mhurhangee/patent-ind-claim-en huggingface dataset:
A painting device , comprising: a paint output part for outputting paint (P) towards an object to be painted ; a paint piping for the paint (P) to pass through towards the paint output part ; a paint supply part for supplying the paint (P) to the paint piping from a side opposite to the paint output part , and a movable body provided inside the paint piping , the movable body moving inside the paint piping towards the paint output part , while the paint output part is outputting the paint towards the object to be painted ; the painting device further comprising: a stop (SN) for preventing a movement of the movable body from an end of the paint piping adjacent to the paint supply part . a paint output part for outputting paint (P) towards an object to be painted ; a paint piping for the paint (P) to pass through towards the paint output part ; a paint supply part for supplying the paint (P) to the paint piping from a side opposite to the paint output part , and a movable body provided inside the paint piping , the movable body moving inside the paint piping towards the paint output part , while the paint output part is outputting the paint towards the object to be painted ; the painting device further comprising: a stop (SN) for preventing a movement of the movable body from an end of the paint piping adjacent to the paint supply part .
An airfoil assembly comprising: an airfoil fairing having a fairing platform and a hollow airfoil section extending from the fairing platform , wherein the fairing platform has a wall ; a spar having a spar leg extending in the hollow airfoil section , the spar leg having a spar leg periphery ; and a seal plate secured with the fairing platform , the seal plate having an opening , the opening having an opening periphery (82a-1) that is complementary to the spar leg periphery , the spar leg extending through the opening , characterised in that : the seal plate has a first plate piece and a second plate piece , wherein the wall of the fairing platform is sandwiched between the first plate piece and the second plate piece , wherein the wall of the fairing platform has an edge offset from edges of the opening to form a channel around the opening periphery (82a-1) and between the first plate piece and the second plate piece ; and the airfoil assembly comprises a crush seal arranged in the channel , the seal sealing around the spar leg periphery . an airfoil fairing having a fairing platform and a hollow airfoil section extending from the fairing platform , wherein the fairing platform has a wall ; a spar having a spar leg extending in the hollow airfoil section , the spar leg having a spar leg periphery ; and a seal plate secured with the fairing platform , the seal plate having an opening , the opening having an opening periphery (82a-1) that is complementary to the spar leg periphery , the spar leg extending through the opening , characterised in that : the seal plate has a first plate piece and a second plate piece , wherein the wall of the fairing platform is sandwiched between the first plate piece and the second plate piece , wherein the wall of the fairing platform has an edge offset from edges of the opening to form a channel around the opening periphery (82a-1) and between the first plate piece and the second plate piece ; and the airfoil assembly comprises a crush seal arranged in the channel , the seal sealing around the spar leg periphery . the seal plate has a first plate piece and a second plate piece , wherein the wall of the fairing platform is sandwiched between the first plate piece and the second plate piece , wherein the wall of the fairing platform has an edge offset from edges of the opening to form a channel around the opening periphery (82a-1) and between the first plate piece and the second plate piece ; and the airfoil assembly comprises a crush seal arranged in the channel , the seal sealing around the spar leg periphery .
A device for implantation of a biosensor into a bone segment comprising: a hollow trocar for accessing a subject's bone, the trocar having a sharp tip for piercing tissue such that a distal tip segment of the trocar can be positioned adjacent to a target bone location, a drill cartridge for forming a cavity in a bone, the drill cartridge configured to facilitate passage of a drill through a lumen of the trocar to form a cavity in the bone segment at the target location, characterized in that the device further comprises a biosensor cartridge configured for passage of the biosensor through the lumen of the trocar to implant the biosensor within the cavity formed by the drill, and a revolver barrel housing the drill cartridge and the biosensor cartridge , the revolver barrel being rotatable about a longitudinal axis to alternately align the drill cartridge or the biosensor cartridge with the lumen of the trocar. a hollow trocar for accessing a subject's bone, the trocar having a sharp tip for piercing tissue such that a distal tip segment of the trocar can be positioned adjacent to a target bone location, a drill cartridge for forming a cavity in a bone, the drill cartridge configured to facilitate passage of a drill through a lumen of the trocar to form a cavity in the bone segment at the target location, characterized in that the device further comprises a biosensor cartridge configured for passage of the biosensor through the lumen of the trocar to implant the biosensor within the cavity formed by the drill, and a revolver barrel housing the drill cartridge and the biosensor cartridge , the revolver barrel being rotatable about a longitudinal axis to alternately align the drill cartridge or the biosensor cartridge with the lumen of the trocar.
