mhurhangee/ep-ind-claims huggingface dataset:
A torsional vibration damper comprising a hub adapted to attach to a rotating component, said hub having an outer peripheral surface; a ring surrounding and spaced from said hub and defining a gap therebetween having a first side portion opposite a second side portion with a central portion therebetween, said ring having an inner annular surface; a rubber insert compression fitted between said outer peripheral surface and said inner annular surface; said outer peripheral surface having a concave or a convex cross-section, said surface forming a first arc having a first arc radius; said inner annular surface having a concave cross-section when the outer peripheral surface has a concave cross-section and forming a second arc having a second arc radius, wherein said first arc radius is smaller than said second arc radius, thereby configuring said gap to have a wider radial thickness at both said first side portion and said second side portion compared to said central portion, or having a convex cross-section when the outer peripheral surface has a convex cross-section and forming a second arc having a second arc radius, wherein said first arc radius is greater than said second arc radius, thereby configuring said gap to have a wider radial thickness at both said first side portion and said second side portion compared to said central portion. a hub adapted to attach to a rotating component, said hub having an outer peripheral surface; a ring surrounding and spaced from said hub and defining a gap therebetween having a first side portion opposite a second side portion with a central portion therebetween, said ring having an inner annular surface; a rubber insert compression fitted between said outer peripheral surface and said inner annular surface; said outer peripheral surface having a concave or a convex cross-section, said surface forming a first arc having a first arc radius; said inner annular surface having a concave cross-section when the outer peripheral surface has a concave cross-section and forming a second arc having a second arc radius, wherein said first arc radius is smaller than said second arc radius, thereby configuring said gap to have a wider radial thickness at both said first side portion and said second side portion compared to said central portion, or having a convex cross-section when the outer peripheral surface has a convex cross-section and forming a second arc having a second arc radius, wherein said first arc radius is greater than said second arc radius, thereby configuring said gap to have a wider radial thickness at both said first side portion and said second side portion compared to said central portion.
A machine vision system comprising: a processor configured to run a computer program stored in memory that is configured to cause the processor to: receive a first image and a first transform associated with the first image, wherein the first transform relates the first image to a second image, and is constrained to map a plurality of pixels along a dimension of the second image to a plurality of locations along a dimension of the first image; determine, for a first pixel of the plurality of pixels, a coordinate of a corresponding first location in the first image; select one of a plurality of kernels based on a sub-pixel phase associated with the coordinate of the first location, wherein the sub-pixel phase is indicative of a sub-pixel offset of the first location from a pixel grid of the first image; and generate the second image from the first image by, in part, applying the selected kernel on at least one pixel around the first location in the first image to determine an image value for the first pixel in the second image. receive a first image and a first transform associated with the first image, wherein the first transform relates the first image to a second image, and is constrained to map a plurality of pixels along a dimension of the second image to a plurality of locations along a dimension of the first image; determine, for a first pixel of the plurality of pixels, a coordinate of a corresponding first location in the first image; select one of a plurality of kernels based on a sub-pixel phase associated with the coordinate of the first location, wherein the sub-pixel phase is indicative of a sub-pixel offset of the first location from a pixel grid of the first image; and generate the second image from the first image by, in part, applying the selected kernel on at least one pixel around the first location in the first image to determine an image value for the first pixel in the second image.
A compound corresponding to formula characterized in that R9 represents a hydrocarbon group having at least 5 C atoms; X represents H, -R11, -OR11, -NR11R12, -SR11 or halogen, wherein R11 and R12 represent, independently of one another, hydrogen, a linear or branched, unsubstituted alkyl or alkenyl group having up to 20 C atoms, an aryl group having 6 to 14 C atoms, an alkylaryl or arylalkyl group, whereby alkyl and aryl being as defined above, or represent a (CH CH O) p -R15 group, where p=1-20, and wherein R13, R14 and R15 represent, independently of one another, hydrogen, a linear or branched, unsubstituted alkyl group. R9 represents a hydrocarbon group having at least 5 C atoms; X represents H, -R11, -OR11, -NR11R12, -SR11 or halogen, wherein R11 and R12 represent, independently of one another, hydrogen, a linear or branched, unsubstituted alkyl or alkenyl group having up to 20 C atoms, an aryl group having 6 to 14 C atoms, an alkylaryl or arylalkyl group, whereby alkyl and aryl being as defined above, or represent a (CH CH O) p -R15 group, where p=1-20, and wherein R13, R14 and R15 represent, independently of one another, hydrogen, a linear or branched, unsubstituted alkyl group.
