mhurhangee/patent-ind-claim-en huggingface dataset:
A method for downlink bandwidth part, BWP, deactivation, applied to a terminal device, the method comprising: performing , based on control of a network device, deactivation of at least one downlink BWP configured on a carrier of the terminal device; wherein deactivation of the at least one downlink BWP is controlled by at least one inactivity timer configured by the network device, comprising: acquiring the at least one inactivity timer configured by the network device for at least part of other downlink BWPs, except an initial BWP, of the at least one downlink BWP; comprising, starting the inactivity timer corresponding to a downlink BWP when data transmission or reception occurred on the downlink BWP; and controlling, through the inactivity timer, a duration during which the downlink BWP is kept in an active state. performing , based on control of a network device, deactivation of at least one downlink BWP configured on a carrier of the terminal device; wherein deactivation of the at least one downlink BWP is controlled by at least one inactivity timer configured by the network device, comprising: acquiring the at least one inactivity timer configured by the network device for at least part of other downlink BWPs, except an initial BWP, of the at least one downlink BWP; comprising, starting the inactivity timer corresponding to a downlink BWP when data transmission or reception occurred on the downlink BWP; and controlling, through the inactivity timer, a duration during which the downlink BWP is kept in an active state. acquiring the at least one inactivity timer configured by the network device for at least part of other downlink BWPs, except an initial BWP, of the at least one downlink BWP; comprising, starting the inactivity timer corresponding to a downlink BWP when data transmission or reception occurred on the downlink BWP; and controlling, through the inactivity timer, a duration during which the downlink BWP is kept in an active state.
A circulator cooker comprising: a head controller including a display device and an input device; a middle portion connected to the head controller, the middle portion housing a motor coupled to the controller; and a skirt , the skirt housing a heating element coupled to the head controller and an agitation device coupled to the motor, the head controller is configured to control the temperature of the heating element and control the speed of the agitation device, characterized in that the skirt is connectable to the middle portion and removable from the middle portion, wherein removal of the skirt exposes the heating element and the agitation device, and wherein the head controller is rotatable with respect to the middle portion. a head controller including a display device and an input device; a middle portion connected to the head controller, the middle portion housing a motor coupled to the controller; and a skirt , the skirt housing a heating element coupled to the head controller and an agitation device coupled to the motor, the head controller is configured to control the temperature of the heating element and control the speed of the agitation device, characterized in that the skirt is connectable to the middle portion and removable from the middle portion, wherein removal of the skirt exposes the heating element and the agitation device, and wherein the head controller is rotatable with respect to the middle portion.
A circuit card assembly , comprising: a circuit card having one or more components ; a surface coating that encloses the one or more components such that they are protected from exposure to liquids ; characterised by a first channel comprising an etched or routed opening in the coating that directs liquid to detection artwork ; wherein the detection artwork is disposed within the first channel; and wherein the first channel is defined on first and second sidewalls by the coating, and the first channel is configured to direct liquid present on the circuit card to the detection artwork. a circuit card having one or more components ; a surface coating that encloses the one or more components such that they are protected from exposure to liquids ; characterised by a first channel comprising an etched or routed opening in the coating that directs liquid to detection artwork ; wherein the detection artwork is disposed within the first channel; and wherein the first channel is defined on first and second sidewalls by the coating, and the first channel is configured to direct liquid present on the circuit card to the detection artwork.
A filamentous fungal host cell comprising a heterologous polynucleotide encoding a secreted polypeptide of interest and comprising an inactivated rlmA gene or homologue thereof, wherein said rlmA gene or homologue thereof encodes an RlmA MADS-box transcription factor polypeptide having at least 80% amino acid sequence identity with SEQ ID NO:3.
