mhurhangee/ep-ind-claims huggingface dataset:
A wireless power charging device, comprising: means for wirelessly transmitting power; means for storing a time interval indicating a time to charge an electronic device, the time interval being configurable by a user; and means for selectively enabling the means for wirelessly transmitting power to the electronic device if a current time value is during the time interval; characterised in that the wireless power charging device further comprises means for receiving information from the electronic device, the information comprising a charging schedule, the charging schedule comprising a plurality of user-defined charging times used to define the time interval. means for wirelessly transmitting power; means for storing a time interval indicating a time to charge an electronic device, the time interval being configurable by a user; and means for selectively enabling the means for wirelessly transmitting power to the electronic device if a current time value is during the time interval; means for receiving information from the electronic device, the information comprising a charging schedule, the charging schedule comprising a plurality of user-defined charging times used to define the time interval.
Method for detecting breakage of a substrate (A, B) of at least one switchable optical element, the at least one switchable optical element comprising a first substrate and a second substrate, the first substrate being coated with a first electrode and the second substrate being coated with a second electrode, and a switchable layer, the switchable layer being sandwiched between the first substrate and second substrate, the first electrode and second electrode each having at least one contact (A1, A2, B1, B2), the method comprising the steps of a) applying an electric field between the first electrode and the second electrode by applying a test signal provided by a test signal source to the at least one switchable optical element, wherein the test signal is an AC signal, and wherein an output of the test signal source is split into two signal lines (21, 22, 21', 22'), the first electrode having at least two contacts and each signal line (21, 22, 21', 22') being connected with another one of the contacts (A1, A2) of the first electrode, and the at least one contact (B1, B2) of the second electrode being connected to a reference potential, b) measuring of a differential signal between the two signal lines (21, 22, 21', 22'), and c) detecting a broken substrate if at least one parameter of the differential signal exceeds a predetermined threshold or if a change of at least one parameter of the differential signal exceeds a predetermined threshold. a) applying an electric field between the first electrode and the second electrode by applying a test signal provided by a test signal source to the at least one switchable optical element, wherein the test signal is an AC signal, and wherein an output of the test signal source is split into two signal lines (21, 22, 21', 22'), the first electrode having at least two contacts and each signal line (21, 22, 21', 22') being connected with another one of the contacts (A1, A2) of the first electrode, and the at least one contact (B1, B2) of the second electrode being connected to a reference potential, b) measuring of a differential signal between the two signal lines (21, 22, 21', 22'), and c) detecting a broken substrate if at least one parameter of the differential signal exceeds a predetermined threshold or if a change of at least one parameter of the differential signal exceeds a predetermined threshold.
A thermal control method for a gas turbine casing including an inner casing arranged around a central axis, the inner casing defining an opening therethrough in communication with an interior of the gas turbine, and an outer casing arranged around the inner casing, the method including: supplying thermal control gas from a compressor to a space between the outer casing and the inner casing; and transferring the thermal control gas from the space into an area and from that area through the opening in the inner casing, wherein the area is defined between a plate and an outer surface of the inner casing, the plate being attached to the inner casing and having an inner surface opposing the outer surface of the inner casing and an outer surface opposite the inner surface, the plate further comprising a flange that extends radially inwardly from the inner surface towards the inner casing and entirely about a perimeter of the plate, wherein a plurality of holes are defined through the plate from the inner surface to the outer surface, wherein the plurality of holes is arranged with a predetermined non-uniform distribution in the plate corresponding to a desired preferential impingement pattern for providing non-uniform heat transfer from the area during operation of the gas turbine so as to control temperature of the inner casing across the area, wherein the flange is disposed within a slot defined within the outer surface of the inner casing forming a seal between the outer surface of the inner casing and the flange. supplying thermal control gas from a compressor to a space between the outer casing and the inner casing; and transferring the thermal control gas from the space into an area and from that area through the opening in the inner casing, wherein the area is defined between a plate and an outer surface of the inner casing, the plate being attached to the inner casing and having an inner surface opposing the outer surface of the inner casing and an outer surface opposite the inner surface, the plate further comprising a flange that extends radially inwardly from the inner surface towards the inner casing and entirely about a perimeter of the plate, wherein a plurality of holes are defined through the plate from the inner surface to the outer surface, wherein the plurality of holes is arranged with a predetermined non-uniform distribution in the plate corresponding to a desired preferential impingement pattern for providing non-uniform heat transfer from the area during operation of the gas turbine so as to control temperature of the inner casing across the area, wherein the flange is disposed within a slot defined within the outer surface of the inner casing forming a seal between the outer surface of the inner casing and the flange.
