mhurhangee/ep-ind-claims huggingface dataset:
An absorber tile element (102a-f, 202a, 302a) comprising compressed mineral fiber material and having a first major surface (107a-b, 107e-f, 207a), an opposing second major surface (108a-b, 108e-f, 308a), and at least one side edge surface (109a-f, 209a, 309a) extending between the first major surface (107a-b, 107e-f, 207a) and the second major surface (108a-b, 108e-f, 308a), an anchor element (106a-f) associated with one of the first major surface (107a-b, 107e-f, 207a) and the second major surface (108a-b, 108e-f, 308a) or one of the at least one side edge surfaces (109a-f, 209a, 309a) of the absorber tile element (102a-f, 202a, 302a), wherein the anchor element (106a-f, 206a, 306a) comprises a head portion (110a-b, 110e-f) and a threaded portion (112a-b, 112e-f), the threaded portion (112a-b, 112e-f) being threaded into the absorber tile element (102a-f) from the surface (107a-b, 107e-f; 108a-b, 108e-f; 209a; 309a) associated with the anchor element (106a-f, 206a, 306a) such that the head portion (110a-b, 110e-f) becomes recessed in the absorber tile element (102a-f, 202a, 302a), the head portion (110a-b, 110e-f) defining an open cavity (114a-b, 114e-f) facing a top surface (116a-b, 116e-f) of the head portion (110a-b, 110e-f), characterized in that an engagement member (118a-b, 118e-f), in the form of an elongated bar structure traversing the cavity (114a, 114e-f) of the head portion (110a, 110e-f) or in the form of a loop structure, configured for direct hooking engagement with a hook element (124a-b, 124e-f) is arranged in the cavity (114a-b, 114e-f) such that it does not protrude beyond the top surface (116a-b, 116e-f) of the head portion (110a-b, 110e-f). the threaded portion (112a-b, 112e-f) being threaded into the absorber tile element (102a-f) from the surface (107a-b, 107e-f; 108a-b, 108e-f; 209a; 309a) associated with the anchor element (106a-f, 206a, 306a) such that the head portion (110a-b, 110e-f) becomes recessed in the absorber tile element (102a-f, 202a, 302a), the head portion (110a-b, 110e-f) defining an open cavity (114a-b, 114e-f) facing a top surface (116a-b, 116e-f) of the head portion (110a-b, 110e-f), characterized in that an engagement member (118a-b, 118e-f), in the form of an elongated bar structure traversing the cavity (114a, 114e-f) of the head portion (110a, 110e-f) or in the form of a loop structure, configured for direct hooking engagement with a hook element (124a-b, 124e-f) is arranged in the cavity (114a-b, 114e-f) such that it does not protrude beyond the top surface (116a-b, 116e-f) of the head portion (110a-b, 110e-f).
An automatic and safe manicuring tool, comprising a disk blade, a blade driving device and a cover, wherein the blade driving device is connected to the disk blade, characterized in that a plurality of movably detachable caps are provided on the periphery of the cover, nail openings corresponding to the disk blade are provided on the detachable caps, and protruded arc slices are provided at the nail openings.
An athletics track for running provided with a flooring comprising a treading layer constituted by an elastomer mass, and a supporting layer, which is also constituted by an elastomer mass, in which said supporting layer has, on the side opposite to said treading layer, an array of cavities delimited by ribbings constituting a mesh of uniform ribbings, said track being characterized in that said cavities are cavities having an elongated shape, the major dimension of which being aligned with the direction of running on the flooring.
A humidifying device, comprising a humidifying housing and a water channel, wherein the humidifying housing comprises a humidifying top cover 201, a front humidifying housing 204, and a rear humidifying housing 203; and an air duct penetrating through the interior of the humidifying device and a water pump which is connected to a water tank (201, 201b, 202, 202b, 401) via a lower water pipe, wherein the water channel surrounds the air duct, and the water pump is configured to pump the water from the water tank (201, 201b, 202, 202b, 401) to the water channel; characterized in that the water pump 205 and the water channel 241 are both disposed within front humidifying housing 204, the rear humidifying housing 203 is provided with a groove where the structure of the groove matches with the water tank (201, 201b, 202, 202b, 401) the water tank (201, 201b, 202, 202b, 401) being separate from and slidably connected to the humidifying housing, is placed in the groove, and a slide rail is provided on the groove such that a slideway at the bottom of the water tank (201, 201b, 202, 202b, 401) matches with the slide rail.
