mhurhangee/ep-ind-claims huggingface dataset:
A periphery surveillance apparatus comprising: a storage section that stores captured image data output from a capturing section for capturing an image of a region including a road surface and a region upward from the road surface, in a traveling direction of a vehicle; a display section that selectively displays at least one of a past image and a present image among pieces of captured image data which are stored in the storage section, the past image based on captured image data corresponding to a current underfloor area of the vehicle, and the present image based on new captured image data which is captured and output by the capturing section; and a control section that performs switching to the past image when a permission condition for permitting display of the past image is established during a time when the present image is displayed in the display section and performs switching to the present image when a recovery condition for performing recovery to the present image is established during a time of displaying the past image is displayed in the display section, characterized in that the permission condition is established when both conditions which are defined by a vehicle state and the condition defined by a switching request operation performed by the user are satisfied, and both of the conditions are the condition defined by a vehicle state and the condition defined by a switching request operation performed by the user. a storage section that stores captured image data output from a capturing section for capturing an image of a region including a road surface and a region upward from the road surface, in a traveling direction of a vehicle; a display section that selectively displays at least one of a past image and a present image among pieces of captured image data which are stored in the storage section, the past image based on captured image data corresponding to a current underfloor area of the vehicle, and the present image based on new captured image data which is captured and output by the capturing section; and a control section that performs switching to the past image when a permission condition for permitting display of the past image is established during a time when the present image is displayed in the display section and performs switching to the present image when a recovery condition for performing recovery to the present image is established during a time of displaying the past image is displayed in the display section, characterized in that the permission condition is established when both conditions which are defined by a vehicle state and the condition defined by a switching request operation performed by the user are satisfied, and both of the conditions are the condition defined by a vehicle state and the condition defined by a switching request operation performed by the user.
A cutting blade overload safety device for a cutting mechanism of a combine harvester, comprising: a lever arrangement for cooperating with a cutting blade of the cutting mechanism, wherein the lever arrangement is displaceable into a support position for supporting the cutting blade in a cutting position thereof and out of the support position against a predetermined biasing force to allow the cutting blade to deflect from the cutting position upon an overload which acts thereon and which exceeds the biasing force, characterised in that the lever arrangement is in the form of a toggle lever mechanism having two toggle levers (61, 62) which are pivotably connected together by way of a toggle joint at respective longitudinal ends thereof, wherein the toggle joint can be put into an abutment condition in a straight position of the toggle levers (61, 62) under the biasing force implementing biasing so that the support position is brought about, and the toggle levers (61, 62) can be moved out of the straight position by folding of the toggle lever mechanism against the biasing away from the abutment condition in the toggle joint to allow the deflection out of the cutting position of the cutting blade. a lever arrangement for cooperating with a cutting blade of the cutting mechanism, wherein the lever arrangement is displaceable into a support position for supporting the cutting blade in a cutting position thereof and out of the support position against a predetermined biasing force to allow the cutting blade to deflect from the cutting position upon an overload which acts thereon and which exceeds the biasing force, characterised in that the lever arrangement is in the form of a toggle lever mechanism having two toggle levers (61, 62) which are pivotably connected together by way of a toggle joint at respective longitudinal ends thereof, wherein the toggle joint can be put into an abutment condition in a straight position of the toggle levers (61, 62) under the biasing force implementing biasing so that the support position is brought about, and the toggle levers (61, 62) can be moved out of the straight position by folding of the toggle lever mechanism against the biasing away from the abutment condition in the toggle joint to allow the deflection out of the cutting position of the cutting blade.
Coating, or body provided with a coating, where the coating is formed at least partly of a composite material comprising a porous carrier which comprises a metallic core that is clad with a metal oxide and that has a polyphosphazene bonded on it, characterized in that the carrier comprises a multiplicity of nanowires.
A method performed by an access and mobility management function, AMF, of a wireless communication system, the method comprising: receiving a network registration request message from a terminal; determining whether the terminal requires support for access traffic steering, switching, splitting, ATSSS; in case that the terminal requires support for the ATSSS, requesting information about an AMF supporting the ATSSS from a network repository function, NRF; receiving, from the NRF, information about at least one candidate AMF supporting the ATSSS; selecting an AMF to perform a network registration procedure for the terminal, based on the information about the at least one candidate AMF; and transmitting a re-route request message including information about the selected AMF to a base station, BS. receiving a network registration request message from a terminal; determining whether the terminal requires support for access traffic steering, switching, splitting, ATSSS; in case that the terminal requires support for the ATSSS, requesting information about an AMF supporting the ATSSS from a network repository function, NRF; receiving, from the NRF, information about at least one candidate AMF supporting the ATSSS; selecting an AMF to perform a network registration procedure for the terminal, based on the information about the at least one candidate AMF; and transmitting a re-route request message including information about the selected AMF to a base station, BS.
