mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a user equipment for determining an upper bound of a maximum power for a secondary cell group in the user equipment, which can configure the maximum power in a range that is defined by the upper bound and a lower bound, the method comprising: determining whether a configured output power for a master cell group in a dual connectivity mode of operation is less than a minimum of a maximum allowed power for a serving cell and a maximum allowed combined power; wherein the upper bound of the maximum power for the secondary cell group in the user equipment is set equal to the minimum of the minimum of the maximum allowed power for the serving cell and the maximum allowed combined power, less the configured output power for the master cell group, a maximum allowed power for the secondary cell group, and an adjusted maximum power of a power class of the user equipment, based upon a determination that the configured output power for the master cell group in a dual connectivity mode of operation is less than the minimum of the maximum allowed power for the serving cell and the maximum allowed combined power; and wherein the upper bound of the maximum power for the secondary cell group in the user equipment is set equal to zero power, based upon a determination that the configured output power for the master cell group in a dual connectivity mode of operation is not less than the minimum of the maximum allowed power for the serving cell and the maximum allowed combined power. determining whether a configured output power for a master cell group in a dual connectivity mode of operation is less than a minimum of a maximum allowed power for a serving cell and a maximum allowed combined power; wherein the upper bound of the maximum power for the secondary cell group in the user equipment is set equal to the minimum of the minimum of the maximum allowed power for the serving cell and the maximum allowed combined power, less the configured output power for the master cell group, a maximum allowed power for the secondary cell group, and an adjusted maximum power of a power class of the user equipment, the minimum of the maximum allowed power for the serving cell and the maximum allowed combined power, less the configured output power for the master cell group, a maximum allowed power for the secondary cell group, and an adjusted maximum power of a power class of the user equipment, based upon a determination that the configured output power for the master cell group in a dual connectivity mode of operation is less than the minimum of the maximum allowed power for the serving cell and the maximum allowed combined power; and wherein the upper bound of the maximum power for the secondary cell group in the user equipment is set equal to zero power, based upon a determination that the configured output power for the master cell group in a dual connectivity mode of operation is not less than the minimum of the maximum allowed power for the serving cell and the maximum allowed combined power.
A direct-current electric arc detection method, comprising: obtaining an electrical quantity of a direct current circuit; inputting the electrical quantity into a burning arc neural network model to perform burning arc detection on the direct current circuit, to obtain a burning arc detection result; and when the burning arc detection result is that a burning arc is detected, determining that a direct-current electric arc fault exists in the direct current circuit , wherein, before inputting the electrical quantity into the burning arc neural network model, the method further comprises: inputting the electrical quantity into a starting arc neural network model to perform starting arc detection on the direct current circuit, to obtain a starting arc detection result; and when the starting arc detection result is that a starting arc is detected, inputting the electrical quantity into the burning arc neural network model; and wherein the electrical quantity is data obtained by performing Fourier transform and data per unit normalization processing on an original electrical quantity. obtaining an electrical quantity of a direct current circuit; inputting the electrical quantity into a burning arc neural network model to perform burning arc detection on the direct current circuit, to obtain a burning arc detection result; and when the burning arc detection result is that a burning arc is detected, determining that a direct-current electric arc fault exists in the direct current circuit , wherein, before inputting the electrical quantity into the burning arc neural network model, the method further comprises: inputting the electrical quantity into a starting arc neural network model to perform starting arc detection on the direct current circuit, to obtain a starting arc detection result; and when the starting arc detection result is that a starting arc is detected, inputting the electrical quantity into the burning arc neural network model; and wherein the electrical quantity is data obtained by performing Fourier transform and data per unit normalization processing on an original electrical quantity. inputting the electrical quantity into a starting arc neural network model to perform starting arc detection on the direct current circuit, to obtain a starting arc detection result; and when the starting arc detection result is that a starting arc is detected, inputting the electrical quantity into the burning arc neural network model; and wherein the electrical quantity is data obtained by performing Fourier transform and data per unit normalization processing on an original electrical quantity.
