mhurhangee/patent-ind-claim-en huggingface dataset:
An intraoral sensor comprising: an image sensor including a light detection region ; a fiber optical plate being disposed on the image sensor to cover the light detection region ; a scintillator being disposed on the fiber optical plate ; a case containing the image sensor , the fiber optical plate , and the scintillator ; and a signal cable electrically connected to the image sensor and extending beyond from the case , wherein the fiber optical plate includes, a first main surface opposing the image sensor and having a polygonal shape, a second main surface opposing the scintillator and having a polygonal shape, and a plurality of lateral surfaces connecting an edge of the first main surface and an edge of the second main surface , wherein the edge of the second main surface includes a plurality of corner portions , and a plurality of side portions connecting the corner portions adjacent to each other, characterized in that the scintillator is provided on the second main surface and the plurality of lateral surfaces in such a manner that a corner portion located on a second direction side opposite to a first direction in which the signal cable extending beyond out of the plurality of corner portions and a ridge portion are exposed, the ridge portion constituted by the lateral surfaces adjacent to the corner portion located on the second direction side and adjacent to each other, and the scintillator is arranged to extend onto the plurality of lateral surfaces via the edge of the second main surface . an image sensor including a light detection region ; a fiber optical plate being disposed on the image sensor to cover the light detection region ; a scintillator being disposed on the fiber optical plate ; a case containing the image sensor , the fiber optical plate , and the scintillator ; and a signal cable electrically connected to the image sensor and extending beyond from the case , wherein the fiber optical plate includes, a first main surface opposing the image sensor and having a polygonal shape, a second main surface opposing the scintillator and having a polygonal shape, and a plurality of lateral surfaces connecting an edge of the first main surface and an edge of the second main surface , wherein the edge of the second main surface includes a plurality of corner portions , and a plurality of side portions connecting the corner portions adjacent to each other, characterized in that the scintillator is provided on the second main surface and the plurality of lateral surfaces in such a manner that a corner portion located on a second direction side opposite to a first direction in which the signal cable extending beyond out of the plurality of corner portions and a ridge portion are exposed, the ridge portion constituted by the lateral surfaces adjacent to the corner portion located on the second direction side and adjacent to each other, and the scintillator is arranged to extend onto the plurality of lateral surfaces via the edge of the second main surface .
Flame case, comprising a burner which can be connected to a fuel supply and at least one reflector arranged laterally in relation to the flame which is produced when in operation, with a surface configuration for reflecting the flame , characterised in that the flame case comprises a lighting device with at least one light source rail with a light emission device directed towards the reflector .
A control method of an air conditioner, having an outdoor unit and at least one indoor unit , to perform a heating operation and a defrosting operation, the control method comprising: determining entry time of the defrosting operation during the heating operation; upon determining that it is the entry time of the defrosting operation, performing the defrosting operation; upon determining that the defrosting operation has been completed, determining a stable state of the air conditioner; upon determining that the air conditioner is in the stable state, detecting a value associated with the state of the outdoor unit and/or the indoor unit; and storing the value detected in the stable state as a stable value which is used to determine entry time of the next defrosting operation, wherein the stable state comprises a state in which an outdoor heat exchanger provided at the outdoor unit is unfrosted, and wherein the detected value comprises at least one of an operation rate of a compressor provided at the outdoor unit , a current value applied to a motor of an outdoor fan , a difference value in air pressure between an inlet and an outlet of the outdoor fan, an evaporation pressure value, a condensation pressure value, a temperature value of an outdoor heat exchanger provided at the outdoor unit and a temperature value of an indoor heat exchanger provided at the at least one indoor unit . determining entry time of the defrosting operation during the heating operation; upon determining that it is the entry time of the defrosting operation, performing the defrosting operation; upon determining that the defrosting operation has been completed, determining a stable state of the air conditioner; upon determining that the air conditioner is in the stable state, detecting a value associated with the state of the outdoor unit and/or the indoor unit; and storing the value detected in the stable state as a stable value which is used to determine entry time of the next defrosting operation, wherein the stable state comprises a state in which an outdoor heat exchanger provided at the outdoor unit is unfrosted, and wherein the detected value comprises at least one of an operation rate of a compressor provided at the outdoor unit , a current value applied to a motor of an outdoor fan , a difference value in air pressure between an inlet and an outlet of the outdoor fan, an evaporation pressure value, a condensation pressure value, a temperature value of an outdoor heat exchanger provided at the outdoor unit and a temperature value of an indoor heat exchanger provided at the at least one indoor unit .