Electrical circuit comprising - an on-board network, supplying consumer bodies, - an electrical energy generating means connected to the on-board network, - And at least one switchable electrical storage means (S1, S12) for storing generator energy, the storage means comprising storage elements capable of supplying a variable voltage, said storage elements being capable of being switched successively so that the switchable electrical storage means (S1, S12) can supply a regulated voltage to the on-board network, characterized in that the storage elements of the switchable electrical storage means comprise a series of n electrical storage elements mounted on electrical lines connected in parallel to each other (L11, L12,... L1n) and each comprising a switch for line (C11, C12,... C1n), said n electric lines (L11, L12,... L1n) connected in parallel being connected and pooled to be connected in series to a storage means capable of supplying a fixed voltage and connected to the on-board network. - an on-board network, supplying consumer bodies, - an electrical energy generating means connected to the on-board network, - And at least one switchable electrical storage means (S1, S12) for storing generator energy, the storage means comprising storage elements capable of supplying a variable voltage, said storage elements being capable of being switched successively so that the switchable electrical storage means (S1, S12) can supply a regulated voltage to the on-board network, characterized in that the storage elements of the switchable electrical storage means comprise a series of n electrical storage elements mounted on electrical lines connected in parallel to each other (L11, L12,... L1n) and each comprising a switch for line (C11, C12,... C1n), said n electric lines (L11, L12,... L1n) connected in parallel being connected and pooled to be connected in series to a storage means capable of supplying a fixed voltage and connected to the on-board network.
A method for labeling particles captured by a filter with magnetic beads at the filter, the method comprising: passing a specimen containing particles through the filter to capture the particles by the filter; supplying a suspension containing magnetic beads onto one surface of the filter, the one surface on which particles are captured; creating a state in which liquid containing the magnetic beads is in contact with both surfaces of the filter by passing a portion of the suspension through the filter from the one surface of the filter toward the other surface of the filter; and reverse feeding by reversely passing the liquid containing the magnetic beads through the filter from the other surface of the filter toward the one surface of the filter. passing a specimen containing particles through the filter to capture the particles by the filter; supplying a suspension containing magnetic beads onto one surface of the filter, the one surface on which particles are captured; creating a state in which liquid containing the magnetic beads is in contact with both surfaces of the filter by passing a portion of the suspension through the filter from the one surface of the filter toward the other surface of the filter; and reverse feeding by reversely passing the liquid containing the magnetic beads through the filter from the other surface of the filter toward the one surface of the filter.
A control method performed by a target femto base station, the method comprising: receiving terminal trace activation information from a source base station if a terminal performs handover from the source base station to the target femto base station; and transmitting, to a target femto gateway that is not serving the source base station, an S1AP path switch request message to notify the target femto gateway that the terminal has successfully connected to the target femto base station, wherein the target femto base station is connected to a mobile management entity, MME, via the target femto gateway, and the S1AP path switch request message includes the received terminal trace activation information, causing the target femto gateway to trace the terminal. receiving terminal trace activation information from a source base station if a terminal performs handover from the source base station to the target femto base station; and transmitting, to a target femto gateway that is not serving the source base station, an S1AP path switch request message to notify the target femto gateway that the terminal has successfully connected to the target femto base station, wherein the target femto base station is connected to a mobile management entity, MME, via the target femto gateway, and the S1AP path switch request message includes the received terminal trace activation information, causing the target femto gateway to trace the terminal.
