mhurhangee/ep-ind-claims huggingface dataset:
A foot support member, comprising: a plantar support component including a first surface for supporting at least a portion of a plantar surface of a wearer's foot; and a flexible support member engaged with the plantar support component, wherein the flexible support member includes a wave shaped portion, wherein the wave shaped portion is oriented such that plural wave crests extend toward the first surface of the plantar support component and plural wave troughs extend away from the first surface of the plantar support component, wherein the wave shaped portion includes a rigid plate capable of flexing under weight of a wearer, wherein flexing of the rigid plate under weight of a wearer changes a longitudinal dimension of the foot support member, wherein peaks of the plural wave troughs and peaks of the plural wave crests extend in a substantially heel to toe direction, wherein the foot support member further comprises a ground contacting component engaged with the wave shaped portion of the flexible support member, wherein the ground contacting component extends laterally outward with respect to a majority of a lateral perimeter edge of the foot support member when the rigid plate of the wave shaped portion flexes under weight of a wearer, and wherein the wave shaped portion of the flexible support member is located in a forefoot area of the foot support member and extends from a central forefoot region toward a lateral side region of the foot support member. a plantar support component including a first surface for supporting at least a portion of a plantar surface of a wearer's foot; and a flexible support member engaged with the plantar support component, wherein the flexible support member includes a wave shaped portion, wherein the wave shaped portion is oriented such that plural wave crests extend toward the first surface of the plantar support component and plural wave troughs extend away from the first surface of the plantar support component, wherein the wave shaped portion includes a rigid plate capable of flexing under weight of a wearer, wherein flexing of the rigid plate under weight of a wearer changes a longitudinal dimension of the foot support member, wherein peaks of the plural wave troughs and peaks of the plural wave crests extend in a substantially heel to toe direction, wherein the foot support member further comprises a ground contacting component engaged with the wave shaped portion of the flexible support member, wherein the ground contacting component extends laterally outward with respect to a majority of a lateral perimeter edge of the foot support member when the rigid plate of the wave shaped portion flexes under weight of a wearer, and wherein the wave shaped portion of the flexible support member is located in a forefoot area of the foot support member and extends from a central forefoot region toward a lateral side region of the foot support member.
Cabinet arrangement having at least two electrical cabinets, in particular interconnected switch cabinets and/or meter cabinets and/or distribution cabinets, which are distributed one beside the other in each case by means of a cabinet-connecting system (1a-1e), wherein, for the mechanical connection of the at least two cabinets (2a-2e, 4a-4e), in particular switch cabinets and/or distribution cabinets and/or meter cabinets, the cabinet-connecting system (1a-1e) comprises at least one first elongate housing-edge-connecting strip (6a-6e), which is connected in an inwardly projecting manner to at least one edge of at least one wall (10a-10d) of the first cabinet (2a-2e), at least one second elongate housing-edge-connecting strip (12a-12e), which is connected in an inwardly projecting manner to at least one edge of at least one wall (16a-16d) of the second cabinet (4a-4e), and at least one elongate connecting element (20a-20c), which is connected to the housing-edge-connecting strips (6a-6e, 12a-12e) in a re-releasable manner from the outside so as to establish a connection between the cabinets (2a-2e, 4a-4e), characterized in that at least one of the housing-edge-connecting strips (6a-6e, 12a-12e) has at least one groove-form aperture in its direction of longitudinal extent, at least one of the walls (10a-10d, 16a-16d) being pushed into said aperture and retained thereby.
