mhurhangee/patent-ind-claim-en huggingface dataset:
A support foot for connecting a mounting frame of a sanitary device to a construction profile of a construction system for dry construction, wherein the support foot comprises a longitudinal base which is on its upper side provided with a sliding element to be slid on an end of a beam of the mounting frame of the sanitary device to be connected, wherein the longitudinal base is on its lower side provided with a longitudinal groove to attach the support foot on the dove-tail shaped lateral side of the construction profile , wherein the longitudinal groove is provided with a pair of opposing side walls , wherein a locking lever is mounted at its one end rotatably about the axis (O), whereby the axis (O) of rotation of the locking lever is parallel to the longitudinal axis of the longitudinal base and, at the same time, the axis (O) of rotation of the locking lever is transverse to the longitudinal axis of the locking lever , the locking lever is on its lower side provided with a locking tooth with a locking wall, the locking lever being rotatable between its unlocked position and its locked position, the locking tooth being situated in the locked position of the locking lever at the level of side walls of the longitudinal groove in the base wherein the locking tooth is provided with an oblique locking wall , which is in the locked position of the locking lever situated opposite one side wall of the longitudinal groove in the base and the side wall is either oblique or is provided with at least one oblique projection , wherein the gap (M) between the oblique locking wall of the locking tooth and said opposite oblique side wall or the oblique projection in the locked position of the locking lever forms, by its shape and size, a locking space for a dovetail projection on the lateral side of the construction profile .
A device (300; 400) comprising: a determination unit (333; 433) configured to determine either a use setting of a frequency resource by a wireless communication device or a use setting of a network resource by a logical network deployed on a physical network to which the wireless communication device connects, for providing a wireless communication service by the wireless communication device, wherein the use setting of the frequency resource is a resource setting of the frequency resource which can be used by the wireless communication device for providing the wireless communication service, and wherein the use setting of the network resource is a resource setting of a logical network to which the wireless communication device connects; characterized by a request unit (335; 435) configured to request another device to determine a use setting of a resource that has not been determined on a basis of a determination result by the determination unit (333; 433). a determination unit (333; 433) configured to determine either a use setting of a frequency resource by a wireless communication device or a use setting of a network resource by a logical network deployed on a physical network to which the wireless communication device connects, for providing a wireless communication service by the wireless communication device, wherein the use setting of the frequency resource is a resource setting of the frequency resource which can be used by the wireless communication device for providing the wireless communication service, and wherein the use setting of the network resource is a resource setting of a logical network to which the wireless communication device connects; characterized by a request unit (335; 435) configured to request another device to determine a use setting of a resource that has not been determined on a basis of a determination result by the determination unit (333; 433).
A can body printing system comprising: a first printing unit performing first printing to form an image or an identification information on a predetermined area of a can body; a deformation unit deforming the area after the first printing; and a second printing unit , after the deformation of the area, performing second printing by digital printing on a barrel portion provided contiguous to the area subjected to the first printing and the deformation. a first printing unit performing first printing to form an image or an identification information on a predetermined area of a can body; a deformation unit deforming the area after the first printing; and a second printing unit , after the deformation of the area, performing second printing by digital printing on a barrel portion provided contiguous to the area subjected to the first printing and the deformation.
A paver supporting apparatus comprising: a pedestal having a top plate , a modular grid positioned on the top plate and having a ballast receiving opening , and characterized in that said paver supporting apparatus further comprises a ballast located in the ballast receiving opening , wherein the ballast has a weight of between approximately 7,35 - 208,74 Kg per square meter (1.5-57.5 ballast pounds per square/foot). a pedestal having a top plate , a modular grid positioned on the top plate and having a ballast receiving opening , and characterized in that said paver supporting apparatus further comprises a ballast located in the ballast receiving opening , wherein the ballast has a weight of between approximately 7,35 - 208,74 Kg per square meter (1.5-57.5 ballast pounds per square/foot).