Method for controlling flight obstacle lights comprising the following steps: a) at a plurality of receiving devices installed at different locations, identification data records of aircrafts transmitted by radio are received, an identification data record having at least one item of information uniquely identifying the respective aircraft transmitting the identification data record, b) in the respective receiving device, at least one physical characteristic value measured in the receiving device, in particular a reception time and/or a reception power, of the received identification data set is assigned to a received identification data set, c) in an evaluation device, the characteristic values originating from an aircraft are related to each other in such a way that variances between the received radio signals are determined in the form of differences between the characteristic values, d) the current three-dimensional geographical position of the aircraft is determined from the variances, wherein the flight direction and/or the flight speed of the aircraft is determined from a plurality of three-dimensional geographical positions successively determined for an aircraft, the evaluation device provides the three-dimensional geographical position of the aircraft to systems (9, 10) for controlling flight obstruction lights and/or transmits switch-on and/or switch-off signals for switching on or switching off flight obstruction lights, wherein, in the event of loss of the received radio signal of an aircraft, a first minimum switch-on time for the flight obstruction lights is determined, which is calculated on the basis of the previously determined flight direction and flight speed of the aircraft. a) at a plurality of receiving devices installed at different locations, identification data records of aircrafts transmitted by radio are received, an identification data record having at least one item of information uniquely identifying the respective aircraft transmitting the identification data record, b) in the respective receiving device, at least one physical characteristic value measured in the receiving device, in particular a reception time and/or a reception power, of the received identification data set is assigned to a received identification data set, c) in an evaluation device, the characteristic values originating from an aircraft are related to each other in such a way that variances between the received radio signals are determined in the form of differences between the characteristic values, d) the current three-dimensional geographical position of the aircraft is determined from the variances,
A non-graphitizable carbon material, characterized in that the non-graphitizable carbon material fulfills the condition of a specific surface area ratio (BET/CALC) of 5.5 or less, wherein the specific surface area ratio (BET/CALC) is a ratio of a specific surface area (unit: m 2 /g) calculated by a BET method using adsorption of nitrogen gas to a specific surface area (CALC) (unit: m 2 /g) calculated by the expression "6/(D x ρ)", where D represents an average particle diameter (unit: pm) and ρ represents an absolute specific gravity (unit: g/cm 3), which is determined by a liquid displacement method with a pycnometer using butanol in accordance with JIS R 7222, and wherein the average particle diameter of the non-graphitizable carbon material lies in a range of 1 - 15 μm.
A cleaning head for a cleaning device, comprising: an inlet nozzle; an agitator chamber adjacent and in fluid communication with the inlet nozzle; an agitator comprising: a spindle having a first end, a second end, and a longitudinal axis extending between the first end and the second end, said spindle being rotatably mounted in the agitator chamber; one or more agitating devices projecting from the spindle to a first radial height at which the agitating device extends through the inlet nozzle during rotation of the spindle; characterized in one or more friction surfaces projecting from the spindle to a second radial height; one or more blades positioned adjacent at least a portion of the agitator an activation mechanism adapted to move the one or more blades between a first position in which the one or more blades do not engage the one or more friction surfaces, and a second position in which the one or more blades engage the one or more friction surfaces to clean debris from the agitator; and a resilient mechanism capable of holding the one or more blades in contact with the agitator, the resilient mechanism being operated by the activation mechanism and further being arranged to resiliently biasing the one or more blades against the one or more friction surfaces when the activation mechanism moves the one or more blades into the second position. an inlet nozzle; an agitator chamber adjacent and in fluid communication with the inlet nozzle; an agitator comprising: a spindle having a first end, a second end, and a longitudinal axis extending between the first end and the second end, said spindle being rotatably mounted in the agitator chamber; one or more agitating devices projecting from the spindle to a first radial height at which the agitating device extends through the inlet nozzle during rotation of the spindle; characterized in one or more friction surfaces projecting from the spindle to a second radial height; a spindle having a first end, a second end, and a longitudinal axis extending between the first end and the second end, said spindle being rotatably mounted in the agitator chamber; one or more agitating devices projecting from the spindle to a first radial height at which the agitating device extends through the inlet nozzle during rotation of the spindle; characterized in one or more friction surfaces projecting from the spindle to a second radial height; one or more blades positioned adjacent at least a portion of the agitator an activation mechanism adapted to move the one or more blades between a first position in which the one or more blades do not engage the one or more friction surfaces, and a second position in which the one or more blades engage the one or more friction surfaces to clean debris from the agitator; and a resilient mechanism capable of holding the one or more blades in contact with the agitator, the resilient mechanism being operated by the activation mechanism and further being arranged to resiliently biasing the one or more blades against the one or more friction surfaces when the activation mechanism moves the one or more blades into the second position.
