mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a hearing instrument (102A, 102B), the method comprising the following steps: measuring an ambient light level at the hearing instrument (102A, 102B) to provide a measurement result, wherein measuring the ambient light level comprises measuring the ambient light level with a photoplethysmography 'PPG' sensor, and/or wherein measuring the ambient light level further comprises measuring the ambient light level with a spectrometer to determine a spectral range and intensity correlating to ambient light; recording the measurement result; determining a delta ambient light level based on the detected ambient light level; recording the delta ambient light level; determining whether an absolute value of the delta ambient light level exceeds a predetermined threshold; determining (516, 520), based on the absolute value of the delta ambient light level exceeding the predetermined threshold and the delta ambient light level being positive, a user has moved to an outdoor environment; and setting a signal processing parameter of the hearing instrument (102A, 102B) as a function of the determination the user is in the outdoor environment or an indoor environment. measuring an ambient light level at the hearing instrument (102A, 102B) to provide a measurement result, wherein measuring the ambient light level comprises measuring the ambient light level with a photoplethysmography 'PPG' sensor, and/or wherein measuring the ambient light level further comprises measuring the ambient light level with a spectrometer to determine a spectral range and intensity correlating to ambient light; recording the measurement result; determining a delta ambient light level based on the detected ambient light level; recording the delta ambient light level; determining whether an absolute value of the delta ambient light level exceeds a predetermined threshold; determining (516, 520), based on the absolute value of the delta ambient light level exceeding the predetermined threshold and the delta ambient light level being positive, a user has moved to an outdoor environment; and setting a signal processing parameter of the hearing instrument (102A, 102B) as a function of the determination the user is in the outdoor environment or an indoor environment.
An in-vehicle relay device for relaying communication between a plurality of control devices in a vehicle (100, 1200, 1600) over a plurality of networks to which the plurality of control devices are connected, wherein the plurality of networks includes a first and a second control network, wherein the largest data size of a control command transmittable in one frame in the first control network is larger than the largest data size of a control command transmittable in one frame in the second control network, the in-vehicle relay device comprising: a communication unit (400, 408, 410, 1300, 1308, 1310, 1312, 1314, 1315, 1700, 1708) that receives control data from the first control network included in the plurality of networks, the control data including, in one frame, a plurality of control commands to be executed by at least some of the control devices; and a determination unit (402, 1302, 1702) that makes a first determination as to whether types of the control commands included in said frame form a first combination preset as a combination of control commands executable simultaneously and thereafter makes a second determination as to whether the control data is anomalous by using a result of the first determination, and outputs a result of the second determination. a communication unit (400, 408, 410, 1300, 1308, 1310, 1312, 1314, 1315, 1700, 1708) that receives control data from the first control network included in the plurality of networks, the control data including, in one frame, a plurality of control commands to be executed by at least some of the control devices; and a determination unit (402, 1302, 1702) that makes a first determination as to whether types of the control commands included in said frame form a first combination preset as a combination of control commands executable simultaneously and thereafter makes a second determination as to whether the control data is anomalous by using a result of the first determination, and outputs a result of the second determination.
A remotely operated delivery vehicle for transport of a storage container between an automated storage and retrieval grid, which is configured to store a plurality of stacks of storage containers, and an access station for handling of the storage container by at least one of a robotic operator and human operator, the remotely operated delivery vehicle comprising; a vehicle body comprising a motor for driving a plurality of rolling devices (32a,32b) for moving the remotely operated delivery vehicle in a horizontal plane; a control unit for controlling the remotely operated delivery vehicle; and a container carrier provided above the motorized vehicle body for carrying a storage container; characterized in that the remotely operated delivery vehicle comprises a safety device which transmits a signal to the control unit such that it performs an action of operating the remotely operated delivery vehicle, in the event that a collision is detected, the collision is caused by a force acting on the remotely operated delivery vehicle and is detected by a collision mechanism of the safety device, and wherein the collision mechanism is a container carrier displacement device arranged such that it trips the safety device upon displacement of the container carrier relative to the motorized vehicle body, which first position is the undisplaced position and the second position is the displaced position. the remotely operated delivery vehicle comprising; a vehicle body comprising a motor for driving a plurality of rolling devices (32a,32b) for moving the remotely operated delivery vehicle in a horizontal plane; a control unit for controlling the remotely operated delivery vehicle; and a container carrier provided above the motorized vehicle body for carrying a storage container; characterized in that the remotely operated delivery vehicle comprises a safety device which transmits a signal to the control unit such that it performs an action of operating the remotely operated delivery vehicle, in the event that a collision is detected, the collision is caused by a force acting on the remotely operated delivery vehicle and is detected by a collision mechanism of the safety device, and wherein the collision mechanism is a container carrier displacement device arranged such that it trips the safety device upon displacement of the container carrier relative to the motorized vehicle body, which first position is the undisplaced position and the second position is the displaced position.