A shift device comprising: a shift switching member including a plurality of valley portions corresponding to shift positions (P, R, N, D); a motor including a rotor and a stator and configured to drive the shift switching member ; a first drive system including a first inverter configured to output a voltage for driving the motor ; a second drive system provided separately from the first drive system and including a second inverter configured to output a voltage for driving the motor ; and a positioning member configured to be fitted into any one of the plurality of valley portions of the shift switching member to establish the corresponding shift position (P, R, N, D), wherein when driving the motor , the shift position (P, R, N, D) is configured to be switched by the voltages output from the first drive system and the second drive system ; characterized in that the first drive system and the second drive system are connected to different power supplies, and in that , when a failure is detected in either the first drive system or the second drive system during the shift switching, the drive of the motor by the failure drive system is stopped while the drive of the motor by the normal drive system is continued. a shift switching member including a plurality of valley portions corresponding to shift positions (P, R, N, D); a motor including a rotor and a stator and configured to drive the shift switching member ; a first drive system including a first inverter configured to output a voltage for driving the motor ; a second drive system provided separately from the first drive system and including a second inverter configured to output a voltage for driving the motor ; and a positioning member configured to be fitted into any one of the plurality of valley portions of the shift switching member to establish the corresponding shift position (P, R, N, D), wherein when driving the motor , the shift position (P, R, N, D) is configured to be switched by the voltages output from the first drive system and the second drive system ; characterized in that the first drive system and the second drive system are connected to different power supplies, and in that , when a failure is detected in either the first drive system or the second drive system during the shift switching, the drive of the motor by the failure drive system is stopped while the drive of the motor by the normal drive system is continued.
A method comprising: determining locations of a plurality of candidate landmarks in relation to a robot based on sensor data from at least one sensor of the robot; determining a plurality of sample sets, wherein each sample set comprises a subset of the plurality of candidate landmarks and a plurality of corresponding mapped landmarks ; characterised in that for each sample set of the plurality of sample sets: determining a transformation that relates the candidate landmarks from the subset of the plurality of candidate landmarks to the corresponding mapped landmarks of the plurality of corresponding mapped landmarks; applying the determined transformation to the plurality of candidate landmarks; and determining a number of inliers associated with the sample set based on distances between the transformed plurality of candidate landmarks and a plurality of neighbouring mapped landmarks; selecting a sample set from the plurality of sample sets based on the determined number of inliers associated with each sample set from the plurality of sample sets; and estimating a pose of the robot based on the selected sample set. determining locations of a plurality of candidate landmarks in relation to a robot based on sensor data from at least one sensor of the robot; determining a plurality of sample sets, wherein each sample set comprises a subset of the plurality of candidate landmarks and a plurality of corresponding mapped landmarks ; characterised in that for each sample set of the plurality of sample sets: determining a transformation that relates the candidate landmarks from the subset of the plurality of candidate landmarks to the corresponding mapped landmarks of the plurality of corresponding mapped landmarks; applying the determined transformation to the plurality of candidate landmarks; and determining a number of inliers associated with the sample set based on distances between the transformed plurality of candidate landmarks and a plurality of neighbouring mapped landmarks; determining a transformation that relates the candidate landmarks from the subset of the plurality of candidate landmarks to the corresponding mapped landmarks of the plurality of corresponding mapped landmarks; applying the determined transformation to the plurality of candidate landmarks; and determining a number of inliers associated with the sample set based on distances between the transformed plurality of candidate landmarks and a plurality of neighbouring mapped landmarks; selecting a sample set from the plurality of sample sets based on the determined number of inliers associated with each sample set from the plurality of sample sets; and estimating a pose of the robot based on the selected sample set.
A use of a particle measuring device to image-recognize particles contained in a fluid to be measured and measure a physical quantity of the particles, the particle measuring device comprising: a sample holding region configured to hold a sample containing the particles; an observation window disposed on a wall surface of the sample holding region ; an irradiation window configured to irradiate the particles with light from a light source ; and two cleaning nozzles configured to discharge a cleaning liquid toward the observation window and the irradiation window , respectively, wherein the cleaning liquid is different from the fluid to be measured, wherein the irradiation window is provided at a position facing the observation window on the wall surface of the sample holding region , a distance between the irradiation window and the observation window is capable of being adjusted, at the time of cleaning, as compared with the time of measuring, the distance between the irradiation window and the observation window is widened, and the observation window and the irradiation window are cleaned, and the discharge ports of the two cleaning nozzles are disposed on upstream sides of the observation window and the irradiation window , respectively, in a direction in which the sample flows. a sample holding region configured to hold a sample containing the particles; an observation window disposed on a wall surface of the sample holding region ; an irradiation window configured to irradiate the particles with light from a light source ; and two cleaning nozzles configured to discharge a cleaning liquid toward the observation window and the irradiation window , respectively, wherein the cleaning liquid is different from the fluid to be measured, wherein the irradiation window is provided at a position facing the observation window on the wall surface of the sample holding region , a distance between the irradiation window and the observation window is capable of being adjusted, at the time of cleaning, as compared with the time of measuring, the distance between the irradiation window and the observation window is widened, and the observation window and the irradiation window are cleaned, and the discharge ports of the two cleaning nozzles are disposed on upstream sides of the observation window and the irradiation window , respectively, in a direction in which the sample flows.