A method, comprising: instantiating, within an application software development environment, a virtual processor (205; 604) having an instruction set architecture and memory model that are directed to first and second regions of reserved memory, the first reserved region to keep data of an input image array (303; 403), the second reserved region to keep data of an output image array (304; 404); and, simulating execution of a memory load instruction of the instruction set architecture by automatically targeting the first reserved region and identifying desired input data with first and second coordinates with positional offsets, X0 and Y0, relative to the virtual processor's position within an orthogonal coordinate system and expressed in the instruction format of the memory load instruction wherein the virtual processor is assigned to the position within the output image array that its output value is written to. instantiating, within an application software development environment, a virtual processor (205; 604) having an instruction set architecture and memory model that are directed to first and second regions of reserved memory, the first reserved region to keep data of an input image array (303; 403), the second reserved region to keep data of an output image array (304; 404); and, simulating execution of a memory load instruction of the instruction set architecture by automatically targeting the first reserved region and identifying desired input data with first and second coordinates with positional offsets, X0 and Y0, relative to the virtual processor's position within an orthogonal coordinate system and expressed in the instruction format of the memory load instruction wherein the virtual processor is assigned to the position within the output image array that its output value is written to.
A resistive memory comprising: a first electrode and a second electrode arranged opposite to each other; a variable resistance layer arranged between the first electrode and the second electrode; an oxygen exchange layer arranged between the variable resistance layer and the second electrode; a protection layer arranged at least on sidewalls of the oxygen exchange layer; and a first dielectric layer arranged on sidewalls of the protection layer, characterized in that, the protection layer extends to a space between the oxygen exchange layer and the variable resistance layer and extends to a top surface of the first dielectric layer. a first electrode and a second electrode arranged opposite to each other; a variable resistance layer arranged between the first electrode and the second electrode; an oxygen exchange layer arranged between the variable resistance layer and the second electrode; a protection layer arranged at least on sidewalls of the oxygen exchange layer; and a first dielectric layer arranged on sidewalls of the protection layer, characterized in that, the protection layer extends to a space between the oxygen exchange layer and the variable resistance layer and extends to a top surface of the first dielectric layer.
A method for forming a fuel cell component comprising: providing a two-part sealant having a first part comprising an initiator and a second part comprising a polymerizable material; applying the first part of the sealant to a substrate of a first fuel cell component; applying the second part of the sealant to a substrate of a second fuel cell component; juxtaposingly aligning the substrates of the first and second fuel cell components; and, curing the sealant to bond the first and second fuel components to one and the other. providing a two-part sealant having a first part comprising an initiator and a second part comprising a polymerizable material; applying the first part of the sealant to a substrate of a first fuel cell component; applying the second part of the sealant to a substrate of a second fuel cell component; juxtaposingly aligning the substrates of the first and second fuel cell components; and, curing the sealant to bond the first and second fuel components to one and the other.
Rechargeable battery pack interface apparatus comprising at least one connecting unit which is designed for releasably mechanically connecting a rechargeable battery pack to a consumer, wherein the mechanical connection is releasable by means of a relative movement of the rechargeable battery pack with respect to the consumer, characterized in that the rechargeable battery pack interface apparatus has a safety unit which is designed in such a way that the mechanical connection can be released by means of the relative movement of the rechargeable battery pack with respect to the consumer in a non-tripped state of the safety unit and the mechanical connection can be released by means of another relative movement, which differs from the relative movement, in a tripped state of the safety unit.