A connection assembly for transmitting loads in a load plane between a first wing element and a second wing element , wherein the connection assembly is C-shaped and comprises a first load-bearing device and a second load-bearing device , wherein each of the first and second load-bearing devices is L-shaped and comprises a first leg , a second leg and a joint region , wherein the first leg extends parallel to the load plane and away from the joint region towards a first end region and wherein the second leg extends parallel to the load plane and away from the joint region towards a second end region , wherein the second legs of the first and the second load-bearing devices extend in parallel to one another, wherein a first coupling portion for connecting the connection assembly to the second wing element is formed in the joint region of the first load-bearing device , wherein a second coupling portion for connecting the connection assembly to the second wing element is formed in the second end region of the first load-bearing device and the joint region of the second load-bearing device , wherein a third coupling portion for connecting the connection assembly to the first wing element is formed in the first end region of the first load-bearing device and wherein a fourth coupling portion for connecting the connection assembly to the first wing element is formed in the first end region of the second load-bearing device , and wherein the second leg of the second load-bearing device is connected to the second leg of the first load-bearing device . wherein a first coupling portion for connecting the connection assembly to the second wing element is formed in the joint region of the first load-bearing device , wherein a second coupling portion for connecting the connection assembly to the second wing element is formed in the second end region of the first load-bearing device and the joint region of the second load-bearing device , wherein a third coupling portion for connecting the connection assembly to the first wing element is formed in the first end region of the first load-bearing device and wherein a fourth coupling portion for connecting the connection assembly to the first wing element is formed in the first end region of the second load-bearing device , and wherein the second leg of the second load-bearing device is connected to the second leg of the first load-bearing device .
A method for producing a resin-filled object using a tubular object comprising a penetration space formed in a longitudinal direction and an edge region having slots (3; 101) formed in the longitudinal direction therein, wherein the method for producing a resin-filled object comprises steps of: introducing a resin composition including a resin and magnetic powder into the slots (3; 101); inserting a solenoid coil into the penetration space of the tubular object that the resin composition is introduced into the slots (3; 101); and generating a magnetic field with the solenoid coil to cure the resin. wherein the method for producing a resin-filled object comprises steps of: introducing a resin composition including a resin and magnetic powder into the slots (3; 101); inserting a solenoid coil into the penetration space of the tubular object that the resin composition is introduced into the slots (3; 101); and generating a magnetic field with the solenoid coil to cure the resin.
A method of manufacturing a light emitting semiconductor device , the method comprising the steps of: - providing a substrate ; - providing a light emitting layer structure at first growth conditions; and - providing an AIGaAs getter layer for reducing impurities in the layer structure of the light emitting semiconductor device at second growth conditions different from the first growth conditions, wherein the first and the second growth conditions are chosen out of the group Arsenic partial pressure, Oxygen partial pressure, deposition temperature, total deposition pressure and deposition rate of Aluminum, wherein the second growth conditions are chosen such that a first concentration of the impurity within the Al-GaAs getter layer is at least 50% higher in comparison to a second concentration of the impurity in the layers of the light emitting layer structure comprising Aluminum, wherein the deposition rate of Aluminum of the AIGaAs getter layer is chosen such that the AIGaAs getter layer comprises a sublayer in which an Aluminum content varies with less than 0.5 % / nm between a first Aluminum content and a second Aluminum content different than the first Aluminum content, characterized in that the Arsenic partial pressure during deposition of the AIGaAs getter layer is varied in at least a part of a range between 2 and 200 times the Gallium partial pressure such that the number of lattice defects in the AIGaAs getter layer is increased in comparison to the layers of the light emitting layer structure comprising Aluminum. - providing a substrate ; - providing a light emitting layer structure at first growth conditions; and - providing an AIGaAs getter layer for reducing impurities in the layer structure of the light emitting semiconductor device at second growth conditions different from the first growth conditions, wherein the first and the second growth conditions are chosen out of the group Arsenic partial pressure, Oxygen partial pressure, deposition temperature, total deposition pressure and deposition rate of Aluminum, wherein the second growth conditions are chosen such that a first concentration of the impurity within the Al-GaAs getter layer is at least 50% higher in comparison to a second concentration of the impurity in the layers of the light emitting layer structure comprising Aluminum, wherein the deposition rate of Aluminum of the AIGaAs getter layer is chosen such that the AIGaAs getter layer comprises a sublayer in which an Aluminum content varies with less than 0.5 % / nm between a first Aluminum content and a second Aluminum content different than the first Aluminum content, characterized in that the Arsenic partial pressure during deposition of the AIGaAs getter layer is varied in at least a part of a range between 2 and 200 times the Gallium partial pressure such that the number of lattice defects in the AIGaAs getter layer is increased in comparison to the layers of the light emitting layer structure comprising Aluminum.
