming a second boundary; and a radius r defined between the hinge axis (H) and an uppermost point of the arc length , the radius R ( R 1 , R 2 , R 3 ) being different than the radius r; wherein at least a portion of a first outer surface of the first upper portion is configured to roll so as to overlie or underlie at least a portion of a second outer surface of the second upper portion when the first boundary is moved toward the second boundary.
Mowing knife device with: a knife bar , and a double knife cutting system, wherein the double knife cutting system comprises an upper cutting knife and a lower cutting knife which are configured to be movable relative to each other, wherein the upper cutting knife is connected to the knife bar via an upper holding device and the lower cutting knife is connected to the knife bar via a lower holding device , wherein the upper holding device is mounted on the cutter bar via a guide bush , characterised in that a preloaded tension spring is arranged within the guide bush , wherein the tension force of the tension spring is configured to cause a pressing force of the upper cutting knife on the lower cutting knife via the upper holding device . a knife bar , and a double knife cutting system, wherein the double knife cutting system comprises an upper cutting knife and a lower cutting knife which are configured to be movable relative to each other, wherein the upper cutting knife is connected to the knife bar via an upper holding device and the lower cutting knife is connected to the knife bar via a lower holding device , wherein the upper holding device is mounted on the cutter bar via a guide bush , characterised in that a preloaded tension spring is arranged within the guide bush , wherein the tension force of the tension spring is configured to cause a pressing force of the upper cutting knife on the lower cutting knife via the upper holding device .
A peptide of less than 15 amino acids having cytotoxic T cell (CTL)-inducing ability, wherein the peptide comprises the amino acid sequence selected from the group below: (a) the amino acid sequence selected from the group consisting of SEQ ID NOs: 2, 1, 3, 6, 7, 11, 12, 17, 18, 20, 22, 24, 26, 32, 33, 36, 39, 41, 42, 45 and 46; and (b) the amino acid sequence in which one or two amino acids are substituted and/or added to the amino acid sequence selected from the group consisting of SEQ ID NOs: 2, 1, 3, 6, 7, 11, 12, 17, 18, 20, 22, 24, 26, 32, 33, 36, 39, 41, 42, 45 and 46. (a) the amino acid sequence selected from the group consisting of SEQ ID NOs: 2, 1, 3, 6, 7, 11, 12, 17, 18, 20, 22, 24, 26, 32, 33, 36, 39, 41, 42, 45 and 46; and (b) the amino acid sequence in which one or two amino acids are substituted and/or added to the amino acid sequence selected from the group consisting of SEQ ID NOs: 2, 1, 3, 6, 7, 11, 12, 17, 18, 20, 22, 24, 26, 32, 33, 36, 39, 41, 42, 45 and 46.
A multi-edge reamer with a cutting region having a base body comprising a centre axis (M), - wherein from the cutting region extend - at least a first number of first edges , each with a cutting edge and with an adjoining circular grinding chamfer with a first width (B1) forming a guide region for the respective first edge , and - a second number of second edges , each with a cutting edge and with an adjoining circular grinding chamfer with a second width (B2) forming a guide region for the respective second edge , wherein - the first width (B1) is greater than the second width (B2), wherein - the first number of first edges is greater than the second number of second edges , wherein - all the first edges are directly adjacent to one another - viewed in circumferential direction - so that they are arranged in a contiguous group, characterised in that - exactly one second edge is provided, and in that - the first number is at least three to at most seven. - wherein from the cutting region extend - at least a first number of first edges , each with a cutting edge and with an adjoining circular grinding chamfer with a first width (B1) forming a guide region for the respective first edge , and - a second number of second edges , each with a cutting edge and with an adjoining circular grinding chamfer with a second width (B2) forming a guide region for the respective second edge , wherein - at least a first number of first edges , each with a cutting edge and with an adjoining circular grinding chamfer with a first width (B1) forming a guide region for the respective first edge , and - a second number of second edges , each with a cutting edge and with an adjoining circular grinding chamfer with a second width (B2) forming a guide region for the respective second edge , wherein - the first width (B1) is greater than the second width (B2), wherein - the first number of first edges is greater than the second number of second edges , wherein - all the first edges are directly adjacent to one another - viewed in circumferential direction - so that they are arranged in a contiguous group, characterised in that - exactly one second edge is provided, and in that - the first number is at least three to at most seven.