A method of measuring oxygen saturation in an individual, the method comprising the steps of: measuring an electrocardiogram signal over multiple heart beats; measuring one or more pulse oximetry signals over multiple heart beats such that the electrocardiogram signal and the one or more pulse oximetry signals are in time concordance over one or more heart beats; comparing a portion of the electrocardiogram signal and the one or more pulse oximetry signals in time concordance over one or more heart beats to determine a constant component and a primary periodic component of each of the one or more pulse oximetry signals; and determining oxygen saturation from the constant components and primary periodic components of the one or more pulse oximetry signals; characterized in that said pulse oximetry signals include a reflective infrared signal and a reflective red light signal; and said step of comparing includes defining intervals of said pulse oximetry signal based on characteristics of said electrocardiogram signal and averaging values of said pulse oximetry signal over a plurality of such intervals. measuring an electrocardiogram signal over multiple heart beats; measuring one or more pulse oximetry signals over multiple heart beats such that the electrocardiogram signal and the one or more pulse oximetry signals are in time concordance over one or more heart beats; comparing a portion of the electrocardiogram signal and the one or more pulse oximetry signals in time concordance over one or more heart beats to determine a constant component and a primary periodic component of each of the one or more pulse oximetry signals; and determining oxygen saturation from the constant components and primary periodic components of the one or more pulse oximetry signals; characterized in that said pulse oximetry signals include a reflective infrared signal and a reflective red light signal; and said step of comparing includes defining intervals of said pulse oximetry signal based on characteristics of said electrocardiogram signal and averaging values of said pulse oximetry signal over a plurality of such intervals.
A neutron detector comprising: a first detecting element comprising: a Si semiconductor layer ; a first electrode formed on one main surface of the Si semiconductor layer ; and a second electrode formed on the other main surface of the Si semiconductor layer , wherein the Si semiconductor layer comprises a P-type impurity region in contact with the second electrode and an N-type impurity region in contact with the first electrode ; and a radiator configured to convert incident neutrons into charged particles and arranged to face the first electrode , characterized in that : the Si semiconductor layer has a thickness of not less than 30 μm and not greater than 100 μm. a first detecting element comprising: a Si semiconductor layer ; a first electrode formed on one main surface of the Si semiconductor layer ; and a second electrode formed on the other main surface of the Si semiconductor layer , wherein the Si semiconductor layer comprises a P-type impurity region in contact with the second electrode and an N-type impurity region in contact with the first electrode ; and a radiator configured to convert incident neutrons into charged particles and arranged to face the first electrode , characterized in that : the Si semiconductor layer has a thickness of not less than 30 μm and not greater than 100 μm.
A double frame system for a window, a French window or the like with a fitting assembly, comprising a basic frame with a profiling in the direction of an outer frame , the outer frame with in each case a profiling in the direction of the basic frame and of an inner frame , wherein the inner frame has a profiling in the direction of the outer frame, wherein at least one pair of hinges at least pivotably connects the outer frame to the inner frame and at least one pair of hinges at least pivotably connects the outer frame to the basic frame , wherein the inner frame is at least pivotable completely independently of the outer frame and the fitting assembly can be operated via an actuating element , so that the closing of outer frame and inner frame can be produced together with the basic frame , characterized in that a drive rod fitting with a drive rod is arranged on the outer frame for switching at least one part of the opening and closing functions of outer frame and inner frame .