Board, wherein this board comprises a plurality of layers (14-15-16) having a different composition, wherein said board comprises at least three layers, wherein the at least three layers comprise a first layer, a centrally located layer and a second layer, wherein the centrally located layer is provided between the first layer and the second layer, wherein the centrally located layer has a different composition compared to at least one of the outwardly located layers, wherein the first layer, the centrally located layer and the second layer are each based on MgO and MgSulphate and/or wherein the first layer, the centrally located layer and the second layer are each based on MgO and MgChloride; wherein the centrally located layer comprises by weight percentage a lower content of cellulose based material than the first layer and the second layer.
A method of detecting at least one analyte in a test sample , said method comprising the steps of a) contacting said test sample (i) to an active chemistry matrix changing at least one electrochemical property dependent on an enzymatic activity active in the presence of said analyte, said active chemistry matrix comprising said enzymatic activity, said active chemistry matrix contacting a first electrode ; and (ii) to an inactive chemistry matrix , said inactive chemistry matrix not comprising said enzymatic activity, said inactive chemistry matrix contacting a second electrode , b) closing an electrical circuit including said first electrode , said second electrode , and said active and inactive chemistry matrix, followed by determining a first value of said at least one electrochemical property, c) inverting electrical polarity of the electrical circuit of b), followed by determining a second value of said at least one electrochemical property, and d) detecting said at least one analyte based on said first value and on said second value. a) contacting said test sample (i) to an active chemistry matrix changing at least one electrochemical property dependent on an enzymatic activity active in the presence of said analyte, said active chemistry matrix comprising said enzymatic activity, said active chemistry matrix contacting a first electrode ; and (ii) to an inactive chemistry matrix , said inactive chemistry matrix not comprising said enzymatic activity, said inactive chemistry matrix contacting a second electrode , b) closing an electrical circuit including said first electrode , said second electrode , and said active and inactive chemistry matrix, followed by determining a first value of said at least one electrochemical property, c) inverting electrical polarity of the electrical circuit of b), followed by determining a second value of said at least one electrochemical property, and d) detecting said at least one analyte based on said first value and on said second value.
A helicopter comprising: a propulsion system comprising: a first rotor assembly comprising a first motor coupled to a first rotor ; and a second rotor assembly comprising a second motor coupled to a second rotor , the second rotor being coaxial to the first rotor , the second rotor configured to be counter-rotating to the first rotor ; a fuselage ; a gimbal assembly coupling the fuselage of the helicopter to the propulsion system , the gimbal assembly comprising: a first gimbal motor configured to control pitch of the helicopter , the first gimbal motor oriented along a first axis; and a second gimbal motor configured to control roll of the helicopter , the second gimbal motor oriented along a second axis perpendicular to the first axis; and a controller communicably coupled to the first and second gimbal motors and configured to provide instructions to the first and second gimbal motors in order to weight-shift the fuselage of the helicopter , thereby controlling pitch and roll of the helicopter . a propulsion system comprising: a first rotor assembly comprising a first motor coupled to a first rotor ; and a second rotor assembly comprising a second motor coupled to a second rotor , the second rotor being coaxial to the first rotor , the second rotor configured to be counter-rotating to the first rotor ; a first rotor assembly comprising a first motor coupled to a first rotor ; and a second rotor assembly comprising a second motor coupled to a second rotor , the second rotor being coaxial to the first rotor , the second rotor configured to be counter-rotating to the first rotor ; a fuselage ; a gimbal assembly coupling the fuselage of the helicopter to the propulsion system , the gimbal assembly comprising: a first gimbal motor configured to control pitch of the helicopter , the first gimbal motor oriented along a first axis; and a second gimbal motor configured to control roll of the helicopter , the second gimbal motor oriented along a second axis perpendicular to the first axis; and a first gimbal motor configured to control pitch of the helicopter , the first gimbal motor oriented along a first axis; and a second gimbal motor configured to control roll of the helicopter , the second gimbal motor oriented along a second axis perpendicular to the first axis; and a controller communicably coupled to the first and second gimbal motors and configured to provide instructions to the first and second gimbal motors in order to weight-shift the fuselage of the helicopter , thereby controlling pitch and roll of the helicopter .
A beverage dispenser comprising: a tower member , an armature pivotably connected to the tower member; a stationary platform fixed to the tower member, a cartridge platform pivotably connected to the tower member; and a linkage pivotably connected to the armature, the linkage including a guide bearing to travel in a channel formed in the cartridge platform between a first channel end and a second channel end to open and close the cartridge platform based on a position of the armature, characterized in that said stationary platform is configured to retain a bar gun . a tower member , an armature pivotably connected to the tower member; a stationary platform fixed to the tower member, a cartridge platform pivotably connected to the tower member; and a linkage pivotably connected to the armature, the linkage including a guide bearing to travel in a channel formed in the cartridge platform between a first channel end and a second channel end to open and close the cartridge platform based on a position of the armature, characterized in that said stationary platform is configured to retain a bar gun .