An intraocular lens insertion instrument comprising: a main body including a lens setting section , a transition section , and a nozzle piece ; an intraocular lens including an optic and first and second haptics stored on the lens setting section ; and a lens push-out mechanism for pushing out the intraocular lens stored on the lens setting section ; wherein the intraocular lens is deformable by the transition section and is dischargable through the nozzle piece a releasing means for releasing the intraocular lens pushed by the lens push-out mechanism from the lens setting section ; characterized by the releasing means including a posture holding mount for holding the intraocular lens with a forward tilt relative to an axial line of lens movement (A); and the intraocular lens being stored on the posture holding mount such that the optic has a forward tilt relative to an axial line of lens movement (A). a main body including a lens setting section , a transition section , and a nozzle piece ; an intraocular lens including an optic and first and second haptics stored on the lens setting section ; and a lens push-out mechanism for pushing out the intraocular lens stored on the lens setting section ; wherein the intraocular lens is deformable by the transition section and is dischargable through the nozzle piece a releasing means for releasing the intraocular lens pushed by the lens push-out mechanism from the lens setting section ; characterized by the releasing means including a posture holding mount for holding the intraocular lens with a forward tilt relative to an axial line of lens movement (A); and the intraocular lens being stored on the posture holding mount such that the optic has a forward tilt relative to an axial line of lens movement (A).
Machine tool (M) for working one or more pieces (P), said machine tool (M) comprising: - one or more video cameras (VC), each of which is arranged in a respective predetermined position with respect to said machine tool (M) and configured to record a video during the working of said pieces (P) by said machine tool (M), - storage means (S) for storing the videos of each video camera (VC), - displaying means (D) for displaying the videos of each video camera (VC), stored in said storage means (S), said machine tool (M) comprises a logic control unit (U), connected to said storage means (S) and configured to: - acquire one or more videos from said storage means (S), - detect the operating state of said machine tool (M), in particular one or more data concerning said operating state of said machine tool (M), when said machine tool (M) is in use, said logic control unit (U) is configured to acquire said one or more videos from said storage means (S) on the basis of said operating state of said machine tool (M), in particular on the basis of said one or more data concerning said operating state of said machine tool (M), characterised in that said logic control unit (U) is configured to activate/deactivate one or more video cameras (VC) in a predetermined time window, wherein said predetermined time window is chosen on the basis of the operating state of the machine tool (M), in particular on the basis of said one or more data concerning said operating state of said machine tool. - one or more video cameras (VC), each of which is arranged in a respective predetermined position with respect to said machine tool (M) and configured to record a video during the working of said pieces (P) by said machine tool (M), - storage means (S) for storing the videos of each video camera (VC), - displaying means (D) for displaying the videos of each video camera (VC), stored in said storage means (S), said machine tool (M) comprises a logic control unit (U), connected to said storage means (S) and configured to: - acquire one or more videos from said storage means (S), - detect the operating state of said machine tool (M), in particular one or more data concerning said operating state of said machine tool (M), when said machine tool (M) is in use, - acquire one or more videos from said storage means (S), - detect the operating state of said machine tool (M), in particular one or more data concerning said operating state of said machine tool (M), when said machine tool (M) is in use, said logic control unit (U) is configured to acquire said one or more videos from said storage means (S) on the basis of said operating state of said machine tool (M), in particular on the basis of said one or more data concerning said operating state of said machine tool (M), characterised in that said logic control unit (U) is configured to activate/deactivate one or more video cameras (VC) in a predetermined time window, wherein said predetermined time window is chosen on the basis of the operating state of the machine tool (M), in particular on the basis of said one or more data concerning said operating state of said machine tool.