A method for measuring a height profile (W 2.5, W 2.5 ', W 2, W 2 ') of a vehicle passing on a road, said method comprising the following steps: directing a monocular camera from a point above the road onto the road with an angle of aperture (α, β) that captures a section of the road from above, recording at least a first image (F 1) of the passing vehicle by means of the camera at a first moment in time (t 1), recording at least a second image (F 2) of the passing vehicle by means of the camera at a second moment in time (t 2), generating a movement vector image (V, V') of the vehicle from an analysis of the optical flow between the first and the second image (F 1, F 2), and creating the height profile (W 2.5, W 2.5 ', W 2, W 2 ') of the vehicle from the movement vector image (V, V'). directing a monocular camera from a point above the road onto the road with an angle of aperture (α, β) that captures a section of the road from above, recording at least a first image (F 1) of the passing vehicle by means of the camera at a first moment in time (t 1), recording at least a second image (F 2) of the passing vehicle by means of the camera at a second moment in time (t 2), generating a movement vector image (V, V') of the vehicle from an analysis of the optical flow between the first and the second image (F 1, F 2), and creating the height profile (W 2.5, W 2.5 ', W 2, W 2 ') of the vehicle from the movement vector image (V, V').
A contact lens (100; 200), comprising a posterior surface and an opposite anterior surface, wherein the anterior surface includes a vertical meridian, a horizontal meridian, a central optical zone (110; 210), a peripheral zone (130; 230), an edge zone (160; 260), a first blending zone (120; 220) extending outwardly from the central optical zone (110; 210) to the peripheral zone (130; 230) and providing a continuous transition from the central optical zone (110; 210) to the peripheral zone (130; 230), a second blending zone (150; 250) extending outwardly from the peripheral zone (130; 230) to the edge zone (160; 260) and providing a continuous transition from the peripheral zone (130; 230) to the edge zone (160; 260); wherein the anterior surface has a mirror symmetry with respect to a vertical meridian plane and is continuous at least in first derivative, wherein the contact lens (100; 200) is weighed at its lower half portion by varying lens thickness within the peripheral zone and second blending zone (150; 250) to cause it to come to an equilibrium position on the eye, wherein the peripheral zone (130; 230) further comprises a ridge feature disposed below the central optical zone (110; 210) and extending outwardly from the peripheral zone (130; 230) to enable engagement with a lower eyelid of a user and thereby provide vertical translation support for the contact lens (100; 200) when being worn by the user, wherein the contact lens (100; 200) has a lens thickness profile in which lens thickness, in a sector bounded by two sector-bounding semi-meridians at about 35 degrees or larger relative to the lower portion of the vertical meridian and by a portion of the edge included between the two sector-bounding semi-meridians, increases gradually from the inner boundary of the peripheral zone (130; 230) along each semi-meridian until reaching a lens thickness maximum and then decreases, wherein the lens thickness, along the lower portion of the vertical meridian, of the contact lens (100; 200) in the peripheral zone (130; 230) increases gradually from the inner boundary of the peripheral zone (130; 230) to the outer boundary of the peripheral zone (130; 230) in a manner that the difference between the values of lens thickness at two intersection points of the lower portion of the vertical meridian with the inner and outer boundaries of the peripheral zone (130; 230) is from about 15% to about 65%, characterized in that the ridge feature is a ramped ridge which includes an upper boundary, a lower ramped boundary, a latitudinal ridge that extends outwardly from the anterior surface, and a ramp that extends downwardly from the lower ramped boundary and has a curvature or slope that provides a varying degree of interaction between the ramped ridge zone and the lower eyelid of an eye depending on where the lower eyelid strikes the ramped ridge zone, and in that the ramped ridge has two bumps formed at the two ends of the latitudinal ridge the elevation height of which are higher at the both ends than in the middle.
Temperature controlled laminar air flow for use in the treatment of atopic dermatitis wherein the air is filtered and provided to a patient's personal breathing zone without in-mixing of contaminated ambient air.