A control method of a motor system , the motor system having: - a battery ; - a boost converter configured to increase DC voltage supplied by the battery ; - an inverter connected to the boost converter and configured to execute a conversion between DC power and AC power; and - a motor generator connected to the inverter , wherein the control method comprising: - a limiting power determination step (S3) of determining a limiting power (P lim ); and a controlling step (S4) of controlling an operating point of the motor generator such that a passing power (P) of the boost converter does not exceed the limiting power (P lim ), characterized in that the limiting power determination step (S3) of determining the limiting power (P lim ) is performed in response to the operating point of the motor generator such that an oscillation of a transfer characteristic (G) from a battery side voltage (Vi ) to a terminal voltage (V2 ) of the boost converter at a side of the inverter is suppressed wherein in the limiting power determination step (S3): - the limiting power (P lim ) is changed in response to a delay (d) in a response characteristic (G) in which the terminal voltage (V 2 ) is an input and a current (I0) flowing to the inverter is an output, and, - when power is input to the boost converter from the inverter , the limiting power (P lim ) is set to be larger as the delay (d) is smaller. - a battery ; - a boost converter configured to increase DC voltage supplied by the battery ; - an inverter connected to the boost converter and configured to execute a conversion between DC power and AC power; and - a motor generator connected to the inverter , wherein - a limiting power determination step (S3) of determining a limiting power (P lim ); and a controlling step (S4) of controlling an operating point of the motor generator such that a passing power (P) of the boost converter does not exceed the limiting power (P lim ), characterized in that the limiting power determination step (S3) of determining the limiting power (P lim ) is performed in response to the operating point of the motor generator such that an oscillation of a transfer characteristic (G) from a battery side voltage (Vi ) to a terminal voltage (V2 ) of the boost converter at a side of the inverter is suppressed wherein in the limiting power determination step (S3): - the limiting power (P lim ) is changed in response to a delay (d) in a response characteristic (G) in which the terminal voltage (V 2 ) is an input and a current (I0) flowing to the inverter is an output, and, - when power is input to the boost converter from the inverter , the limiting power (P lim ) is set to be larger as the delay (d) is smaller. - the limiting power (P lim ) is changed in response to a delay (d) in a response characteristic (G) in which the terminal voltage (V 2 ) is an input and a current (I0) flowing to the inverter is an output, and, - when power is input to the boost converter from the inverter , the limiting power (P lim ) is set to be larger as the delay (d) is smaller.
A polymer composition comprising a) a low density polyethylene (LDPE); and b) a polythiophene; wherein the LDPE a) is present in an amount of 90 to 99.99 wt% relative to the total weight of the polymer composition as a whole. a) a low density polyethylene (LDPE); and b) a polythiophene;
Method for determining an acoustic environment situation, wherein the method consists in processing an acoustic input signal (IN) in at least two processing stages (S1, ..., Sn), which acoustic input signal (IN) is preferably recorded with the aid of at least one microphone, in such a way - that in each of the at least two processing stages (S1, ..., Sn) an extraction phase is provided in which characteristic features are extracted from the input signal (IN), - that in each processing stage (Sl, ..., Sn) an identification phase is provided in which extracted characteristic features are classified, - that class information (KI1, ..., KIn) is generated based on the classification of the features in at least one processing stage (S1, ..., SN), which class information characterizes or identifies, respectively, the acoustic environment situation, - that the class information (KI1, ..., KIn) obtained in the identification phase of a processing stage i (S1, ..., Sn) determines the manner of processing in the subsequent or subordinate processing stage i+1 (S2, ..., Sn), and - that due to the class information (KI1, ..., KIn) obtained in the processing stage i (S1, ..., Sn), specific features in the extraction phase of the subsequent or subordinate processing stage i + 1 (S2, ...., Sn) and/or specific classification methods in the identification phase are selected in the subsequent or subordinate processing stage i + 1 (S2, ..., Sn). - that in each of the at least two processing stages (S1, ..., Sn) an extraction phase is provided in which characteristic features are extracted from the input signal (IN), - that in each processing stage (Sl, ..., Sn) an identification phase is provided in which extracted characteristic features are classified, - that class information (KI1, ..., KIn) is generated based on the classification of the features in at least one processing stage (S1, ..., SN), which class information characterizes or identifies, respectively, the acoustic environment situation, - that the class information (KI1, ..., KIn) obtained in the identification phase of a processing stage i (S1, ..., Sn) determines the manner of processing in the subsequent or subordinate processing stage i+1 (S2, ..., Sn), and - that due to the class information (KI1, ..., KIn) obtained in the processing stage i (S1, ..., Sn), specific features in the extraction phase of the subsequent or subordinate processing stage i + 1 (S2, ...., Sn) and/or specific classification methods in the identification phase are selected in the subsequent or subordinate processing stage i + 1 (S2, ..., Sn).