A method for determining a topology of a distribution grid feeder (200, 300), said method comprising: providing voltage data and current data, measured at a plurality of nodes in the feeder (200, 300) at a plurality of sample times, to a computer having a processor and memory; calculating (704, 706), using the computer, a voltage variance for each of the nodes and a correlation coefficient for each pair of the nodes based on the voltage data for the plurality of sample times; assigning all nodes to a set of undiscovered nodes and creating an empty set of discovered parentless nodes; identifying a first node as a node from the set of undiscovered nodes with a highest voltage variance; designating the first node as a leaf node; determining (714, 718) if a second node exists in the set of discovered parentless nodes, where the second node has a highest correlation coefficient with the first node and the second node has a lower average current than the first node; when the second node exists, designating the first node as a parent of the second node, removing the second node from the set of discovered parentless nodes and returning to determining (714, 718) if a second node exists; and when the second node does not exist, removing the first node from the set of undiscovered nodes, adding the first node to the set of discovered parentless nodes and returning to identifying a first node. providing voltage data and current data, measured at a plurality of nodes in the feeder (200, 300) at a plurality of sample times, to a computer having a processor and memory; calculating (704, 706), using the computer, a voltage variance for each of the nodes and a correlation coefficient for each pair of the nodes based on the voltage data for the plurality of sample times; assigning all nodes to a set of undiscovered nodes and creating an empty set of discovered parentless nodes; identifying a first node as a node from the set of undiscovered nodes with a highest voltage variance; designating the first node as a leaf node; determining (714, 718) if a second node exists in the set of discovered parentless nodes, where the second node has a highest correlation coefficient with the first node and the second node has a lower average current than the first node; when the second node exists, designating the first node as a parent of the second node, removing the second node from the set of discovered parentless nodes and returning to determining (714, 718) if a second node exists; and when the second node does not exist, removing the first node from the set of undiscovered nodes, adding the first node to the set of discovered parentless nodes and returning to identifying a first node.
A system operating in a fifth generation, 5G, mobile network comprising: one or more processors; a memory; and one or more components stored in the memory and executable by the one or more processors to perform operations comprising: receiving utilization information associated with a plurality of user plane functions, individual ones of the plurality of user plane functions configurable to carry data associated with at least one communication associated with at least one user equipment; receiving, from a session management function, a request for a user plane function, the request associated with a user equipment; determining, by a network resource function, one or more user plane functions of the plurality of user plane functions to provide to the session management function based at least in part on the utilization information; and providing an identification of the one or more user plane functions to the session management function to facilitate a communication with the user equipment. one or more processors; a memory; and one or more components stored in the memory and executable by the one or more processors to perform operations comprising: receiving utilization information associated with a plurality of user plane functions, individual ones of the plurality of user plane functions configurable to carry data associated with at least one communication associated with at least one user equipment; receiving, from a session management function, a request for a user plane function, the request associated with a user equipment; determining, by a network resource function, one or more user plane functions of the plurality of user plane functions to provide to the session management function based at least in part on the utilization information; and providing an identification of the one or more user plane functions to the session management function to facilitate a communication with the user equipment. receiving utilization information associated with a plurality of user plane functions, individual ones of the plurality of user plane functions configurable to carry data associated with at least one communication associated with at least one user equipment; receiving, from a session management function, a request for a user plane function, the request associated with a user equipment; determining, by a network resource function, one or more user plane functions of the plurality of user plane functions to provide to the session management function based at least in part on the utilization information; and providing an identification of the one or more user plane functions to the session management function to facilitate a communication with the user equipment.
A battery pack comprising: a plurality of battery cells (100, 300), each including an upper surface (130, 300a) through which a pair of electrode terminals (140, 150) are protruded, a lower surface (115, 300b) facing the upper surface, and a pair of long side surfaces (111, 112, 300c, 300d) and a pair of short side surfaces (113, 114, 300e, 300f) among surfaces connecting the upper surface and the lower surface, the long side surfaces having a relatively large area, and the short side surfaces having a relatively small area; and a cell frame that receives the battery cells (100, 300), exposes the upper surfaces (130, 300a) of the battery cells, and includes side plates for supporting the short side surfaces (113, 114, 300e, 300f) of the plurality of battery cells and end plates positioned at opposite ends to support the long side surfaces (111, 112, 300c, 300d) of the battery cells, characterised in that the end plates include protrusions protruding in a direction opposite to a direction in which the end plates face long side surfaces (111, 112, 300c, 300d) of the battery cells at the opposite ends; and a recess located between the protrusions, depressed in a direction of long side surfaces (111, 112, 300c, 300d) of the battery cells, and providing an extra space for swelling.