An electric strike having a bolt cavity arranged to receive at least one bolt of a door lock , the electric strike comprising: - a strike frame ; - a keeper (8; 9) mounted on the strike frame , the keeper (8; 9) forming a side wall of said bolt cavity and being arranged to pivot about a first pivot axis (35; 62), which first pivot axis (35; 62) extends in a first direction, between a door-locking position, wherein the keeper (8; 9) is arranged to retain the bolt to prevent door opening, and a door-releasing position, wherein the keeper (8; 9) is arranged to enable the bolt to exit the bolt cavity in a second direction, which second direction is substantially perpendicular to said first direction; and - a lock lever mounted on the strike frame for locking the keeper (8; 9) in said door-locking position, the lock lever being arranged to move between a locking position, wherein the keeper (8; 9), when in said door-locking position, is prevented by the lock lever from pivoting around the first pivot axis (35; 62) to said door-releasing position, and an unlocking position, wherein the keeper (8; 9) is free to pivot around the first pivot axis (35; 62) to said door-releasing position, the lock lever being arranged to move between said locking position and said unlocking position by pivoting about a second pivot axis which extends substantially in said second direction, characterised in that the strike frame is provided with a bearing element arranged to bear against the lock lever to prevent the lock lever , when the lock lever is in its locking position and when the keeper (8; 9) is in its door-locking position, from being moved in said second direction when said bolt of the door lock is urged against the keeper (8; 9), the bearing element having a side surface , the lock lever bearing against said side surface in said second direction when the door lock is urged against the keeper (8; 9). - a strike frame ; - a keeper (8; 9) mounted on the strike frame , the keeper (8; 9) forming a side wall of said bolt cavity and being arranged to pivot about a first pivot axis (35; 62), which first pivot axis (35; 62) extends in a first direction, between a door-locking position, wherein the keeper (8; 9) is arranged to retain the bolt to prevent door opening, and a door-releasing position, wherein the keeper (8; 9) is arranged to enable the bolt to exit the bolt cavity in a second direction, which second direction is substantially perpendicular to said first direction; and - a lock lever mounted on the strike frame for locking the keeper (8; 9) in said door-locking position, the lock lever being arranged to move between a locking position, wherein the keeper (8; 9), when in said door-locking position, is prevented by the lock lever from pivoting around the first pivot axis (35; 62) to said door-releasing position, and an unlocking position, wherein the keeper (8; 9) is free to pivot around the first pivot axis (35; 62) to said door-releasing position, the lock lever being arranged to move between said locking position and said unlocking position by pivoting about a second pivot axis which extends substantially in said second direction,
A drive arrangement for a vehicle, wherein the arrangement comprises an output shaft of an internal combustion engine , an input shaft of a transmission , an electrical machine comprising a stator and a rotor , a planetary gear comprising movable elements , and a locking mechanism which is movable between a first and second position, in which first position the output shaft of the internal combustion engine and the input shaft of the transmission are allowed to rotate at different speeds through the planetary gear , and in which second position the locking mechanism rigidly connects the output shaft of the internal combustion engine to the input shaft of the transmission through the planetary gear , characterized in that the locking mechanism comprises a sleeve provided with first splines , which in the first position engage with second splines on a first moving component of the planetary gear and in the second position further engage with third splines on a second movable component of the planetary gear , wherein the first movable component is connected to the input shaft of the transmission and the second movable component is connected to the output shaft of the combustion engine ; in that the first movable component is a planet carrier and the second movable component is a sun wheel ; and in that the locking mechanism is configured as an annular sleeve substantially concentrically surrounding the planet wheel carrier .
A method performed by a server in a wireless communication system, the method comprising: receiving, from a wireless device via an Internet of Things, loT application server , first information on a battery state of the wireless device and second information on a time duration related to an operation mode of the wireless device ; receiving, from a core network entity , information on a previous extended discontinuous reception, eDRX, duration and an identifier of the wireless device ; determining an optimal eDRX duration for the wireless device based on the first information and the second information; and transmitting, to the core network entity , information on the eDRX duration, wherein the first information on the battery state of the wireless device includes information on a battery consumption amount in a unit time, a remaining battery capacity, and a total battery capacity of the wireless device , wherein the time duration related to the operation mode of the wireless device includes an active mode duration, a sleep mode duration, and a power saving mode, PSM, duration. receiving, from a wireless device via an Internet of Things, loT application server , first information on a battery state of the wireless device and second information on a time duration related to an operation mode of the wireless device ; receiving, from a core network entity , information on a previous extended discontinuous reception, eDRX, duration and an identifier of the wireless device ; determining an optimal eDRX duration for the wireless device based on the first information and the second information; and transmitting, to the core network entity , information on the eDRX duration, wherein the first information on the battery state of the wireless device includes information on a battery consumption amount in a unit time, a remaining battery capacity, and a total battery capacity of the wireless device , wherein the time duration related to the operation mode of the wireless device includes an active mode duration, a sleep mode duration, and a power saving mode, PSM, duration.