A stereoscopic image generating device, comprising: a storage unit ; a display unit , comprising a display screen; and a processing unit , connected to the storage unit and the display unit and obtaining a first image from the storage unit; wherein the processing unit processes the first image to obtain depth data of each pixel in the first image, and generates a first depth-information map according to the depth data, wherein the first depth-information map comprises depth information corresponding to each pixel; wherein the processing unit uses a plurality of edges of the first depth-information map as a reference and performs uniform processing on the plurality of edge pixels which are within a predetermined width from the plurality of edges of the first depth-information map and leaving the depth information of the pixels other than the plurality of edge pixels unchanged, so that the processed edge pixels have the same depth information to establish a second depth-information map (321A-321D); wherein the processing unit sets a pixel offset corresponding to each pixel in the first image based on the depth information corresponding to each pixel of the second depth-information map; wherein the processing unit performs pixel offset processing on the first image to generate a second image; and wherein the processing unit outputs the first image and the second image to the display unit to display a stereoscopic image. a storage unit ; a display unit , comprising a display screen; and a processing unit , connected to the storage unit and the display unit and obtaining a first image from the storage unit; wherein the processing unit processes the first image to obtain depth data of each pixel in the first image, and generates a first depth-information map according to the depth data, wherein the first depth-information map comprises depth information corresponding to each pixel; wherein the processing unit uses a plurality of edges of the first depth-information map as a reference and performs uniform processing on the plurality of edge pixels which are within a predetermined width from the plurality of edges of the first depth-information map and leaving the depth information of the pixels other than the plurality of edge pixels unchanged, so that the processed edge pixels have the same depth information to establish a second depth-information map (321A-321D); wherein the processing unit sets a pixel offset corresponding to each pixel in the first image based on the depth information corresponding to each pixel of the second depth-information map; wherein the processing unit performs pixel offset processing on the first image to generate a second image; and wherein the processing unit outputs the first image and the second image to the display unit to display a stereoscopic image.
A delivery device for use in an iliac artery comprising: a bifurcated intraluminal device having a first distal lumen and a second distal lumen adjacent to one another; a first inner member ; and a release wire positioned both alongside the first inner member and within the first distal lumen and passing through a suture loop wherein the suture loop is attached to the second distal lumen passing through the wall of the first distal lumen , wherein the release wire which passes through suture loop serves to releasably constrain the first and second distal lumens adjacent to each other, wherein distal movement of the release wire relative to the bifurcated intraluminal device releases the constraint such that the second distal lumen is freed from being locked to and adjacent to the first distal lumen ; wherein the delivery device is deliverable over a first guidewire ; and wherein a first portion of the bifurcated intraluminal device is deployable from the first inner member . a bifurcated intraluminal device having a first distal lumen and a second distal lumen adjacent to one another; a first inner member ; and a release wire positioned both alongside the first inner member and within the first distal lumen and passing through a suture loop wherein the suture loop is attached to the second distal lumen passing through the wall of the first distal lumen , wherein the release wire which passes through suture loop serves to releasably constrain the first and second distal lumens adjacent to each other, wherein distal movement of the release wire relative to the bifurcated intraluminal device releases the constraint such that the second distal lumen is freed from being locked to and adjacent to the first distal lumen ; wherein the delivery device is deliverable over a first guidewire ; and wherein a first portion of the bifurcated intraluminal device is deployable from the first inner member .
A method of measuring and diagnosing the ride quality of an elevator system , including an elevator car , via a computer application stored on a mobile device , characterized by the method comprising the steps of: (a) operating the mobile device to select an elevator configuration from a plurality of predetermined elevator configurations ; (b) acquiring ride quality data with the mobile device ; (c) transmitting ride quality data to an external computing device with the mobile device ; (d) comparing the acquired ride quality data to pre-determined system data to create performance data , wherein the pre-determined system data is based on the selected elevator configuration; (e) determining a ride quality diagnostics based at least in part on the performance data ; and (f) transmitting the ride quality diagnostics to the mobile device . (a) operating the mobile device to select an elevator configuration from a plurality of predetermined elevator configurations ; (b) acquiring ride quality data with the mobile device ; (c) transmitting ride quality data to an external computing device with the mobile device ; (d) comparing the acquired ride quality data to pre-determined system data to create performance data , wherein the pre-determined system data is based on the selected elevator configuration; (e) determining a ride quality diagnostics based at least in part on the performance data ; and (f) transmitting the ride quality diagnostics to the mobile device .