mhurhangee/ep-ind-claims huggingface dataset:
A duct connector for sealing duct components (30, 31) comprising: a duct member, a seal member (14A, 14B) for forming a seal between the duct member and a duct component (30, 31), and a collar (16A, 16B) for compressing the seal member (14A, 14B) onto the duct component (30, 31) to form the seal; wherein the duct member is hollow, is open at a first end (12A, 12B) and has a length extending away from the first end (12A, 12B), wherein the seal member (14A, 14B) is located around an outer circumference of the duct member, wherein the seal is an external seal around the outer circumference of the duct component (30, 31) substantially transverse to the length, wherein the collar (16A, 16B) is preferably located around an outer circumference of the seal member (14A, 14B), and wherein the collar (16A, 16B) is slidable in a lengthwise direction of the duct member from an unsealed position to a sealed position, closer to the first end (12A, 12B) of the duct member, to compress the seal member (14A, 14B) onto the duct component (30, 31) to form the external seal. a duct member, a seal member (14A, 14B) for forming a seal between the duct member and a duct component (30, 31), and a collar (16A, 16B) for compressing the seal member (14A, 14B) onto the duct component (30, 31) to form the seal; wherein the duct member is hollow, is open at a first end (12A, 12B) and has a length extending away from the first end (12A, 12B), wherein the seal member (14A, 14B) is located around an outer circumference of the duct member, wherein the seal is an external seal around the outer circumference of the duct component (30, 31) substantially transverse to the length, wherein the collar (16A, 16B) is preferably located around an outer circumference of the seal member (14A, 14B), and wherein the collar (16A, 16B) is slidable in a lengthwise direction of the duct member from an unsealed position to a sealed position, closer to the first end (12A, 12B) of the duct member, to compress the seal member (14A, 14B) onto the duct component (30, 31) to form the external seal.
A gate comprising a gate leaf that can be moved between a closed position and an open position and that has a plurality of gate leaf elements that can be tilted with respect to one another relative to tilt axes running parallel to one another, a door integrated into the gate leaf and having a door leaf that can be swivelled relative to gate leaf elements that are adjacent in the direction of the tilt axis about a swivel axis running perpendicular to the tilt axes, that is accommodated in a recess of the gate leaf when in the closed position, and preferably disposed in the plane of the gate leaf when in the closed position, and a positioning device having at least one preferably ramp-like guide surface (42, 44) and a guide means that comes into contact with the guide surface (42, 44) during a closing movement for positioning an edge of the door leaf facing away from the swivel axis upon reaching the closed position, characterised in that the guide means has a contact surface rotatably mounted relative to an axis of rotation running approximately parallel to the tilt axes in the closed position, with which contact surface said guide means comes into contact with the guide surface (42, 44) and which is designed to unroll on the guide surface (42, 44) in the course of a closing movement, at least one guide surface (42, 44) being made in the manner of a ramp with a gradient of 5 to 10 degrees relative to a horizontal plane.
A circularly-woven tube for an article of footwear or apparel comprising: (a) a plurality of warp yarns, having a first elastic modulus; (b) a plurality of weft yarns, having a second elastic modulus, (c) wherein the second elastic modulus is smaller than the first elastic modulus; and wherein a first type of warp yarns is arranged in a first area and a second type of warp yarns is arranged in a second area of the circularly-woven tube, wherein the first type of warp yarns has a first bending stiffness and the second type of warp yarns has a second bending stiffness, and the second bending stiffness is greater than the first bending stiffness. (a) a plurality of warp yarns, having a first elastic modulus; (b) a plurality of weft yarns, having a second elastic modulus, (c) wherein the second elastic modulus is smaller than the first elastic modulus; and wherein a first type of warp yarns is arranged in a first area and a second type of warp yarns is arranged in a second area of the circularly-woven tube,
A surgical bone cutter, in particular for the arthrodesis of a metatarsophalangeal joint, preferably of the first metatarsophalangeal joint, having a rotatable cutter blade holder and having at least one cutter blade for the production of a concave or convex cutting contour in a bone, which cutter blade can be releasably fixed to the cutter blade holder by fixing means, wherein latching means comprising a spring element are provided as fixing means for a releasable latching of the cutter blade to the cutter blade holder; wherein the spring element is configured and arranged such that it can be tensioned in a radial direction on a fixing and/or release of the cutter blade and such that it is received into a latch recess in a latched state; wherein the spring element is fixed to the cutter blade holder, in particular in a groove of the cutter blade holder, and can be tensioned by a direct interaction with the cutter blade on the fixing of the cutter blade; wherein the cutter blade penetrates the spring element axially inwardly or engages around it outwardly in the latched state; wherein at least one, preferably only one, spring ring which is in particular slotted and/or at least two partly circular springs which are spaced apart from one another in the peripheral direction is/are provided as the spring element; and wherein shape-matching means are provided for securing the cutter blade against rotation relative to the cutter blade holder, in particular in the form of at least one axial guide for guiding the cutter blade on its fixing and/or release, characterized in that the spring element penetrates the shape-matching means in the peripheral direction.