A container comprising: a cylindrical container body with a bottom having a sidewall and a bottom wall ; a lid having a flat plate portion and a side portion , the flat plate portion covering an opening of the container body , the side portion covering at least a part of an outer peripheral surface of the container body ; and a flat plate-shaped inner plug located inside the lid , wherein the container body includes a thread ridge on the outer peripheral surface, the side portion of the lid has a screw groove on its inner peripheral surface, the lid is configured to be screwed with the container body by screwing the screw groove with the thread ridge , the inner plug includes an inner plug body and lock portions , the lock portions being disposed on an outer peripheral portion of the inner plug body , characterised in that the screw groove has two or more threads, the screw groove has the threads by a count identical to a count of the lock portions , and the inner plug is held to an inside of the lid by each of the lock portions fitted into each inside of the screw grooves . a cylindrical container body with a bottom having a sidewall and a bottom wall ; a lid having a flat plate portion and a side portion , the flat plate portion covering an opening of the container body , the side portion covering at least a part of an outer peripheral surface of the container body ; and a flat plate-shaped inner plug located inside the lid , wherein the container body includes a thread ridge on the outer peripheral surface, the side portion of the lid has a screw groove on its inner peripheral surface, the lid is configured to be screwed with the container body by screwing the screw groove with the thread ridge , the inner plug includes an inner plug body and lock portions , the lock portions being disposed on an outer peripheral portion of the inner plug body , characterised in that the screw groove has two or more threads, the screw groove has the threads by a count identical to a count of the lock portions , and the inner plug is held to an inside of the lid by each of the lock portions fitted into each inside of the screw grooves .
A burner assembly for burning pulverised fuel including: a primary duct extending along a longitudinal axis (A) wherein a flow of air and pulverised fuel flows in one advancing direction (D); the primary duct being provided with an inlet and an outlet ; a secondary duct wherein a flow of secondary air flows; the secondary duct being arranged around the primary duct at the outlet ; a stabiliser device (28; 128) arranged at the outlet of the primary duct and comprising an annular element (55; 155) centred on the longitudinal axis (A) provided with an inner surface and an outer surface ; the stabiliser device (28; 128) being provided externally with at least a plurality of cooling fins (59; 159) coupled to the outer surface , which face the secondary duct ; wherein each cooling fin (59; 159) is arranged along a respective direction transverse to the longitudinal axis (A) . a primary duct extending along a longitudinal axis (A) wherein a flow of air and pulverised fuel flows in one advancing direction (D); the primary duct being provided with an inlet and an outlet ; a secondary duct wherein a flow of secondary air flows; the secondary duct being arranged around the primary duct at the outlet ; a stabiliser device (28; 128) arranged at the outlet of the primary duct and comprising an annular element (55; 155) centred on the longitudinal axis (A) provided with an inner surface and an outer surface ; the stabiliser device (28; 128) being provided externally with at least a plurality of cooling fins (59; 159) coupled to the outer surface , which face the secondary duct ; wherein each cooling fin (59; 159) is arranged along a respective direction transverse to the longitudinal axis (A) . a stabiliser device (28; 128) arranged at the outlet of the primary duct and comprising an annular element (55; 155) centred on the longitudinal axis (A) provided with an inner surface and an outer surface ; the stabiliser device (28; 128) being provided externally with at least a plurality of cooling fins (59; 159) coupled to the outer surface , which face the secondary duct ; wherein each cooling fin (59; 159) is arranged along a respective direction transverse to the longitudinal axis (A) .
A measurement abnormality detecting method for surface plasmon field-enhanced fluorescence spectroscopy (SPFS) comprising: a light measurement step of providing excitation light EL to irradiation areas (E1, E2, E3) of a measurement target region of a sample and thereby measuring light output from the measurement target region due to incidence of the excitation light, wherein the measurement target region is a reaction field in which a biochemical reaction is performed, and a measurement result is calculated from measurement values of the amount of light emitted from a fluorescent substance positioned in the reaction field , in response to the incident excitation light EL, wherein said fluorescent substance has the property that the color fades every time the substance is irradiated with the excitation light EL; and the measurement result is calculated using: a determination step of comparing measurement values of the light measured at a plurality of times while changing the position of the irradiation areas (E1, E2, E3) of the measurement target region to thereby determine an abnormality of the measurement result, wherein the determination step determines a measurement abnormality in the reaction field in a case where a reference measurement value being a measurement value obtained for a first measurement in the reaction field is lower than a comparison measurement value defined as the highest measurement value among measurement values obtained at a subsequent second and subsequent further measurements in the reaction field, wherein a first irradiation area (E1) irradiated during the first measurement from among the irradiation areas (E1, E2, E3) within the measurement target region corresponding to the reaction field, partially overlaps all other irradiation areas (E2, E3) irradiated during the measurements at the subsequent second and subsequent further times. a determination step of comparing measurement values of the light measured at a plurality of times while changing the position of the irradiation areas (E1, E2, E3) of the measurement target region to thereby determine an abnormality of the measurement result, wherein the determination step determines a measurement abnormality in the reaction field in a case where a reference measurement value being a measurement value obtained for a first measurement in the reaction field is lower than a comparison measurement value defined as the highest measurement value among measurement values obtained at a subsequent second and subsequent further measurements in the reaction field, wherein a first irradiation area (E1) irradiated during the first measurement from among the irradiation areas (E1, E2, E3) within the measurement target region corresponding to the reaction field, partially overlaps all other irradiation areas (E2, E3) irradiated during the measurements at the subsequent second and subsequent further times.