A rare earth magnet comprising: a main phase , and a grain boundary phase present around the main phase , wherein the overall composition is represented by the formula: (Nd x (Ce, La) (1-x-y )R 1 y ) p Fe (100-p-q-r-s) Co q B r M 1 s · (R 2 z R 3 w M 2 1 -z-w)t, wherein R 1 is one or more members selected from rare earth elements other than Nd, Ce and La, R 2 is one or more members selected from Pr, Nd, Pm, Sm, Eu and Gd, R 3 is one or more members selected from rare earth elements other than R 2 , M 1 represents one or more members selected from Ga, Al, Cu, Au, Ag, Zn, In and Mn, and an unavoidable impurity element, M 2 represents an alloy element for decreasing the melting point of R 2 z R 3 w M 2 1-z-w to be lower than the melting point of R 2 by alloying with R 2 and R 3 , and an unavoidable impurity element, wherein p, q, r, s, and t are, in at%, 5.0≤p≤20.0, 0≤q≤8.0, 4.0≤r≤6.5, 0≤s≤2.0, and 0≤t≤10.0, and wherein x, y, z, and w are, by molar ratio, 0.4≤x≤0.8, 0≤y≤0.1, 0.5≤z≤0.8, and 0≤w≤0.1), and wherein La is contained in an amount of 1/9 to 3 times by molar ratio relative to Ce, and wherein an average grain size of the main phase is from 1 to 1000 nm wherein the average grain size of the main phase is calculated in accordance with the method defined in the description. a main phase , and a grain boundary phase present around the main phase , wherein the overall composition is represented by the formula: (Nd x (Ce, La) (1-x-y )R 1 y ) p Fe (100-p-q-r-s) Co q B r M 1 s · (R 2 z R 3 w M 2 1 -z-w)t, wherein R 1 is one or more members selected from rare earth elements other than Nd, Ce and La, R 2 is one or more members selected from Pr, Nd, Pm, Sm, Eu and Gd, R 3 is one or more members selected from rare earth elements other than R 2 , M 1 represents one or more members selected from Ga, Al, Cu, Au, Ag, Zn, In and Mn, and an unavoidable impurity element, M 2 represents an alloy element for decreasing the melting point of R 2 z R 3 w M 2 1-z-w to be lower than the melting point of R 2 by alloying with R 2 and R 3 , and an unavoidable impurity element, wherein p, q, r, s, and t are, in at%, 5.0≤p≤20.0, 0≤q≤8.0, 4.0≤r≤6.5, 0≤s≤2.0, and 0≤t≤10.0, and 5.0≤p≤20.0, 0≤q≤8.0, 4.0≤r≤6.5, 0≤s≤2.0, and 0≤t≤10.0, and wherein x, y, z, and w are, by molar ratio, 0.4≤x≤0.8, 0≤y≤0.1, 0.5≤z≤0.8, and 0≤w≤0.1), and 0.4≤x≤0.8, 0≤y≤0.1, 0.5≤z≤0.8, and 0≤w≤0.1), and wherein La is contained in an amount of 1/9 to 3 times by molar ratio relative to Ce, and wherein an average grain size of the main phase is from 1 to 1000 nm wherein the average grain size of the main phase is calculated in accordance with the method defined in the description.