A method for inspecting a container , comprising steps of: performing transmission scanning on the inspected container using a scanning device including a sparse area array detector to obtain scan data, wherein the sparse area array detector is formed in a sparse array distribution form by arranging various detection units of a linear array detector to be distributed randomly in a direction perpendicular to a central line, which is a line in a direction of extension of the linear array detector, and wherein the inspected container moves relative to the scanning device; performing digital focusing at a specific depth position in a depth direction by correcting scanning information of the detection units relative to a lag distance (ΔD) of each detection unit to the central line; filtering out defocused pixel values to obtain a slice image at the specific depth position; and judging whether dangerous articles or suspicious articles are included in the slice image. performing transmission scanning on the inspected container using a scanning device including a sparse area array detector to obtain scan data, wherein the sparse area array detector is formed in a sparse array distribution form by arranging various detection units of a linear array detector to be distributed randomly in a direction perpendicular to a central line, which is a line in a direction of extension of the linear array detector, and wherein the inspected container moves relative to the scanning device; performing digital focusing at a specific depth position in a depth direction by correcting scanning information of the detection units relative to a lag distance (ΔD) of each detection unit to the central line; filtering out defocused pixel values to obtain a slice image at the specific depth position; and judging whether dangerous articles or suspicious articles are included in the slice image.
An electronic device, comprising: a pixel 2. array ; a glass layer covering the pixel array; and an infrared-light-blocking-and-visible-light-transmitting coating on the glass layer that includes pigment flakes in a polymer binder, characterized in that the pigment flakes include thin-film filter dielectric stacks, wherein each pigment flake contains a stack of at least four inorganic layers with differing indices of refraction, wherein the polymer binder has an index of refraction of less than 1.6, and wherein the infrared-light-blocking-and-visible-light-transmitting coating has a visible light transmission at 400-700 nm of at least 99%. a pixel 2. array ; a glass layer covering the pixel array; and an infrared-light-blocking-and-visible-light-transmitting coating on the glass layer that includes pigment flakes in a polymer binder, characterized in that the pigment flakes include thin-film filter dielectric stacks, wherein each pigment flake contains a stack of at least four inorganic layers with differing indices of refraction, wherein the polymer binder has an index of refraction of less than 1.6, and wherein the infrared-light-blocking-and-visible-light-transmitting coating has a visible light transmission at 400-700 nm of at least 99%.
A fuel dispensing system comprising: a fuel tank adapted to contain a quantity of fuel ; a fuel dispenser in fluid communication with said fuel tank via piping ; a pump operative to transfer fuel from said fuel tank to said fuel dispenser ; and a corrosive detection assembly operative to identify presence of a corrosive substance in said fuel , said corrosive detection assembly having: at least one detector positioned to be in contact with fuel vapor in said fuel dispensing system, said detector producing a detector signal indicating presence of the corrosive substance; and electronics in electrical communication with said detector , said electronics being operative to interpret said detector signal and produce an output if the corrosive substance is present, characterised in that said detector is a thermoelectric detector comprising a sensing circuit having a pair of junctions (T 1 ,T 2 ) formed by interconnection of dissimilar conductors, said pair of junctions (T 1 ,T 2 ) being configured to experience substantially the same ambient temperature. a fuel tank adapted to contain a quantity of fuel ; a fuel dispenser in fluid communication with said fuel tank via piping ; a pump operative to transfer fuel from said fuel tank to said fuel dispenser ; and a corrosive detection assembly operative to identify presence of a corrosive substance in said fuel , said corrosive detection assembly having: at least one detector positioned to be in contact with fuel vapor in said fuel dispensing system, said detector producing a detector signal indicating presence of the corrosive substance; and electronics in electrical communication with said detector , said electronics being operative to interpret said detector signal and produce an output if the corrosive substance is present, characterised in that said detector is a thermoelectric detector comprising a sensing circuit having a pair of junctions (T 1 ,T 2 ) formed by interconnection of dissimilar conductors, said pair of junctions (T 1 ,T 2 ) being configured to experience substantially the same ambient temperature.
A method to reduce spray drift during the application of an aqueous herbicidal spray mixture containing glyphosate and an auxinic herbicide comprising incorporating into the aqueous herbicidal spray mixture from about 0.02 to about 2 weight percent of one of a tertiary amine surfactant of the formula: wherein R 1 represents a straight or branched chain (C 12 -C 18 ) alkyl and R 2 and R 3 represent C 1 -alkyl, or a mixture of said tertiary amine surfactant with a tertiary amine oxide surfactant of the formula: wherein R 4 is a straight or branched chain (C 10 -C 18 ) alkyl or an alkyletherpropyl or alkylamidopropyl of the formula: wherein R 7 is a straight or branched chain (C 10 -C 18 ) alkyl, and R 5 and R 6 independently are straight or branched chain (C 1 -C 18 ) alkyl or ethoxylates or propoxylates of the formula: wherein n is an integer from 1 to 20.