A spectrophotometer comprising an interferometer configured to produce, from a light beam entering into said spectrophotometer, a sample of an interferogram according to fixed values of an optical path length difference, characterized in that said values of optical path length difference exhibit variable successive differences that are adapted so that a spectral distribution of the light in the beam can be evaluated from the following set of equations: ∑ k = l k = N A k × cos 2 ⁢ π × f k × δ i = M i for each integer i from 1 to N, N being the number of light intensity measurements in the interferogram sample, and where M i is the i-th measurement of light intensity of the interferogram sample, δ i is the value of the optical path length difference corresponding to the measurement M i, f k is a mean frequency corresponding to a spectral component of the light in the beam, k being an integer from 1 to N making it possible to identify N different frequencies f k, A k is an intensity of the spectral component of the beam corresponding to the frequency f k, and the differences δ i+1 -δ i are not identical for different pairs of successive measurements M i, M i+1 of light intensity in the interferogram. M i is the i-th measurement of light intensity of the interferogram sample, δ i is the value of the optical path length difference corresponding to the measurement M i, f k is a mean frequency corresponding to a spectral component of the light in the beam, k being an integer from 1 to N making it possible to identify N different frequencies f k, A k is an intensity of the spectral component of the beam corresponding to the frequency f k, and the differences δ i+1 -δ i are not identical for different pairs of successive measurements M i, M i+1 of light intensity in the interferogram.
A process for the manufacture of a transparent conductive film comprising: (i) a polymeric substrate comprising a polymeric base layer and a polymeric binding layer, wherein the polymeric material of the base layer has a softening temperature T S-B, and the polymeric material of the binding layer has a softening temperature T S-HS; and (ii) a conductive layer comprising a plurality of nanowires, wherein: said nanowires are bound by the polymeric matrix of the binding layer such that the nanowires are dispersed at least partially in the polymeric matrix of the binding layer, said process comprising the steps of providing a polymeric substrate comprising a polymeric base layer and a polymeric binding layer; disposing said nanowires on the exposed surface of the binding layer before or after the stretching steps of a biaxial stretching operation have been completed; and heat-setting by heating the composite film to a temperature T 1 wherein T 1 is equal to or greater than T S-HS, and T 1 is at least about 5°C below T S-B; said conductive layer comprising said nanowires is applied to the surface of the binding layer of the substrate during the film manufacturing process and prior to the heat-setting step, wherein following deposition of the nanowires, the film is heated to temperature T 1; and said polymeric substrate is a biaxially oriented polyester substrate. (i) a polymeric substrate comprising a polymeric base layer and a polymeric binding layer, wherein the polymeric material of the base layer has a softening temperature T S-B, and the polymeric material of the binding layer has a softening temperature T S-HS; and (ii) a conductive layer comprising a plurality of nanowires, said nanowires are bound by the polymeric matrix of the binding layer such that the nanowires are dispersed at least partially in the polymeric matrix of the binding layer, said process comprising the steps of providing a polymeric substrate comprising a polymeric base layer and a polymeric binding layer; disposing said nanowires on the exposed surface of the binding layer before or after the stretching steps of a biaxial stretching operation have been completed; and heat-setting by heating the composite film to a temperature T 1 wherein T 1 is equal to or greater than T S-HS, and T 1 is at least about 5°C below T S-B; said conductive layer comprising said nanowires is applied to the surface of the binding layer of the substrate during the film manufacturing process and prior to the heat-setting step, wherein following deposition of the nanowires, the film is heated to temperature T 1; and said polymeric substrate is a biaxially oriented polyester substrate.