A radio station, comprising: a control unit configured to communicate with a radio terminal configured to perform-Dual Connectivity using at least a first cell of the radio station and a second cell of another radio station; a radio communication unit configured to transmit, to the radio terminal, a Radio Resource Control, RRC, Connection Reconfiguration message containing constraint information including a first reception constraint related to the first cell and a second reception constraint related to the second cell, the first reception constraint including a first setting related to Discontinuous Reception, DRX, for the first cell, the second reception constraint including a second setting related to DRX for the second cell, wherein the first setting related to DRX for the first cell and the second setting related to DRX for the second cell are set independently. a control unit configured to communicate with a radio terminal configured to perform-Dual Connectivity using at least a first cell of the radio station and a second cell of another radio station; a radio communication unit configured to transmit, to the radio terminal, a Radio Resource Control, RRC, Connection Reconfiguration message containing constraint information including a first reception constraint related to the first cell and a second reception constraint related to the second cell, the first reception constraint including a first setting related to Discontinuous Reception, DRX, for the first cell, the second reception constraint including a second setting related to DRX for the second cell, wherein the first setting related to DRX for the first cell and the second setting related to DRX for the second cell are set independently.
A bio electrode composition comprising: a polymer compound comprising a repeating unit-a having a structure selected from the group consisting of salts of ammonium, sodium, potassium, and silver formed with any of fluorosulfonic acid, fluorosulfonimide, and N-carbonyl-fluorosulfonamide; and a silicone compound having a polyglycerin structure. a polymer compound comprising a repeating unit-a having a structure selected from the group consisting of salts of ammonium, sodium, potassium, and silver formed with any of fluorosulfonic acid, fluorosulfonimide, and N-carbonyl-fluorosulfonamide; and a silicone compound having a polyglycerin structure.
A method for receiving a physical downlink shared channel, PDSCH, by a user equipment, UE, the method comprising: receiving, from a base station, downlink control information, DCI, with a radio network temporary identifier, RNTI, via a physical downlink control channel, PDCCH; receiving, from the base station, system information block1, SIB1, via the PDSCH based on DCI with cyclic redundancy check, CRC, scrambled by a SI-RNTI for the SIB1; and the method characterised in that a synchronization signal, SS, block is assumed to be not transmitted in resource elements, REs, used by the UE for a reception of the PDSCH for the SIB1. receiving, from a base station, downlink control information, DCI, with a radio network temporary identifier, RNTI, via a physical downlink control channel, PDCCH; receiving, from the base station, system information block1, SIB1, via the PDSCH based on DCI with cyclic redundancy check, CRC, scrambled by a SI-RNTI for the SIB1; and the method characterised in that a synchronization signal, SS, block is assumed to be not transmitted in resource elements, REs, used by the UE for a reception of the PDSCH for the SIB1.
Control electronics comprising a user interface, the control electronics being further configured to control a radio frequency heating system configured to provide RF energy into a cooking chamber of an oven using solid state electronic components, wherein the control electronics are configured to define one or more control consoles (400, 500, 700, 1500), at least one of the control consoles (400, 500, 700, 1500) enabling a user to select a cooking program for execution to cooking a food product in the cooking chamber via the RF heating system, wherein the user interface provides a control operator comprising a selectable operator that is operable to control progress toward completing the selected cooking program and a goal indicator entirely surrounding the selectable operator, characterized in that the goal indicator defines a geometrical shape having a perimeter indicative of the full commitment of time to complete the selected cooking program, and that the control operator is a combined progress indicator and control operator further comprising a progress indicator in form of a non-user selectable graphic representation extending while following the shape of the goal indicator proportional to an amount of the full commitment of time that has already been completed, forming a dynamic representation of the progress toward completion of that full commitment. wherein the user interface provides a control operator comprising a selectable operator that is operable to control progress toward completing the selected cooking program and a goal indicator entirely surrounding the selectable operator, characterized in that the goal indicator defines a geometrical shape having a perimeter indicative of the full commitment of time to complete the selected cooking program, and that the control operator is a combined progress indicator and control operator further comprising a progress indicator in form of a non-user selectable graphic representation extending while following the shape of the goal indicator proportional to an amount of the full commitment of time that has already been completed, forming a dynamic representation of the progress toward completion of that full commitment.