A computer-readable media having computer executable instructions for use in connection with a process for defining within a controlling device a controlled device data set for use in generating commands for commanding operations of an intended target appliance (102, 104, 106), the instructions performing steps comprising: receiving input used to identify the controlling device; receiving input (702, 704) used to identify the intended target appliance (102, 104, 106); using the identity of the controlling device and the identity of the intended target appliance (102, 104, 106) to discern matches between elements within a library of device data sets known to be stored in the controlling device and elements within a device data set appropriate for use in generating commands for commanding operations of the intended target appliance (102, 104, 106); and creating a definition which, when provided to the controlling device, will allow the controlling device to command operations of the intended target appliance (102, 104, 106) through use of those elements within the library of device data sets known to be stored in the controlling device which have been discerned to match elements within the device data set for use in generating commands for commanding operations of the intended target appliance (102, 104, 106). receiving input used to identify the controlling device; receiving input (702, 704) used to identify the intended target appliance (102, 104, 106); using the identity of the controlling device and the identity of the intended target appliance (102, 104, 106) to discern matches between elements within a library of device data sets known to be stored in the controlling device and elements within a device data set appropriate for use in generating commands for commanding operations of the intended target appliance (102, 104, 106); and creating a definition which, when provided to the controlling device, will allow the controlling device to command operations of the intended target appliance (102, 104, 106) through use of those elements within the library of device data sets known to be stored in the controlling device which have been discerned to match elements within the device data set for use in generating commands for commanding operations of the intended target appliance (102, 104, 106).
Glass structural element, having a plastic-coated glass panel and at least one assembly element attached to the plastic-coated glass panel, the glass panel being coated over its full area with a silicone-based elastomer, and the coating at the same time producing an adhesive bond to a section of the assembly element that lies on the glass panel.
A system comprising a liquid crystal on silicon spatial light modulator, LCOS SLM, device and a light source (110, 111) arranged to illuminate the LCoS SLM device with collimated incident light,wherein the propagation direction of the collimated incident light is defined by a propagation vector; wherein the LCoS SLM device comprises: a silicon backplane; a transparent substrate; a liquid crystal layer interposed between the silicon backplane and transparent substrate; an electrode structure (1405, 1505, 1407, 1409, 1411,1507) formed on the silicon backplane for generating an electric field in the liquid crystal layer, wherein the electric field is substantially parallel to the silicon backplane; a reflective component opposing the transparent substrate; and characterised by: at least one liquid crystal alignment layer arranged to provide a liquid crystal pretilt angle greater than 20 degrees, wherein the pretilt angle is defined as the angle between the director of the liquid crystal comprised within the liquid crystal layer and the silicon backplane; wherein, in a state where the director of the liquid crystal is determined by the liquid crystal alignment layer, the director is arranged to be collinear with the propagation vector of the incident light. wherein the LCoS SLM device comprises: a silicon backplane; a transparent substrate; a liquid crystal layer interposed between the silicon backplane and transparent substrate; an electrode structure (1405, 1505, 1407, 1409, 1411,1507) formed on the silicon backplane for generating an electric field in the liquid crystal layer, wherein the electric field is substantially parallel to the silicon backplane; a reflective component opposing the transparent substrate; and a silicon backplane; a transparent substrate; a liquid crystal layer interposed between the silicon backplane and transparent substrate; an electrode structure (1405, 1505, 1407, 1409, 1411,1507) formed on the silicon backplane for generating an electric field in the liquid crystal layer, wherein the electric field is substantially parallel to the silicon backplane; a reflective component opposing the transparent substrate; and characterised by: at least one liquid crystal alignment layer arranged to provide a liquid crystal pretilt angle greater than 20 degrees, wherein the pretilt angle is defined as the angle between the director of the liquid crystal comprised within the liquid crystal layer and the silicon backplane; wherein, in a state where the director of the liquid crystal is determined by the liquid crystal alignment layer, the director is arranged to be collinear with the propagation vector of the incident light. at least one liquid crystal alignment layer arranged to provide a liquid crystal pretilt angle greater than 20 degrees, wherein the pretilt angle is defined as the angle between the director of the liquid crystal comprised within the liquid crystal layer and the silicon backplane; wherein, in a state where the director of the liquid crystal is determined by the liquid crystal alignment layer, the director is arranged to be collinear with the propagation vector of the incident light.