A multi-joint link hinge, comprising: a first bracket including a base plate having a plurality of coupling holes for mounting the base plate, and first and second side walls extending from the base plate in parallel to each other with a space therebetween; a first linkage and a second linkage, the first and second linkages (70, 80) being arranged one after the other between the first and second side walls, at least one rotation shaft (62, 63) rotatably coupling the first and second linkages (70, 80) to the first bracket; and a second bracket rotatably coupled to the first linkage; characterized in that: the rotation shaft passes through the first and second side walls and the first and second linkages (70, 80); and wherein the multijoint link hinge further comprising: a spacer through which the rotation shaft is inserted, the spacer configured to maintain a prescribed distance between the first and second linkages (70, 80). a first bracket including a base plate having a plurality of coupling holes for mounting the base plate, and first and second side walls extending from the base plate in parallel to each other with a space therebetween; a first linkage and a second linkage, the first and second linkages (70, 80) being arranged one after the other between the first and second side walls, at least one rotation shaft (62, 63) rotatably coupling the first and second linkages (70, 80) to the first bracket; and a second bracket rotatably coupled to the first linkage;
Vestibular orthodontic appliance, comprising: - a plurality of brackets, intended to be fastened to the vestibular surface of the teeth, each comprising two closed, internal passage having round cross-section, in a plane perpendicular to the axis of the passage, - two round arches, without bends, intended to traverse the two passages, allowing sliding between the arch and the passage, and wherein the two arches and the brackets are intended to engage in order to correct the teeth along three spatial dimensions, characterised in that each of the two passage, has, along the axis of the passage, an olive-shaped cross-section so as to enable the insertion of the arch into the passage having an olive-shaped cross-section, even when the arch is inclined with respect to the axis of the passage, allowing sliding of the arch along the curved wall of the passage. - a plurality of brackets, intended to be fastened to the vestibular surface of the teeth, each comprising two closed, internal passage having round cross-section, - two round arches, without bends, intended to traverse the two passages, allowing sliding between the arch and the passage,
Semiconductor component comprising a highly doped substrate, which has at one main surface thereof a metallization and is connected by its other main surface to a more weakly doped zone, which is of the same conductivity type, and comprising a further layer of the same conductivity type with higher doping, and also comprising a metallization, which forms the other main surface of the semiconductor component, where regions of opposite conductivity type are introduced into partial areas of the zone, wherein the pn junction that arises at the second main surface of the semiconductor component between the zones and the regions of opposite conductivity type is short-circuited by the metallization, characterized in that the zone has a stepped defect profile.
A laser welding method comprising: stacking two members (10, 20) together; and scanning a welding line extending along an edge of abutting surfaces of the two members with irradiation from a laser beam (La) from a welding start position to a welding end position so that the abutting surfaces (10a, 20a) of the two members (10, 20) are welded together, characterised in that the scanning of the welding line includes: setting an output of the laser beam (La) at which the irradiation with the laser beam (La) is started at the welding start position of the welding line so that spatter is not generated, gradually increasing the output of the laser beam (La) so that a penetration depth from the edge to a deeper location between the abutting surfaces (10a, 20a) falls within a predetermined penetration depth range while the laser beam (La) is not moved, and after the output of the laser beam (La) is gradually increased, moving the laser beam (La) toward the welding end position so that the penetration depth is maintained within the predetermined penetration depth range. stacking two members (10, 20) together; and scanning a welding line extending along an edge of abutting surfaces of the two members with irradiation from a laser beam (La) from a welding start position to a welding end position so that the abutting surfaces (10a, 20a) of the two members (10, 20) are welded together, characterised in that the scanning of the welding line includes: setting an output of the laser beam (La) at which the irradiation with the laser beam (La) is started at the welding start position of the welding line so that spatter is not generated, gradually increasing the output of the laser beam (La) so that a penetration depth from the edge to a deeper location between the abutting surfaces (10a, 20a) falls within a predetermined penetration depth range while the laser beam (La) is not moved, and after the output of the laser beam (La) is gradually increased, moving the laser beam (La) toward the welding end position so that the penetration depth is maintained within the predetermined penetration depth range. setting an output of the laser beam (La) at which the irradiation with the laser beam (La) is started at the welding start position of the welding line so that spatter is not generated, gradually increasing the output of the laser beam (La) so that a penetration depth from the edge to a deeper location between the abutting surfaces (10a, 20a) falls within a predetermined penetration depth range while the laser beam (La) is not moved, and after the output of the laser beam (La) is gradually increased, moving the laser beam (La) toward the welding end position so that the penetration depth is maintained within the predetermined penetration depth range.