A Cassegrain-type metamaterial antenna, comprising: a metamaterial main reflector having a central through-hole, a feed source disposed in the central through-hole, and a sub-reflector disposed in front of the feed source, wherein the Cassegrain-type metamaterial antenna is configured such that an electromagnetic wave radiated by the feed source is emerged after being reflected by the sub-reflector and the metamaterial main reflector in sequence; the metamaterial main reflector comprises: a first core layer and a first reflection layer disposed on a rear surface of the first core layer, wherein the first core layer comprises at least one first core layer lamella, and the first core layer lamella comprises: a first base material and multiple first conductive geometric structures disposed on the first base material; wherein the sub-reflector has a near focus and a far focus, a phase center of the feed source coincides with the far focus of the sub-reflector, and the near focus coincides with a focus of the metamaterial main reflector, the phase center of the feed source is a point where phases of electromagnetic waves in the feed source are equal; wherein the feed source is a corrugated horn, and the real axis or the central axis of the sub-reflector passes through a center of an aperture of the corrugated horn; wherein refractive index distribution of any one of the first core layer lamella meets the following formulas: n R = n max 1 − s 2 + R 2 − s + kλ 2 d 1; d 1 = λ 2 n max 1 − n min 1; k = floor s 2 + R 2 − s λ wherein, n indicates a refractive index value when a radius of the first core layer lamella is R, and a center of a circle of refractive index distribution of the first core layer lamella is an intersection point of the real axis or the central axis with the first core layer lamella; s indicates a distance from the near focus to a front surface of the metamaterial main reflector; d 1 indicates a thickness of the first core layer; n max1 indicates a maximum refractive index value of the first core layer lamella; n min1 indicates a minimum refractive index value of the first core layer lamella; λ indicates a wavelength of an electromagnetic wave corresponding to a center frequency of an antenna; and floor indicates rounding down. n indicates a refractive index value when a radius of the first core layer lamella is R, and a center of a circle of refractive index distribution of the first core layer lamella is an intersection point of the real axis or the central axis with the first core layer lamella; s indicates a distance from the near focus to a front surface of the metamaterial main reflector; d 1 indicates a thickness of the first core layer; n max1 indicates a maximum refractive index value of the first core layer lamella; n min1 indicates a minimum refractive index value of the first core layer lamella; λ indicates a wavelength of an electromagnetic wave corresponding to a center frequency of an antenna; and floor indicates rounding down.
A liquid crystal composition comprising, as a first component, 3 to 25% by mass of a compound represented by formula, as a second component, 10 to 50% by mass of at least one compound selected from compounds represented by general formulae (II-1) and (II-2), (wherein R 5 represents an alkyl group having 1 to 10 carbon atoms), and at least one compound selected from a compound group represented by general formulae (IV-1) to (IV-10), (wherein R 8 represents an alkyl group having 1 to 5 carbon atoms or an alkenyl group having 2 to 5 carbon atoms, and R 9 represents an alkyl group having 1 to 5 carbon atoms, an alkoxyl group having 1 to 5 carbon atoms, an alkenyl group having 2 to 5 carbon atoms, or an alkenyloxy group having 2 to 5 carbon atoms).
A computer system, comprising: a processor coupled to a memory hierarchy via a memory controller; wherein the memory hierarchy includes a first memory region comprising random access memory and an auxiliary memory region comprising flash memory, wherein the first memory region and the auxiliary memory region are interconnected through a cache buffer; wherein the memory controller is coupled to the auxiliary memory region via a flash controller; wherein the processor is configured to send a request to the memory controller to access a particular page in the first memory region; wherein in response to detecting a page fault corresponding to the request, the processor is configured to swap a page from the auxiliary memory region to the first memory region; wherein a command sequencer within the processor executes a sequence of micro commands stored in the first memory region to move data between the auxiliary memory region and the first memory region; wherein to move data from the first memory region to the auxiliary memory region, the processor is configured to: read the data from the first memory region to the cache buffer; and write the data from the cache buffer to the auxiliary memory region; and wherein to move data from the auxiliary memory region to the first memory region, the processor is configured to: read the data from the auxiliary memory region to the cache buffer; and write the data from the cache buffer to the first memory region. a processor coupled to a memory hierarchy via a memory controller; wherein the memory hierarchy includes a first memory region comprising random access memory and an auxiliary memory region comprising flash memory, wherein the first memory region and the auxiliary memory region are interconnected through a cache buffer; wherein the memory controller is coupled to the auxiliary memory region via a flash controller; wherein the processor is configured to send a request to the memory controller to access a particular page in the first memory region; wherein in response to detecting a page fault corresponding to the request, the processor is configured to swap a page from the auxiliary memory region to the first memory region; wherein a command sequencer within the processor executes a sequence of micro commands stored in the first memory region to move data between the auxiliary memory region and the first memory region; wherein to move data from the first memory region to the auxiliary memory region, the processor is configured to: read the data from the first memory region to the cache buffer; and write the data from the cache buffer to the auxiliary memory region; and read the data from the first memory region to the cache buffer; and write the data from the cache buffer to the auxiliary memory region; and wherein to move data from the auxiliary memory region to the first memory region, the processor is configured to: read the data from the auxiliary memory region to the cache buffer; and write the data from the cache buffer to the first memory region. read the data from the auxiliary memory region to the cache buffer; and write the data from the cache buffer to the first memory region.