A system for modifying the pH of a dialysate, comprising: a dialysate flow loop for circulating a dialysate through a dialyzer, wherein acid or base equivalents are added to the dialysate during operation of the dialysate flow loop; a dialysate regeneration unit comprising a sorbent cartridge comprising at least a urease layer; an infusate system configured to add a bicarbonate buffer component or unbuffered sodium bicarbonate to the dialysate after exiting the regeneration unit ; a urea sensor that measures or allows for the calculation of urea content of the dialysate in at least one portion of the dialysate flow loop; wherein the urea sensor measures the urea content of the dialysate directly, or measures the urea content of the dialysate indirectly by measuring changes in conductivity, pH, CO 2 , or ammonia concentration; and a pH buffer sensor for determining a concentration of bicarbonate in the dialysate exiting the dialysate regeneration unit; a controller for calculating the amount of bicarbonate buffer component or unbuffered sodium bicarbonate for addition to the dialysate to adjust the dialysate to be of a predetermined pH and bicarbonate buffer concentration; characterized in that the amount of the bicarbonate buffer component or unbuffered sodium bicarbonate for addition to the dialysate is based on the urea content from the urea sensor and the bicarbonate concentration from the pH buffer sensor. a dialysate flow loop for circulating a dialysate through a dialyzer, wherein acid or base equivalents are added to the dialysate during operation of the dialysate flow loop; a dialysate regeneration unit comprising a sorbent cartridge comprising at least a urease layer; an infusate system configured to add a bicarbonate buffer component or unbuffered sodium bicarbonate to the dialysate after exiting the regeneration unit ; a urea sensor that measures or allows for the calculation of urea content of the dialysate in at least one portion of the dialysate flow loop; wherein the urea sensor measures the urea content of the dialysate directly, or measures the urea content of the dialysate indirectly by measuring changes in conductivity, pH, CO 2 , or ammonia concentration; and a pH buffer sensor for determining a concentration of bicarbonate in the dialysate exiting the dialysate regeneration unit; a controller for calculating the amount of bicarbonate buffer component or unbuffered sodium bicarbonate for addition to the dialysate to adjust the dialysate to be of a predetermined pH and bicarbonate buffer concentration; characterized in that the amount of the bicarbonate buffer component or unbuffered sodium bicarbonate for addition to the dialysate is based on the urea content from the urea sensor and the bicarbonate concentration from the pH buffer sensor.
A catheter assembly , comprising: a hollow catheter ; a catheter hub configured to fix and hold the catheter ; an inner needle including a needlepoint and configured to be detachably inserted through inside of the catheter ; a needle hub configured to fix and hold the inner needle ; and a catheter operation member capable of moving the catheter relative to the inner needle , wherein the catheter operation member includes a holding portion including a pair of projecting portions configured to directly hold the catheter in a detachable manner. a hollow catheter ; a catheter hub configured to fix and hold the catheter ; an inner needle including a needlepoint and configured to be detachably inserted through inside of the catheter ; a needle hub configured to fix and hold the inner needle ; and a catheter operation member capable of moving the catheter relative to the inner needle , wherein the catheter operation member includes a holding portion including a pair of projecting portions configured to directly hold the catheter in a detachable manner.
A variable vane control system for controlling the angle of rotation of a circumferential row of variable vanes of a gas turbine engine, the control system including: a mechanical linkage operable to rotate the variable vanes; one or more actuators for operating the linkage; one or more position sensors for detecting the respective actuation positions of the one or more actuators; a linkage position signalling switch for signalling that the mechanical linkage is at a calibration position corresponding to a predetermined rotation angle of the vanes; and a controller configured to control the one or more actuators and thereby control the angle of rotation of the vanes, based on the detected actuation positions which the controller correlates with vane rotation angle; characterised in that the controller is further configured to correct the correlation between the detected actuation positions and vane rotation angle on receipt of a signal from the linkage position signalling switch which only signals when the mechanical linkage is at the calibration position. a mechanical linkage operable to rotate the variable vanes; one or more actuators for operating the linkage; one or more position sensors for detecting the respective actuation positions of the one or more actuators; a linkage position signalling switch for signalling that the mechanical linkage is at a calibration position corresponding to a predetermined rotation angle of the vanes; and a controller configured to control the one or more actuators and thereby control the angle of rotation of the vanes, based on the detected actuation positions which the controller correlates with vane rotation angle; characterised in that the controller is further configured to correct the correlation between the detected actuation positions and vane rotation angle on receipt of a signal from the linkage position signalling switch which only signals when the mechanical linkage is at the calibration position.