A method of requesting media data at a client device using a scalable segment map, comprising: receiving the scalable segment map at the client device, the scalable segment map including metadata with one or more byte ranges corresponding to locations of layers of a media segment, wherein the media segment includes one or more blocks and is associated with a scalable video coded stream including multiple layers that are combinable to form one or more representations; determining, by the client device, one or more layers of a block of the media segment to request; generating, by the client device, a request for the one or more layers of the block, the request including a byte range corresponding to a location of the one or more layers, wherein the byte range is determined from the metadata included in the segment map; transmitting, by the client device, the request for the one or more layers of the block; receiving, at the client device, the one or more layers of the block of media data; and generating, by the client device, a media representation using the one or more layers of the block. receiving the scalable segment map at the client device, the scalable segment map including metadata with one or more byte ranges corresponding to locations of layers of a media segment, wherein the media segment includes one or more blocks and is associated with a scalable video coded stream including multiple layers that are combinable to form one or more representations; determining, by the client device, one or more layers of a block of the media segment to request; generating, by the client device, a request for the one or more layers of the block, the request including a byte range corresponding to a location of the one or more layers, wherein the byte range is determined from the metadata included in the segment map; transmitting, by the client device, the request for the one or more layers of the block; receiving, at the client device, the one or more layers of the block of media data; and generating, by the client device, a media representation using the one or more layers of the block.
An electronic device, comprising a lower housing and an upper cover that are connected to each other, wherein the upper cover has a bending structure that faces a direction of the lower housing, an end that is of the lower housing and that faces the upper cover has a flanging structure, the flanging structure overlaps a bottom wall of the bending structure, and the upper cover and the lower housing are connected at an overlapping part of the bending structure and the flanging structure; where the electronic device further comprises a sealing element, wherein the sealing element is disposed between the upper cover and the lower housing; the device characterized in that the flanging structure has a first flip surface parallel to the bottom wall of the bending structure, and the bottom wall of the bending structure is bonded to the first flip surface; and the bending structure and the flanging structure are connected at an overlapping part of the first flip surface and the bottom wall; wherein a side wall of the lower housing is flipped outwards to form the flanging structure; and the lower housing and the upper cover are enclosed to form a cavity, the flanging structure is concave towards a direction of the cavity to form a recess part, and the recess part is configured to protrude outwards when an impact force is exerted inside the lower housing, to increase a volume of the cavity. the upper cover has a bending structure that faces a direction of the lower housing, an end that is of the lower housing and that faces the upper cover has a flanging structure, the flanging structure overlaps a bottom wall of the bending structure, and the upper cover and the lower housing are connected at an overlapping part of the bending structure and the flanging structure; where the electronic device further comprises a sealing element, wherein the sealing element is disposed between the upper cover and the lower housing; the device characterized in that the flanging structure has a first flip surface parallel to the bottom wall of the bending structure, and the bottom wall of the bending structure is bonded to the first flip surface; and the bending structure and the flanging structure are connected at an overlapping part of the first flip surface and the bottom wall; wherein a side wall of the lower housing is flipped outwards to form the flanging structure; and the lower housing and the upper cover are enclosed to form a cavity, the flanging structure is concave towards a direction of the cavity to form a recess part, and the recess part is configured to protrude outwards when an impact force is exerted inside the lower housing, to increase a volume of the cavity.
A food processing device, comprising a base assembly and a cup body assembly, wherein the base assembly comprises: a base body; two stator assemblies comprising a first stator assembly and a second stator assembly, arranged on the base body, and comprising stator teeth; and a rotor avoidance area, being configured to be suitable for placing a rotor assembly of the food processing device on the base body; wherein the two stator assemblies are disposed around the rotor avoidance area, and surfaces of the stator teeth of the two stator assemblies are located on one side of the rotor avoidance area; wherein the cup body assembly is provided with the rotor assembly, wherein the rotor assembly is configured to be suitable for being driven by the two stator assemblies, and the cup body assembly is configured to be suitable for being detachably disposed on the base assembly; wherein the first stator assembly and the second stator assembly are configured to work simultaneously or independently, in accordance with the working mode of the food processing device. wherein the cup body assembly is provided with the rotor assembly, wherein the rotor assembly is configured to be suitable for being driven by the two stator assemblies, and the cup body assembly is configured to be suitable for being detachably disposed on the base assembly; wherein the first stator assembly and the second stator assembly are configured to work simultaneously or independently, in accordance with the working mode of the food processing device.