A method for synchronizing compression histories shared between two devices, the method comprising: (a) storing, by a first device, a first compression history, the compression history comprising a plurality of portions of data previously transmitted to a second device, each portion of data having a location identifier; (b) creating, by the first device, an ordered list of location identifiers ordered by a time the first device last accessed a portion of data in a location corresponding to each identifier; (c) receiving, by the first device from the second device, information identifying a quantity of location identifiers of a corresponding second compression history on the second device; (d) determining, by the first device, the received quantity is less than a quantity of location identifiers of the first compression history by a first amount; and (e) selecting for obsolescence, from the list of location identifiers, the first amount of location identifiers at an end of the ordered list corresponding to least recently accessed portions of data. (a) storing, by a first device, a first compression history, the compression history comprising a plurality of portions of data previously transmitted to a second device, each portion of data having a location identifier; (b) creating, by the first device, an ordered list of location identifiers ordered by a time the first device last accessed a portion of data in a location corresponding to each identifier; (c) receiving, by the first device from the second device, information identifying a quantity of location identifiers of a corresponding second compression history on the second device; (d) determining, by the first device, the received quantity is less than a quantity of location identifiers of the first compression history by a first amount; and (e) selecting for obsolescence, from the list of location identifiers, the first amount of location identifiers at an end of the ordered list corresponding to least recently accessed portions of data.
A drive system for at least one switch (1, 30), comprising: a drive shaft which connects the drive system to the at least one switch (1, 30) and at least one motor which is coupled to the drive shaft, - a feedback system which is configured to determine a position of the drive shaft and, based on this position, to generate a feedback signal; and - a control device which, depending on the feedback signal, selects a stored travel profile from a plurality of travel profiles and acts on the motor in accordance with the selected travel profile, characterized in that, - the feedback system includes at least one encoder system and an auxiliary contact, which in combination are configured and arranged to detect an absolute position of the drive shaft or an absolute position of a further shaft connected to the drive shaft and to generate at least one output signal based on the detected position; and is configured to determine the position of the drive shaft on the basis of the at least one output signal. a drive shaft which connects the drive system to the at least one switch (1, 30) and at least one motor which is coupled to the drive shaft, - a feedback system which is configured to determine a position of the drive shaft and, based on this position, to generate a feedback signal; and - a control device which, depending on the feedback signal, selects a stored travel profile from a plurality of travel profiles and acts on the motor in accordance with the selected travel profile, - a feedback system which is configured to determine a position of the drive shaft and, based on this position, to generate a feedback signal; and - a control device which, depending on the feedback signal, selects a stored travel profile from a plurality of travel profiles and acts on the motor in accordance with the selected travel profile, characterized in that, - the feedback system includes at least one encoder system and an auxiliary contact, which in combination are configured and arranged to detect an absolute position of the drive shaft or an absolute position of a further shaft connected to the drive shaft and to generate at least one output signal based on the detected position; and is configured to determine the position of the drive shaft on the basis of the at least one output signal. - the feedback system includes at least one encoder system and an auxiliary contact, which in combination are configured and arranged to detect an absolute position of the drive shaft or an absolute position of a further shaft connected to the drive shaft and to generate at least one output signal based on the detected position; and is configured to determine the position of the drive shaft on the basis of the at least one output signal.
Anti-trapping apparatus for a door, comprising a fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300) for fastening to a door frame of the door and a cover profile (100; 900; 1800; 1900), wherein the cover profile (100; 900; 1800; 1900) can be fastened to the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300), wherein a distance of the cover profile (100; 900; 1800; 1900) from the door frame can be adjusted when the cover profile is fastened to the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300) and when the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300) is fastened to the door, wherein the anti-trapping apparatus comprises a connecting element (1101; 1501; 2203) by means of which the cover profile (100; 900; 1800; 1900) can be fastened to the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300), and wherein the connecting element (1101; 1501; 2203) comprises locking means, characterised in that the locking means, in a first orientation of the connecting element (1101; 1501; 2203) relative to the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300), are designed for a positive connection to the cover profile (100; 900; 1800; 1900) in an arrangement of the cover profile (100; 900; 1800; 1900) relative to the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300), and wherein, in the same arrangement relative to the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300), a positive connection of the cover profile (100; 900; 1800; 1900) to the locking means is not possible given a second orientation of the connecting element (1101; 1501; 2203) relative to the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300). wherein the anti-trapping apparatus comprises a connecting element (1101; 1501; 2203) by means of which the cover profile (100; 900; 1800; 1900) can be fastened to the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300), and wherein the connecting element (1101; 1501; 2203) comprises locking means, characterised in that the locking means, in a first orientation of the connecting element (1101; 1501; 2203) relative to the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300), are designed for a positive connection to the cover profile (100; 900; 1800; 1900) in an arrangement of the cover profile (100; 900; 1800; 1900) relative to the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300), and wherein, in the same arrangement relative to the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300), a positive connection of the cover profile (100; 900; 1800; 1900) to the locking means is not possible given a second orientation of the connecting element (1101; 1501; 2203) relative to the fastening element (200; 501; 1100; 1500; 1801; 2103; 2200; 2300).