A drive motor upgrade kit for adapting a mechanical press of the flywheel-driven type to a servo press, said mechanical press comprising a drive motor and an existing drive train (34, 27, 7, 29), said kit comprising: - a servo motor adapted for driving said mechanical press and - a drive transmission apparatus (9, 5) connected to the servo motor and adapted for engagement with at least one gear of said existing drive train of said mechanical press, which engagement requires no modification of said existing drive train and - a structural fixture on which the servo motor and the drive transmission apparatus are arranged for fixing to a structural part of the mechanical press, characterised in that said kit further comprises a control means configured to limit the total peak power, both positive and negative, of the drive motor and the servo motor to a value which is equal to or lower than the peak power of the servo motor alone. - a servo motor adapted for driving said mechanical press and - a drive transmission apparatus (9, 5) connected to the servo motor and adapted for engagement with at least one gear of said existing drive train of said mechanical press, which engagement requires no modification of said existing drive train and - a structural fixture on which the servo motor and the drive transmission apparatus are arranged for fixing to a structural part of the mechanical press,
An instrument for endodontic treatment, comprising: - a microprocessor control unit; - a first electrode fed by said control unit, apt to be connected to a tool; - a second electrode, connectable to said unit, for making an electric circuit through a portion of a patient's skin, said electric circuit having a resistive part and a capacitive part, wherein said microprocessor control unit comprises: means for generating a control signal to be fed to said first electrode; - means for acquiring a response signal through said second electrode; - means for processing said response signal, and user interface means, wherein said control signal is periodic and comprises, in a period, two constant-voltage portions (TC1, TC2) and two portions (S2, S3) having an alternating pattern, said means for processing said response signal being apt to calculate a first voltage value as difference of voltage values of said response signal, in correspondence of predetermined time instants (T1, 12), and a second voltage value as difference between an average of amplitudes of said sinusoidal components of said portions (S2, S3) having an alternating pattern, said first voltage value being proportional to said resistive part and said second voltage value being proportional to said capacitive part. - a microprocessor control unit; - a first electrode fed by said control unit, apt to be connected to a tool; - a second electrode, connectable to said unit, for making an electric circuit through a portion of a patient's skin, said electric circuit having a resistive part and a capacitive part, wherein said microprocessor control unit comprises: means for generating a control signal to be fed to said first electrode; - means for acquiring a response signal through said second electrode; - means for processing said response signal, and user interface means,
A method comprising: feeding, by data processing hardware, a map into a neural network, wherein the map identifies an expected location (104L exp) of a base station, the neural network configured to output an estimated characteristic of the base station and to output a confidence indicator for the estimated characteristic of the base station, the confidence indicator representing an uncertainty of the estimated characteristic; determining, by the data processing hardware, the estimated characteristic of the base station by feeding a coverage map into the neural network, the coverage map indicating a signal characteristic of the emitted signal about the base station, the estimated characteristic of the base station comprising an estimated location of the base station; and determining, by the data processing hardware, a prediction error, wherein the prediction error (i) corresponds to a deviation between the estimated location of the base station and the expected location of the base station and (ii) is compared with the confidence indicator to determine a ratio of the prediction error to the confidence indicator for identifying an anomaly. feeding, by data processing hardware, a map into a neural network, wherein the map identifies an expected location (104L exp) of a base station, the neural network configured to output an estimated characteristic of the base station and to output a confidence indicator for the estimated characteristic of the base station, the confidence indicator representing an uncertainty of the estimated characteristic; determining, by the data processing hardware, the estimated characteristic of the base station by feeding a coverage map into the neural network, the coverage map indicating a signal characteristic of the emitted signal about the base station, the estimated characteristic of the base station comprising an estimated location of the base station; and determining, by the data processing hardware, a prediction error, wherein the prediction error (i) corresponds to a deviation between the estimated location of the base station and the expected location of the base station and (ii) is compared with the confidence indicator to determine a ratio of the prediction error to the confidence indicator for identifying an anomaly.
A sealant film comprising: a polyolefin layer containing polyolefin as a main ingredient in an amount of greater than 50% by mass relative to the total amount of polyolefin layer; and a polycycloolefin layer as an outermost layer containing polycycloolefin as a main ingredient in an amount of greater than or equal to 80% by mass relative to the total amount of polycycloolefin layer, wherein the polycycloolefin contains two or more kinds of structural units selected from a structural unit derived from a dicyclopentadiene compound, a structural unit derived from a tetracyclododecene compound, and a structural unit derived from a norbornene compound, and the polycycloolefin has a glass transition temperature measured based on JIS K 7121 less than or equal to 80°C. a polyolefin layer containing polyolefin as a main ingredient in an amount of greater than 50% by mass relative to the total amount of polyolefin layer; and a polycycloolefin layer as an outermost layer containing polycycloolefin as a main ingredient in an amount of greater than or equal to 80% by mass relative to the total amount of polycycloolefin layer, wherein the polycycloolefin contains two or more kinds of structural units selected from a structural unit derived from a dicyclopentadiene compound, a structural unit derived from a tetracyclododecene compound, and a structural unit derived from a norbornene compound, and the polycycloolefin has a glass transition temperature measured based on JIS K 7121 less than or equal to 80°C.