A dental imaging apparatus, which apparatus includes a support construction which supports a structure supporting imaging means , at least one imaging station for placing a patient to the apparatus for imaging, in which apparatus the imaging means includes at least an x-ray source and a receiver means of x-ray image information , which are arranged in the apparatus in such a way with respect to said imaging station that the x-ray source and the receiver means of x-ray image information are positioned at opposite sides of the imaging station such that a beam generated by the x-ray source can be aligned to go through said imaging station and towards said receiver means of x-ray image information , a control system for controlling operations of the imaging apparatus and a means integrated with the imaging apparatus or arranged into functional connection with it for processing information detected at the receiver means of x-ray image information , and wherein structures, components and control means of the apparatus related to x-ray imaging are arranged to enable dental panoramic imaging, dental computed tomography imaging and/or dental cone-beam computed tomography imaging, wherein the apparatus further includes, as a combination, a means for photographing a patient's face and/or for producing a moving picture of the patient's face from at least two directions while the patient is positioned at said imaging station , which means comprises at least one colour camera the location of which with respect to said imaging station is arranged changeable and/or at least two colour cameras being arranged to image the patient's face positioned at the patient support station from different directions, a means integrated in the apparatus or brought to functional connection with it for creating a three-dimensional surface model of the patient's face, a means arranged into functional connection with said at least one colour camera for combining the image information detected by said at least one colour camera , or a three-dimensional texture model created from the image information detected by said at least one colour camera , to the three-dimensional surface model of the patient's face to create a virtual three-dimensional texture model of the patient's face, a means for creating a virtual model which comprises x-ray image information at least from a portion of the bones and/or teeth of the patient's cranial area integrated with said virtual three-dimensional texture model produced of the patient's face, characterized in that to said structure supporting the imaging means is arranged a receiver module of image information to which is placed: the receiver means of x-ray image information , the at least one colour camera and at least one lighting structure for illuminating the patient's face while the patient is positioned at said imaging station .
A removable, chargeable battery system for a robotic vacuum cleaner , comprising: a battery pack comprising one or more batteries ; a battery management system extending across all of the one or more batteries of the battery pack ; a housing configured to store the battery pack and the battery management system therein; and a connector at least partially connected to the battery management system and extending through the housing ; wherein the connector is configured to transmit signals between the battery management system and the robotic vacuum cleaner , characterized in that the housing also has a translucent top cover , which extends over the battery management system ; and the removable, chargeable battery system further comprises: a circuit board within the top cover of the housing , the circuit board including a light source to illuminate through the translucent top cover of the housing when the light source is activated, and the circuit board including a capacitive touch sensor to detect a touch of the translucent top cover of the housing and to activate the light source in response to the touch to indicate a charge status of the battery pack . a battery pack comprising one or more batteries ; a battery management system extending across all of the one or more batteries of the battery pack ; a housing configured to store the battery pack and the battery management system therein; and a connector at least partially connected to the battery management system and extending through the housing ; wherein the connector is configured to transmit signals between the battery management system and the robotic vacuum cleaner , characterized in that the housing also has a translucent top cover , which extends over the battery management system ; and the removable, chargeable battery system further comprises: a circuit board within the top cover of the housing , the circuit board including a light source to illuminate through the translucent top cover of the housing when the light source is activated, and the circuit board including a capacitive touch sensor to detect a touch of the translucent top cover of the housing and to activate the light source in response to the touch to indicate a charge status of the battery pack .