An unbalanced shaft for balancing inertia forces and/or inertia moments of an internal combustion engine, comprising: - a support shaft having a bearing section , - a tensioning part arranged on the bearing section , which the bearing section secures against rotation about the axis of rotation of the unbalanced shaft in a form-fitting manner, - and a bearing ring surrounding the bearing section and the tensioning part , which the tensioning part tensions against the bearing section radially relative to the axis of rotation , characterised in that the tensioning part secures the bearing ring against rotation about the axis of rotation in a form-fitting manner. - a support shaft having a bearing section , - a tensioning part arranged on the bearing section , which the bearing section secures against rotation about the axis of rotation of the unbalanced shaft in a form-fitting manner, - and a bearing ring surrounding the bearing section and the tensioning part , which the tensioning part tensions against the bearing section radially relative to the axis of rotation ,
A method of early determination of anomalies in a cyber-physical system, the method comprising: receiving information about one or more features of the cyber-physical system; receiving information about a period of time for monitoring the one or more features ; generating a forecast of values of the one or more features of the cyber-physical system over the period of time based on a forecasting model; determining a forecast error for each of the one or more features over the period of time , wherein the determined forecast error comprises a difference between corresponding forecasted value and an observed value of the one or more features ; wherein the method is characterized by further comprising: determining a total error of the forecast for all of the one or more features , wherein the total error of the forecast comprises a weighted mean of the forecast errors for all of the one or more features over the period of time ; determining that the total error is greater than a total error threshold; and in response to determining that the total error is greater than the total error threshold, identifying a feature of the one or more features as a source of an anomaly in the cyber-physical system, if contribution of the forecast error of said feature to the total error is greater than contribution of other features of the one or more features to the total error. receiving information about one or more features of the cyber-physical system; receiving information about a period of time for monitoring the one or more features ; generating a forecast of values of the one or more features of the cyber-physical system over the period of time based on a forecasting model; determining a forecast error for each of the one or more features over the period of time , wherein the determined forecast error comprises a difference between corresponding forecasted value and an observed value of the one or more features ; wherein the method is characterized by further comprising: determining a total error of the forecast for all of the one or more features , wherein the total error of the forecast comprises a weighted mean of the forecast errors for all of the one or more features over the period of time ; determining that the total error is greater than a total error threshold; and in response to determining that the total error is greater than the total error threshold, identifying a feature of the one or more features as a source of an anomaly in the cyber-physical system, if contribution of the forecast error of said feature to the total error is greater than contribution of other features of the one or more features to the total error.
A method for dielectrophoresis, the method comprising: applying an electric field across a micro-fluidic chamber with an alternating current, wherein the electric field is uniform absent a carrier particle present in the micro-fluidic chamber ; wherein the micro-fluidic chamber contains an electrolyte-solution with suspended target particles and at least one carrier particle (80/100) freely floating on or in the electrolyte-solution; trapping the target particles on the at least one carrier particle (80/100) based on localized gradients of the electric field induced by the carrier particle (80/100); transporting the target particles from a first location in the chamber to a second location in the chamber distanced from the first location with the at least one carrier particle (80/100); and dynamically controlling the trapping and the transporting based on remotely applying forces on the at least one carrier particle (80/100), wherein said trapping is dynamically controlled based on selection of a frequency and/or amplitude of said alternating current. applying an electric field across a micro-fluidic chamber with an alternating current, wherein the electric field is uniform absent a carrier particle present in the micro-fluidic chamber ; wherein the micro-fluidic chamber contains an electrolyte-solution with suspended target particles and at least one carrier particle (80/100) freely floating on or in the electrolyte-solution; trapping the target particles on the at least one carrier particle (80/100) based on localized gradients of the electric field induced by the carrier particle (80/100); transporting the target particles from a first location in the chamber to a second location in the chamber distanced from the first location with the at least one carrier particle (80/100); and dynamically controlling the trapping and the transporting based on remotely applying forces on the at least one carrier particle (80/100), wherein said trapping is dynamically controlled based on selection of a frequency and/or amplitude of said alternating current.
A wireless communication method, comprising: receiving , by a terminal, first indication information sent by a network device, wherein the first indication information indicates the terminal to monitor at least one control resource set corresponding to at least one first bandwidth part, BWP, during running of a timer; receiving , by the terminal, second indication information sent by the network device, wherein the second indication information indicates the terminal to monitor at least one control resource set corresponding to at least one second BWP when the timer does not run; monitoring , by the terminal, based on the received second indication information, the at least one control resource set corresponding to at least one second BWP; starting , by the terminal, the timer after receiving downlink control information on the at least one control resource set corresponding to the at least one second BWP; monitoring , by the terminal, based on the received first indication information, the at least one control resource set corresponding to at least one first BWP; and restarting , by the terminal, the timer after receiving downlink control information on the at least one control resource set corresponding to the at least one first BWP during running of the timer. receiving , by a terminal, first indication information sent by a network device, wherein the first indication information indicates the terminal to monitor at least one control resource set corresponding to at least one first bandwidth part, BWP, during running of a timer; receiving , by the terminal, second indication information sent by the network device, wherein the second indication information indicates the terminal to monitor at least one control resource set corresponding to at least one second BWP when the timer does not run; monitoring , by the terminal, based on the received second indication information, the at least one control resource set corresponding to at least one second BWP; starting , by the terminal, the timer after receiving downlink control information on the at least one control resource set corresponding to the at least one second BWP; monitoring , by the terminal, based on the received first indication information, the at least one control resource set corresponding to at least one first BWP; and restarting , by the terminal, the timer after receiving downlink control information on the at least one control resource set corresponding to the at least one first BWP during running of the timer.