A combined steel wall comprising: a wall body that includes a plurality of steel sheet piles connected to each other by joints and a plurality of recesses arranged at an interval in an extending direction; and a plurality of steel pipes that stand on a ground surface on a side, of which a horizontal position is low, of both sides of the wall body along a longitudinal direction of the steel sheet pile while a part of each steel pipe is received in the recess, wherein at least a part of the wall body and the steel pipes in the longitudinal direction of the steel sheet pile are connected to each other, and a maximum interval L as a center distance between first and second steel pipes which are adjacent to each other and between which a center distance is the maximum distance, a height H of the wall body, and a dimension D that is the sum of radii of the first and second steel pipes satisfy the following formula: D ≦ L ≦ 1 / 2 × H a wall body that includes a plurality of steel sheet piles connected to each other by joints and a plurality of recesses arranged at an interval in an extending direction; and a plurality of steel pipes that stand on a ground surface on a side, of which a horizontal position is low, of both sides of the wall body along a longitudinal direction of the steel sheet pile while a part of each steel pipe is received in the recess, wherein at least a part of the wall body and the steel pipes in the longitudinal direction of the steel sheet pile are connected to each other, and a maximum interval L as a center distance between first and second steel pipes which are adjacent to each other and between which a center distance is the maximum distance, a height H of the wall body, and a dimension D that is the sum of radii of the first and second steel pipes satisfy the following formula: D ≦ L ≦ 1 / 2 × H
A method for automated expansion of pluripotent stem cells under defined media conditions comprising: (a) obtaining a first population of pluripotent cells in a defined growth media; (b) separating the pluripotent cells with an automated separation system employing chemical separation of cells or by contacting the cells with a proteolytic enzyme, wherein the proteolytic enzyme is trypsin, recombinant trypsin, a typsin-like proteinase, or TRYPLE and wherein the chemical separation of the cells uses chelating molecules, preferably EDTA, EGTA or citrate; and (c) suspending the separated cells in fresh defined growth media to provide an expanded population of pluripotent cells, wherein the automated expansion comprises automated feeding and splitting. (a) obtaining a first population of pluripotent cells in a defined growth media; (b) separating the pluripotent cells with an automated separation system employing chemical separation of cells or by contacting the cells with a proteolytic enzyme, wherein the proteolytic enzyme is trypsin, recombinant trypsin, a typsin-like proteinase, or TRYPLE and wherein the chemical separation of the cells uses chelating molecules, preferably EDTA, EGTA or citrate; and (c) suspending the separated cells in fresh defined growth media to provide an expanded population of pluripotent cells,
Computer-aided method for validating system parameters which have been ascertained by means of measurement data and which serve for a model function η of at least one component of an energy system, wherein the model function η characterizes at least one dependence of at least one output variable of the component on at least one input variable of the component taking into account the system parameters, characterized by the steps of: - calculating a standard deviation of the system parameters ascertained from the measurement data; - calculating a confidence bound ψ on the basis of the calculated standard deviation; and - defining the system parameters as valid if the ratio of confidence bound ψ to model function η is less than or equal to a defined threshold δ within a value range that has been defined for the input variable. - calculating a standard deviation of the system parameters ascertained from the measurement data; - calculating a confidence bound ψ on the basis of the calculated standard deviation; and - defining the system parameters as valid if the ratio of confidence bound ψ to model function η is less than or equal to a defined threshold δ within a value range that has been defined for the input variable.
Torque measuring device for stopping the strike of a striking mechanism including a rechargeable energy source and a striking pallet, which, at times planned by said mechanism and/or the user thereof, allows at least one strike wheel comprised in said device to be driven, said at least one strike wheel being arranged to use part of the energy transmitted by said energy source to actuate at least one hammer on at least one gong, characterized in that it includes at least one movable torque measuring lever, whose trajectory interferes at least indirectly with that of a strike wheel, and which is arranged to be driven by said strike wheel, said torque measuring lever being permanently subject to a resistant effort of determined value against a drive effort exerted on said torque measuring lever by said strike wheel during the rotation thereof, and said torque measuring lever being arranged to block the rotation of said strike wheel if said drive effort is less than said resistant effort of determined value, and otherwise to allow said strike wheel to rotate by releasing said wheel.