A target user equipment, UE (110 1), for use in a wireless network, the target UE (110 1) comprising a communication module (30 1) configured to: receive a first message from a device (124, 113, 114) in the wireless network, wherein the first message includes a position information indicating a position of an anchor UE (110 2), wherein the position information in the first message comprises a device identifier, deviceID, for the anchor UE (110 2), a physical cell identifier, physCellId, for a serving cell where the anchor UE (110 2) is located in; transmit a request message to the anchor UE (110 2) in the wireless network, wherein the request message includes an inquiry about whether a position of the anchor UE (110 2) is knowable to the target UE (110 1), and receive a response message from the anchor UE (110 2), wherein the response message includes a response to the inquiry indicating that the position of the anchor UE (110 2) is knowable to the target UE (110 1); and wherein the target UE (110 1) further comprises an input/output device configured to measure a delta position between the target UE (110 1) and the anchor UE (110 2), wherein the delta position is measured based on a light focus means or sonar; and wherein the response message further includes a physical cell identifier, phyCellId, for the serving cell where the anchor UE (110 2) is located and a device identifier, deviceID, of the anchor UE (110 2) whose position is knowable to the target UE (110 1). receive a first message from a device (124, 113, 114) in the wireless network, wherein the first message includes a position information indicating a position of an anchor UE (110 2), wherein the position information in the first message comprises a device identifier, deviceID, for the anchor UE (110 2), a physical cell identifier, physCellId, for a serving cell where the anchor UE (110 2) is located in; transmit a request message to the anchor UE (110 2) in the wireless network, wherein the request message includes an inquiry about whether a position of the anchor UE (110 2) is knowable to the target UE (110 1), and receive a response message from the anchor UE (110 2), wherein the response message includes a response to the inquiry indicating that the position of the anchor UE (110 2) is knowable to the target UE (110 1); and wherein the target UE (110 1) further comprises an input/output device configured to measure a delta position between the target UE (110 1) and the anchor UE (110 2), wherein the delta position is measured based on a light focus means or sonar; and wherein the response message further includes a physical cell identifier, phyCellId, for the serving cell where the anchor UE (110 2) is located and a device identifier, deviceID, of the anchor UE (110 2) whose position is knowable to the target UE (110 1).
A method of controlling pool or spa equipment via a networking device connected to a controller designed to control the operation of said pool or spa equipment, said method comprises the following steps: a. broadcasting, from the networking device, a signal mimicking an access point for a first Wi-Fi network; b. receiving, at a receiving device, the signal broadcasted by the networking device; c. connecting the receiving device for wireless communication with the networking device; d. thereafter the networking device identifying to the receiving device various network signals it is receiving by wirelessly transmitting, from the networking device to the receiving device, a service set identifier, SSID, of at least one second Wi-Fi network with which the networking device is capable of communicating wirelessly; e. re-configuring the networking device by a user of the receiving device by designating the SSID of the at least one second Wi-Fi network or by manually providing to the receiving device, for wireless communication to the networking device, the SSID of a different second Wi-Fi network; and f. controlling pool or spa equipment via the networking device through the designated second Wi-Fi network. a. broadcasting, from the networking device, a signal mimicking an access point for a first Wi-Fi network; b. receiving, at a receiving device, the signal broadcasted by the networking device; c. connecting the receiving device for wireless communication with the networking device; d. thereafter the networking device identifying to the receiving device various network signals it is receiving by wirelessly transmitting, from the networking device to the receiving device, a service set identifier, SSID, of at least one second Wi-Fi network with which the networking device is capable of communicating wirelessly; e. re-configuring the networking device by a user of the receiving device by designating the SSID of the at least one second Wi-Fi network or by manually providing to the receiving device, for wireless communication to the networking device, the SSID of a different second Wi-Fi network; and f. controlling pool or spa equipment via the networking device through the designated second Wi-Fi network.
Carbonate-substituted fluoro-hydroxyapatite particles for use in a remineralizing and cariostatic treatment of the teeth comprising providing at a teeth outer surface a source of F - and Sr ++ ions which may be locally released at an acidic pH, having the formula: Ca( 10-x-y-m) Zn x Sr y M m (PO 4) (6-z) (CO 3) z 2-w F w wherein M is selected from the group comprising Mg, Se, K and mixtures thereof; x is a number comprised between 0 and 0.02; y is a number comprised between 0.0010 and 0.015; m is a number between 0 and 0.5; z is a number comprised between 0.0010 and 0.010 and w is a number comprised between 0.000002 and 0.0001; and wherein said fluoro-hydroxyapatite particles have a crystallinity degree CD comprised between 50 and 85%.