Shelving system for service vehicles in particular, comprising at least one container which has a front side, a rear side, an underside, an upper side and two side walls, and comprising at least one guide element along which the container can be moved in a pull-out direction from a rear, retracted position into a front, extended position, at least one rear stop and at least one front stop being provided on the container, which stops interact with a fixed stop provided on at least one guide element in such a way that the container remains in a defined rear position and, when moved in the pull-out direction, remains in a defined front position, and a recess for engaging a guide strip provided on the guide element being provided on at least one side wall of the container, characterized in that the at least one front stop and the at least one rear stop are arranged below the relevant recess, in that the at least one recess is delimited at the bottom by a strip portion, and in that the rear stop is arranged on the relevant strip portion so as to project downward. and comprising at least one guide element along which the container can be moved in a pull-out direction from a rear, retracted position into a front, extended position, at least one rear stop and at least one front stop being provided on the container, which stops interact with a fixed stop provided on at least one guide element in such a way that the container remains in a defined rear position and, when moved in the pull-out direction, remains in a defined front position, and a recess for engaging a guide strip provided on the guide element being provided on at least one side wall of the container, characterized in that the at least one front stop and the at least one rear stop are arranged below the relevant recess, in that the at least one recess is delimited at the bottom by a strip portion, and in that the rear stop is arranged on the relevant strip portion so as to project downward.
A method, comprising: receiving, at a device in a network, one or more time slot usage reports regarding a use of time slots of a channel hopping schedule by nodes in the network; predicting, by the device using a predictive time scheduler employing a machine learning model, a future time slot demand change for a particular node (41, 42) based on detecting a time-based pattern in the one or more time slot usage reports; identifying, by the device, a time frame associated with the predicted time slot demand change;and adjusting, by the device, a time slot assignment (600, 804) for the particular node in the channel hopping schedule based on the predicted time slot demand change and the identified time frame associated with the predicted time slot demand change. receiving, at a device in a network, one or more time slot usage reports regarding a use of time slots of a channel hopping schedule by nodes in the network; predicting, by the device using a predictive time scheduler employing a machine learning model, a future time slot demand change for a particular node (41, 42) based on detecting a time-based pattern in the one or more time slot usage reports; identifying, by the device, a time frame associated with the predicted time slot demand change;and adjusting, by the device, a time slot assignment (600, 804) for the particular node in the channel hopping schedule based on the predicted time slot demand change and the identified time frame associated with the predicted time slot demand change.
Method for managing an electrical energy storage element of metal-ion type which comprises at least one cell (CELL), characterized in that, in a constant voltage charging cycle, the method comprises the following steps: - measuring the temperature of the cell to obtain several temperature values, - determining a maximum temperature value (Tmax_i) from among the temperature values obtained, - in case of detection of a heating above a heating threshold or a threshold of said maximum temperature value being exceeded, correcting a high charging voltage threshold value of the cell and a low end-of-discharge voltage threshold value of the cell, - determining a first correction value (A i) to be applied to the high voltage threshold value and a second correction value (B i) to be applied to the low voltage value, the first correction value being determined from the sum of a correction pitch (α i) and of a correction value stored in the preceding charging cycle. - measuring the temperature of the cell to obtain several temperature values, - determining a maximum temperature value (Tmax_i) from among the temperature values obtained, - in case of detection of a heating above a heating threshold or a threshold of said maximum temperature value being exceeded, correcting a high charging voltage threshold value of the cell and a low end-of-discharge voltage threshold value of the cell, - determining a first correction value (A i) to be applied to the high voltage threshold value and a second correction value (B i) to be applied to the low voltage value, the first correction value being determined from the sum of a correction pitch (α i) and of a correction value stored in the preceding charging cycle.