A method of a network node for enabling determining of an overall Quality of Service, QoS, of at least one Internet of Things, IoT, device, comprising: transmitting, to a device connectivity middleware, DCM, node, an identifier of said at least one loT device for which a QoS measure is to be acquired; receiving, from the DCM node, a network profile of the loT device associated with said identifier; transmitting, to a Service Capability Exposure Function, SCEF, a request for the QoS measure of the loT device for the received network profile, the SCEF acquiring the QoS measure from a Policy and Charging Control, PCC, function; receiving (S 106), from the SCEF, the requested QoS measure of the loT device; transmitting, to a Lightweight Machine-to-Machine, LWM2M, device, a request for availability information for said at least one IoT device; receiving, from the LWM2M device, the requested availability information; and determining the overall QoS for said at least one IoT device based on the received QoS measure and the received availability information. transmitting, to a device connectivity middleware, DCM, node, an identifier of said at least one loT device for which a QoS measure is to be acquired; receiving, from the DCM node, a network profile of the loT device associated with said identifier; transmitting, to a Service Capability Exposure Function, SCEF, a request for the QoS measure of the loT device for the received network profile, the SCEF acquiring the QoS measure from a Policy and Charging Control, PCC, function; receiving (S 106), from the SCEF, the requested QoS measure of the loT device; transmitting, to a Lightweight Machine-to-Machine, LWM2M, device, a request for availability information for said at least one IoT device; receiving, from the LWM2M device, the requested availability information; and determining the overall QoS for said at least one IoT device based on the received QoS measure and the received availability information.
An apparatus for estimating the power of a secondary battery during discharge of the secondary battery, comprising: a sensor configured to measure a discharge current (I dis) of a secondary battery comprising a cathode including a blended cathode material, an anode, and a separator, the blended cathode material including at least a first cathode material and a second cathode material, and an operating voltage range of the first cathode material being higher than an operating voltage range of the second cathode material; and a control unit configured to estimate a state of charge of the secondary battery, determine a discharge voltage (V dis) of the secondary battery using a first resistance (R 1) predefined corresponding to the state of charge under a first condition in which a magnitude of the discharge current (I dis) is smaller than a magnitude of a critical current which is the discharge current at which a resistance change of the secondary battery starts to be observed, and a second resistance (R 2) predefined corresponding to the state of charge under a second condition in which the magnitude of the discharge current (I dis) is larger than the magnitude of the critical current, and determine the power of the secondary battery from the determined discharge voltage (V dis) and the measured discharge current (I dis). a sensor configured to measure a discharge current (I dis) of a secondary battery comprising a cathode including a blended cathode material, an anode, and a separator, the blended cathode material including at least a first cathode material and a second cathode material, and an operating voltage range of the first cathode material being higher than an operating voltage range of the second cathode material; and a control unit configured to estimate a state of charge of the secondary battery, determine a discharge voltage (V dis) of the secondary battery using a first resistance (R 1) predefined corresponding to the state of charge under a first condition in which a magnitude of the discharge current (I dis) is smaller than a magnitude of a critical current which is the discharge current at which a resistance change of the secondary battery starts to be observed, and a second resistance (R 2) predefined corresponding to the state of charge under a second condition in which the magnitude of the discharge current (I dis) is larger than the magnitude of the critical current, and determine the power of the secondary battery from the determined discharge voltage (V dis) and the measured discharge current (I dis).
A method of inspecting a conveyor having opposing sides (34, 35) and a length, the conveyor including an endless belt and a plurality of roller structures disposed in spaced relation along at least a portion of the length of the conveyor and under a top flight of the belt for supporting the belt while material is being conveyed on the belt, each roller structure including at least one roller (12, 12') constructed and arranged to rotate about an axis as the belt is conveyed with the material, the method comprising the steps of (a) orienting an unmanned vehicle, having sensor structure thereon, at one side of the conveyor, and (b) causing the vehicle to travel with respect to the portion of the length of the conveyor while the sensor structure obtains data regarding a state of at least a portion of the belt and rollers (12, 12') of the plurality of roller structures while the conveyor is operating, wherein, while the vehicle is traveling, the sensor structure obtains the data only while being adjacent to the one side of the conveyer, without moving under the top flight of the belt, characterized in that, the vehicle is capable of flight and the step of causing the vehicle to travel includes causing the vehicle to travel in the air adjacent to the conveyor. (a) orienting an unmanned vehicle, having sensor structure thereon, at one side of the conveyor, and (b) causing the vehicle to travel with respect to the portion of the length of the conveyor while the sensor structure obtains data regarding a state of at least a portion of the belt and rollers (12, 12') of the plurality of roller structures while the conveyor is operating, wherein, while the vehicle is traveling, the sensor structure obtains the data only while being adjacent to the one side of the conveyer, without moving under the top flight of the belt, characterized in that, the vehicle is capable of flight and the step of causing the vehicle to travel includes causing the vehicle to travel in the air adjacent to the conveyor.