A roll-in cot comprising: a support frame for supporting a patient above a loading surface of an emergency vehicle; the support frame comprising a front end, and a back end; a pair of front legs slidingly coupled to the support frame, wherein each front leg comprises at least one front wheel; a pair of back legs slidingly coupled to the support frame, wherein each back leg comprises at least one back wheel; and a cot actuation system, wherein the cot actuation system comprises an actuator configured to move the front legs and an actuator configured to move the back legs and is operable to actuate the front legs and the back legs either simultaneously or independently; the roll-in cot further comprises; a control box cooperative with the cot actuation system to switch between an independent mode and a synchronized mode; wherein, in the synchronized mode, the front legs and the back legs are raised and lowered simultaneously, and in the independent mode, the front legs and the back legs are raised and lowered independently; characterized in that the roll-in cot comprises a plurality of sensors which detect the position of the roll in cot relative to the loading surface and which provide signals to the control box indicating the position of the roll in cot relative to the loading surface. a support frame for supporting a patient above a loading surface of an emergency vehicle; the support frame comprising a front end, and a back end; a pair of front legs slidingly coupled to the support frame, wherein each front leg comprises at least one front wheel; a pair of back legs slidingly coupled to the support frame, wherein each back leg comprises at least one back wheel; and a cot actuation system, wherein the cot actuation system comprises an actuator configured to move the front legs and an actuator configured to move the back legs and is operable to actuate the front legs and the back legs either simultaneously or independently; the roll-in cot further comprises; a control box cooperative with the cot actuation system to switch between an independent mode and a synchronized mode; wherein, in the synchronized mode, the front legs and the back legs are raised and lowered simultaneously, and in the independent mode, the front legs and the back legs are raised and lowered independently; characterized in that the roll-in cot comprises a plurality of sensors which detect the position of the roll in cot relative to the loading surface and which provide signals to the control box indicating the position of the roll in cot relative to the loading surface.
An exchangeable contact unit which can be attached to or detached from a main body (10, 20) of an inspection jig, the exchangeable contact unit comprising: a flexible board which is provided with a contact part with respect to an object to be inspected; and a coaxial connector, characterized in that the coaxial connector includes a body part to which a coaxial cable is detachable connected and a leg portion (52, 53) which is directly and electrically connected to the flexible board. a flexible board which is provided with a contact part with respect to an object to be inspected; and a coaxial connector,
A tool for producing a blank from a cardboard sheet, with a first tool part with at least one cutting line contour, by means of which at least one waste part is separable from the blank, and with a second tool part, which cooperates with the first tool part for separating the blank from the at least one waste part, wherein at least one suction channel of a suction device, via which the at least one waste part can be sucked off, is provided in the first tool part, characterized in that the suction channel is formed by respective partial suction channels over a length area.
A method for diagnosing or aiding in the diagnosis of a disease or condition, or assessing the risk of developing a disease or condition, or prognosing or aiding in the prognosis of a disease or condition, in a fetus comprising: a) determining a profile of one or more markers of the disease or condition using a combination sample isolated from a maternal subject carrying the fetus, the sample comprising a cell-free bodily fluid isolated from the maternal subject and at least one of a phagocytic cell isolated from the maternal subject or a circulating diseased cell isolated from the maternal subject, wherein at least one of the phagocytic cells comprises fetal cells or fragments thereof and at least one of the circulating diseased cells is a fetal cell; b) determining, using the profile determined from the combination sample in step a), a control maternal profile of at least one of the one or more markers; and c) identifying a difference between the profile of a) and the profile of b), wherein the difference is indicative of the presence of said disease or condition, or of the risk of developing said disease or condition, or of the prognosis of said disease or condition, respectively, in the fetus. a) determining a profile of one or more markers of the disease or condition using a combination sample isolated from a maternal subject carrying the fetus, the sample comprising a cell-free bodily fluid isolated from the maternal subject and at least one of a phagocytic cell isolated from the maternal subject or a circulating diseased cell isolated from the maternal subject, wherein at least one of the phagocytic cells comprises fetal cells or fragments thereof and at least one of the circulating diseased cells is a fetal cell; b) determining, using the profile determined from the combination sample in step a), a control maternal profile of at least one of the one or more markers; and c) identifying a difference between the profile of a) and the profile of b), wherein the difference is indicative of the presence of said disease or condition, or of the risk of developing said disease or condition, or of the prognosis of said disease or condition, respectively, in the fetus.