Floor nozzle, comprising - a nozzle body having a front edge ; - a light source which is designed to emit light; and - a light guide having a light decoupling region which is arranged along the front edge and is designed to receive light emitted by the light source and to emit said light onto a floor to be cleaned, and which has prismatic recesses , - characterised in that the prismatic recesses each have a height (h) which increases from the outside inwards along a nozzle width which is arranged transversely to a working direction of the floor nozzle. - a nozzle body having a front edge ; - a light source which is designed to emit light; and - a light guide having a light decoupling region which is arranged along the front edge and is designed to receive light emitted by the light source and to emit said light onto a floor to be cleaned, and which has prismatic recesses , - characterised in that the prismatic recesses each have a height (h) which increases from the outside inwards along a nozzle width which is arranged transversely to a working direction of the floor nozzle.
An assembly for an artificial knee joint comprising: an insert member configured to be embedded in only a part of a joint surface of a medial condyle (MC) or lateral condyle (LC) of a tibia (T); and a bridge member configured to be disposed underneath the insert member , having a length that allows both ends of the bridge member to be anchored to a cortical bone of the tibia , and supporting the insert member from below, characterized in that the assembly further comprises a cylindrical base plate configured to be disposed between the insert member and the bridge member , the baseplate supporting an outer edge of the insert member , wherein the cylindrical base plate comprises a cylindrical portion , being a tubular portion, wherein the insert member comprises, on a lower surface thereof, a concentric step portion to which an upper end portion of the cylindrical portion is fitted, wherein the upper end surface of the cylindrical portion is inclined with respect to a plane perpendicular to a cylinder axis of the cylindrical portion , wherein upper surface of the insert member is formed so as to be inclined with respect to the plane perpendicular to the cylinder axis of the cylindrical portion , and wherein upper surface of the insert member is adjusted in height and shape so that it smoothly connects to the surrounding original joint surface. an insert member configured to be embedded in only a part of a joint surface of a medial condyle (MC) or lateral condyle (LC) of a tibia (T); and a bridge member configured to be disposed underneath the insert member , having a length that allows both ends of the bridge member to be anchored to a cortical bone of the tibia , and supporting the insert member from below, characterized in that the assembly further comprises a cylindrical base plate configured to be disposed between the insert member and the bridge member , the baseplate supporting an outer edge of the insert member , wherein the cylindrical base plate comprises a cylindrical portion , being a tubular portion, wherein the insert member comprises, on a lower surface thereof, a concentric step portion to which an upper end portion of the cylindrical portion is fitted, wherein the upper end surface of the cylindrical portion is inclined with respect to a plane perpendicular to a cylinder axis of the cylindrical portion , wherein upper surface of the insert member is formed so as to be inclined with respect to the plane perpendicular to the cylinder axis of the cylindrical portion , and wherein upper surface of the insert member is adjusted in height and shape so that it smoothly connects to the surrounding original joint surface.
An assembly for processing fruit and vegetable products, which comprises a plurality of units for containing fruit and vegetable products (A), which can move in sequence along a conveyance line , characterized in that it comprises at least one vision element , arranged along said line and intended at least to check the actual number (N) of said containment units on which each product (A) lies and is conveyed along said line , said actual number (N) being able to depend randomly or otherwise on the size, shape, arrangement and/or method of loading on said line of the respective product (A), downstream of said at least one element there being at least one first device for weighing a first predefined number (n 1 ) of said consecutive containment units and at least one second device for weighing a second predefined number (n 2 ) of said consecutive containment units , which is different from said first number (n 1 ), for each fruit and vegetable product (A) conveyed along said line said first weighing device and said second weighing device being activatable selectively by an electronic control and management unit, as a function of the respective actual number (N) detected by said at least one vision element , for weighing said predefined number (n 1 , n 2 , n 3 ) of said consecutive containment units that corresponds to the actual number (N) of said containment units on which each fruit and vegetable product (A) is conveyed.