An inspection system comprising: a flying device including a hammering inspection means configured to perform an inspection by hitting a location to be inspected from a predetermined position relative to the location to be inspected, and a flying means configured to fly with the hammering inspection means mounted on the flying means; characterized in that it further comprises a ground-side device that is fixedly installed at a position relative to the location to be inspected and is configured to detect a relative position of the flying device, by emitting a laser beam to the flying device and receiving said laser beam after reflection on a corner cube located on said flying device; and a control device configured to receive the relative position of the flying device from the ground-side device, and configured to control, based on the detected position of the flying device, the flying device in such a way that a forwarding direction of the flying device is a direction from the ground-side device to the location to be inspected, whereby the control device is configured to accept the specification of two points on a surface of the location to be inspected, and wherein the control device is configured to calculate a flight path in order to match a forwarding direction of the flying device to a direction being orthogonal to a straight line including the two points and being from the ground-side device to the location to be inspected, and wherein the control device is configured to determine a flight direction to be instructed to the flying device based on the determined flight path. a flying device including a hammering inspection means configured to perform an inspection by hitting a location to be inspected from a predetermined position relative to the location to be inspected, and a flying means configured to fly with the hammering inspection means mounted on the flying means; characterized in that it further comprises a ground-side device that is fixedly installed at a position relative to the location to be inspected and is configured to detect a relative position of the flying device, by emitting a laser beam to the flying device and receiving said laser beam after reflection on a corner cube located on said flying device; and a control device configured to receive the relative position of the flying device from the ground-side device, and configured to control, based on the detected position of the flying device, the flying device in such a way that a forwarding direction of the flying device is a direction from the ground-side device to the location to be inspected, whereby the control device is configured to accept the specification of two points on a surface of the location to be inspected, and wherein the control device is configured to calculate a flight path in order to match a forwarding direction of the flying device to a direction being orthogonal to a straight line including the two points and being from the ground-side device to the location to be inspected, and wherein the control device is configured to determine a flight direction to be instructed to the flying device based on the determined flight path.
A method for super resolution of one or more low-resolution images using a convolutional neural network having L layers and configured to operate in a higher-resolution domain and a low-resolution domain, the method comprising the steps of: receiving one or more low-resolution images; and enhancing the one or more low-resolution images to one or more higher-resolution images using the convolutional neural network, wherein the L-1 initial layers of the convolutional neural network are configured to operate in the lower resolution domain by performing feature extraction via convolution and non-linear mapping on a low-resolution input image to output a plurality of low-resolution feature maps; and wherein the final Lth layer of the convolutional neural network is configured to operate in the higher-resolution domain to produce a higher-resolution image by upscaling the low-resolution feature maps, wherein the upscaling comprises: performing convolutional filtering of the low resolution feature maps using a convolutional tensor of size n L-1 x r 2 C x k L x k L followed by a periodic shuffling operator, where C is the number of colour channels in the low-resolution image and r the upscaling ratio, n L-1 is the number of low-resolution feature maps and k L is the filter size of the convolution and the periodic shuffling is carried out by filling an array PS comprising the colour values PS x,y,c for each colour channel c and pixel coordinate x, y of the higher-resolution image with values of the tensor T output by the final convolution using: PS T x y c = T x r, y r, c ⋅ r ⋅ mod y r + c ⋅ mod x r receiving one or more low-resolution images; and enhancing the one or more low-resolution images to one or more higher-resolution images using the convolutional neural network, wherein the L-1 initial layers of the convolutional neural network are configured to operate in the lower resolution domain by performing feature extraction via convolution and non-linear mapping on a low-resolution input image to output a plurality of low-resolution feature maps; and wherein the final Lth layer of the convolutional neural network is configured to operate in the higher-resolution domain to produce a higher-resolution image by upscaling the low-resolution feature maps, wherein the upscaling comprises: performing convolutional filtering of the low resolution feature maps using a convolutional tensor of size n L-1 x r 2 C x k L x k L followed by a periodic shuffling operator, where C is the number of colour channels in the low-resolution image and r the upscaling ratio, n L-1 is the number of low-resolution feature maps and k L is the filter size of the convolution and the periodic shuffling is carried out by filling an array PS comprising the colour values PS x,y,c for each colour channel c and pixel coordinate x, y of the higher-resolution image with values of the tensor T output by the final convolution using: PS T x y c = T x r, y r, c ⋅ r ⋅ mod y r + c ⋅ mod x r