A method of presenting media content obtained from a content source, the content comprising a plurality of content items which are accessible by an interactive menu structure (60, 65, 70, 74, 75, 78, 81, 85), the method comprising: presenting content to a user in a preview presentation mode in which a portion of each of a set of the content items is automatically presented to the user characterized in that a portion of each of a set of the content items is automatically presented to the user in a sequence which represents a navigation path through multiple levels of the menu structure (60, 65, 70, 74, 75, 78, 81, 85). presenting content to a user in a preview presentation mode in which a portion of each of a set of the content items is automatically presented to the user characterized in that a portion of each of a set of the content items is automatically presented to the user in a sequence which represents a navigation path through multiple levels of the menu structure (60, 65, 70, 74, 75, 78, 81, 85).
A fine particle analyzer comprising: [a] a cyclone dust collection unit; [b] a filter portion connected downstream of the cyclone dust collection unit and configured to be heated; [c] a gas analysis unit connected to the filter portion and adapted to analyze fine particles in an analysis mode; and [d] a gas pipe portion connecting the cyclone dust collection unit with the gas analysis unit and provided with the filter portion; characterized by: [e] a cleaning gas introduction unit provided to the gas pipe portion and configured to introduce an internal standard substance or a sensitizer as a cleaning gas into a space in the gas pipe portion downstream of the filter portion or into the cyclone dust collection unit; and a gas nozzle portion for jetting the cleaning gas from above the filter portion into the cyclone dust collection unit, the gas nozzle portion being connected to the cleaning gas introduction unit, being disposed inside a suction pipe portion connected to the cyclone dust collection unit, and being disposed at an exhaust side of the cyclone dust collection unit; wherein at least the filter portion is cleaned in a cleaning mode, and wherein the cleaning gas introduced from the cleaning gas introduction unit has a flow rate which is increased in the cleaning mode, so that the flow rate in the cleaning mode is larger than in the analysis mode. [a] a cyclone dust collection unit; [b] a filter portion connected downstream of the cyclone dust collection unit and configured to be heated; [c] a gas analysis unit connected to the filter portion and adapted to analyze fine particles in an analysis mode; and [d] a gas pipe portion connecting the cyclone dust collection unit with the gas analysis unit and provided with the filter portion; [e] a cleaning gas introduction unit provided to the gas pipe portion and configured to introduce an internal standard substance or a sensitizer as a cleaning gas into a space in the gas pipe portion downstream of the filter portion or into the cyclone dust collection unit; and a gas nozzle portion for jetting the cleaning gas from above the filter portion into the cyclone dust collection unit, the gas nozzle portion being connected to the cleaning gas introduction unit, being disposed inside a suction pipe portion connected to the cyclone dust collection unit, and being disposed at an exhaust side of the cyclone dust collection unit; wherein at least the filter portion is cleaned in a cleaning mode, and wherein the cleaning gas introduced from the cleaning gas introduction unit has a flow rate which is increased in the cleaning mode, so that the flow rate in the cleaning mode is larger than in the analysis mode.
A wake-up method for a battery management system of a power battery pack, wherein the wake-up method is used in a wake-up system for the battery management system, and the wake-up system comprises the power battery pack, a low-voltage input port, a conversion unit, a high-voltage control module, a high-voltage transmission module, a synchronous rectifying module and a low-voltage controller, wherein the wake-up method for the battery management system is characterized by comprising: receiving, by the low-voltage input port, a low-voltage power signal for waking up the battery management system; converting, by the conversion unit, the low-voltage power signal into a high-voltage wake-up signal, and receiving, by the high-voltage control module, a working voltage provided by the power battery pack under control of the high-voltage wake-up signal; controlling, by the high-voltage control module, the high-voltage transmission module to be turned on, providing the working voltage to the synchronous rectifying module by the turned-on high-voltage transmission module, and converting high-voltage electric energy provided by the power battery pack into low-voltage electric energy; and transmitting, under control of the synchronous rectifying module, the low-voltage electric energy to the low-voltage controller, and waking up the battery management system by the low-voltage controller. receiving, by the low-voltage input port, a low-voltage power signal for waking up the battery management system; converting, by the conversion unit, the low-voltage power signal into a high-voltage wake-up signal, and receiving, by the high-voltage control module, a working voltage provided by the power battery pack under control of the high-voltage wake-up signal; controlling, by the high-voltage control module, the high-voltage transmission module to be turned on, providing the working voltage to the synchronous rectifying module by the turned-on high-voltage transmission module, and converting high-voltage electric energy provided by the power battery pack into low-voltage electric energy; and transmitting, under control of the synchronous rectifying module, the low-voltage electric energy to the low-voltage controller, and waking up the battery management system by the low-voltage controller.