Method for combustion of gaseous or liquid fuel using a burner assembly for heating an industrial furnace , wherein fuel , cold primary air and preheated air are supplied to a pre-chamber, whereby the pre-chamber has a length and a diameter wherein the length is greater than the diameter, the fuel and cold primary air being supplied through at least one fuel feed and at least one primary air feed , wherein preheated combustion air is supplied to a combustion chamber connected to the furnace , which is downstream of said combustion chamber characterized in that the preheated air and/or the cold primary air are injected parallel to the fuel into the pre-chamber , wherein the cold primary air has a temperature of less than 150°C and the preheated air has a temperature more than 400 °C, that the fuel, the primary air and/ or the preheated air is/ are injected into the pre-chamber with an exit velocity in the range of 250 to 400 m/s and that excess air ratio (λ) of the primary air is between 0.1 to 0.6 or that excess air ratio (λ) in the pre-chamber is between 0.6 to 1.5.
Method for sensor-free determination of the rotor position of an electronically commutated multiple-phase EC motor with a rotor , a stator and comprising a commutation device for generating phase currents in the coil system of the stator with the step. a. applying a test signal in the coil system , and characterized in that the amplitude A of the test signal has an envelope curve variation which at first rises during a rising phase (PH an ) and then remains constant for a definite number of periods N A during a measurement phase (PH Mess ), further characterized by the steps: b. measuring the current value i in the strand during the measurement phase (PH Mess ) as a current response to the test signal, c. calculating |i| for determining the envelope curve of the current response and d. determining the rotor position γ 0 by evaluating the curve maxima of the envelope curve of the current response, wherein the effect is used that based on the excitation in step a) the largest current response is generated where the inductance is the lowest, wherein the rotor position γ 0 is established in reference to the lowest inductance. a. applying a test signal in the coil system , and characterized in that the amplitude A of the test signal has an envelope curve variation which at first rises during a rising phase (PH an ) and then remains constant for a definite number of periods N A during a measurement phase (PH Mess ), further characterized by the steps: b. measuring the current value i in the strand during the measurement phase (PH Mess ) as a current response to the test signal, c. calculating |i| for determining the envelope curve of the current response and d. determining the rotor position γ 0 by evaluating the curve maxima of the envelope curve of the current response, wherein the effect is used that based on the excitation in step a) the largest current response is generated where the inductance is the lowest, wherein the rotor position γ 0 is established in reference to the lowest inductance.
An optical communication connector , comprising a ferrule having retractable alignment pins that are actuatable between an extended position and a retracted position, wherein in the extended position, distal ends of the alignment pins are extended a first displacement from a front face of the ferrule, thereby causing the connector to be in a male gender configuration, and wherein in the retracted position, the distal ends of the alignment pins are retracted into alignment pin cavities in the ferrule by a distance greater than or equal to the first displacement, thereby causing the connector to be in a female gender configuration, the optical communication connector further comprising a polarity key having a configuration that can be altered to change a polarity of the connector, wherein the polarity key is located on an outer housing of the connector, and wherein the outer housing can be rotated around an axial length of the connector to effect the change in polarity. wherein in the extended position, distal ends of the alignment pins are extended a first displacement from a front face of the ferrule, thereby causing the connector to be in a male gender configuration, and wherein in the retracted position, the distal ends of the alignment pins are retracted into alignment pin cavities in the ferrule by a distance greater than or equal to the first displacement, thereby causing the connector to be in a female gender configuration,