A method for adjusting margin in a memory, comprising: periodically sampling set and reset margins for nonvolatile memory cells (322, 324) of a memory array having multiple memory cells that store data as either a set or a reset state of the memory cells; and adaptively adjusting a preset setting used to differentiate between a set state and a reset state for a memory cell in response to detecting a change in a margin, characterized in that periodically sampling set and reset margins comprises sampling set and reset margins for a predetermined number of wear level moves per rank. periodically sampling set and reset margins for nonvolatile memory cells (322, 324) of a memory array having multiple memory cells that store data as either a set or a reset state of the memory cells; and adaptively adjusting a preset setting used to differentiate between a set state and a reset state for a memory cell in response to detecting a change in a margin,
A method for cooling an object, comprising the steps of: - providing at least one object to be cooled, - spatially distributing a cryogenic cooling liquid using at least one nozzle onto said at least one object so that the at least one object is cooled, characterized in that said at least one nozzle is a fluidic oscillating nozzle, which is configured to generate a spatially oscillating flow of said cryogenic cooling liquid while maintaining a constant flow rate of the cryogenic cooling liquid through the nozzle. - providing at least one object to be cooled, - spatially distributing a cryogenic cooling liquid using at least one nozzle onto said at least one object so that the at least one object is cooled, said at least one nozzle is a fluidic oscillating nozzle, which is configured to generate a spatially oscillating flow of said cryogenic cooling liquid while maintaining a constant flow rate of the cryogenic cooling liquid through the nozzle.
Stator for a rotating electric machine, comprising a body equipped with a yoke and with teeth defining, in pairs, slots, and a winding comprising conductors having segment structures that are inserted inside the slots, and a ratio between a slot width covered with a slot insulator and a segment structure width covered with enamel is between 0.9 and 2, the slots are trapezoidal and are provided with edges whose directions converge on the shaft of the stator, and characterized in that the following is defined for each slot: - a slot entry clearance equal to the insertion clearance; - a slot base clearance, twice the slot base clearance being less than +0.5 mm. - a slot entry clearance equal to the insertion clearance; - a slot base clearance, twice the slot base clearance being less than +0.5 mm.
A fan blade containment system for an aircraft engine, the fan blade containment system comprising: a shield configured to be coupled to an aircraft structure and configured to at least partially surround a circumference of the aircraft engine, wherein the shield is further configured to be spaced from an outer surface of the aircraft engine when the shield is coupled to the aircraft structure; and the shield forms a laminated clevis at an end of the shield; and wherein the fan blade containment system further comprises a retention rod configured to be positioned in the laminated clevis of the shield, wherein the retention rod is configured to engage a lug hook of the aircraft structure and anchor the shield to the aircraft structure. a shield configured to be coupled to an aircraft structure and configured to at least partially surround a circumference of the aircraft engine, wherein the shield is further configured to be spaced from an outer surface of the aircraft engine when the shield is coupled to the aircraft structure; and the shield forms a laminated clevis at an end of the shield; and wherein the fan blade containment system further comprises a retention rod configured to be positioned in the laminated clevis of the shield, wherein the retention rod is configured to engage a lug hook of the aircraft structure and anchor the shield to the aircraft structure.
A method for detecting ATP in a sample by means of luminescence, comprising the steps of: 1) adding a luminescence reagent to a sample that has not undergone any pre-treatment with an extractant in order to effect the formation of an ATP complex, and measuring the luminescence as a function of time for the ATP complex thus formed; 2) adding a somatic extractant to the sample obtained in step 1) in order to effect the formation of an ATP complex, and measuring the luminescence as a function of time for the ATP complex thus formed; 3) adding a microbial extractant to the sample obtained in step 2) in order to effect the formation of an ATP complex, and measuring the luminescence as a function of time for the ATP complex thus formed; 4) comparing the luminescence as a function of time obtained in step 3) with a standard value for the luminescence as a function of time for a blank, non-contaminated sample to determine if microbial cells are present, wherein said method is for providing information on the types of cells by obtaining information on the rate at which ATP is released from somatic and/or microbial cells. 1) adding a luminescence reagent to a sample that has not undergone any pre-treatment with an extractant in order to effect the formation of an ATP complex, and measuring the luminescence as a function of time for the ATP complex thus formed; 2) adding a somatic extractant to the sample obtained in step 1) in order to effect the formation of an ATP complex, and measuring the luminescence as a function of time for the ATP complex thus formed; 3) adding a microbial extractant to the sample obtained in step 2) in order to effect the formation of an ATP complex, and measuring the luminescence as a function of time for the ATP complex thus formed; 4) comparing the luminescence as a function of time obtained in step 3) with a standard value for the luminescence as a function of time for a blank, non-contaminated sample to determine if microbial cells are present,