mhurhangee/ep-ind-claims huggingface dataset:
A lighting module having at least one light source and configured to be fitted to a holder and a control interface module, wherein the lighting module further comprises: an outer surface having protruding portions (104, 104', 104") which, when being mounted to both the control interface module and the holder, are arranged to be fitted simultaneously to corresponding recesses (204, 204', 204", 304, 304', 304") arranged in both the control interface module and the holder, electrical contact elements adapted to fit to corresponding electrical connecting elements arranged in the holder for providing electrical power to the lighting module, and a control signal connector adapted to receive a control signal output interface of the control interface module for receiving a control signal to the lighting module, wherein the lighting module is still provided with electrical power via the electrical contact elements when the control interface module is not connected. an outer surface having protruding portions (104, 104', 104") which, when being mounted to both the control interface module and the holder, are arranged to be fitted simultaneously to corresponding recesses (204, 204', 204", 304, 304', 304") arranged in both the control interface module and the holder, electrical contact elements adapted to fit to corresponding electrical connecting elements arranged in the holder for providing electrical power to the lighting module, and a control signal connector adapted to receive a control signal output interface of the control interface module for receiving a control signal to the lighting module, wherein the lighting module is still provided with electrical power via the electrical contact elements when the control interface module is not connected.
An apparatus for decomposing dinitrogen monoxide, featuring: a gas inlet for supplying a gas containing dinitrogen monoxide; a first heat exchanging means for exchanging heat between a waste gas and the gas containing dinitrogen monoxide; a heating device for intermittently heating the gas containing dinitrogen monoxide; a fixed bed reactor, in which a catalyst is accommodated in order to decompose the dinitrogen monoxide in the gas containing dinitrogen monoxide; a gas outlet, through which the waste gas exiting the fixed bed reactor can be discharged via the heat exchanger; wherein the catalyst is suitable for the decomposition of dinitrogen monoxide at temperatures below 800°C; and wherein the fixed bed reactor is realized in the form of an adiabatic reactor, characterized in that the apparatus is realized in such a way that the reaction for catalytically decomposing the dinitrogen oxide takes place at atmospheric pressure, and in that a fan is provided in order to convey the gas containing dinitrogen monoxide over the fixed bed reactor. a gas inlet for supplying a gas containing dinitrogen monoxide; a first heat exchanging means for exchanging heat between a waste gas and the gas containing dinitrogen monoxide; a heating device for intermittently heating the gas containing dinitrogen monoxide; a fixed bed reactor, in which a catalyst is accommodated in order to decompose the dinitrogen monoxide in the gas containing dinitrogen monoxide; a gas outlet, through which the waste gas exiting the fixed bed reactor can be discharged via the heat exchanger; wherein the catalyst is suitable for the decomposition of dinitrogen monoxide at temperatures below 800°C; and wherein the fixed bed reactor is realized in the form of an adiabatic reactor, characterized in that the apparatus is realized in such a way that the reaction for catalytically decomposing the dinitrogen oxide takes place at atmospheric pressure, and in that a fan is provided in order to convey the gas containing dinitrogen monoxide over the fixed bed reactor.
A method for mobility management processing, wherein a User Equipment, UE, accesses a core network through a first Radio Access Type, RAT, and the method comprises: by a combined Mobility Management Entity, MME, obtaining (103, 203) current first location area information and current second location area information of the UE, wherein the combined MME integrates the functions of a MME and a Serving GPRS Support Node, SGSN, wherein the current second location area information derives from mapping of the current first location area information; and sending (103, 204) a first message that carries an activation indication to the UE according to the current first location area information and the current second location area information, wherein the activation indication is used for instructing the UE to activate Idle mode Signaling Reduction, ISR, in idle mode, wherein the method further comprises, by a Serving Gateway, S-GW: obtaining a second message sent by the combined MME, wherein: the second message carries a first control plane address, a second control plane address, a RAT type, a combined indication, and an activation indication; the activation indication is used for notifying the S-GW to activate the ISR; and the combined indication indicates to the S-GW that the second message is sent by the combined MME; and activating the ISR according to the activation indication, selecting a control plane address from the first control plane address and the second control plane address according to the RAT type, and sending a downlink message to the selected control plane address. by a combined Mobility Management Entity, MME, obtaining (103, 203) current first location area information and current second location area information of the UE, wherein the combined MME integrates the functions of a MME and a Serving GPRS Support Node, SGSN, wherein the current second location area information derives from mapping of the current first location area information; and sending (103, 204) a first message that carries an activation indication to the UE according to the current first location area information and the current second location area information, wherein the activation indication is used for instructing the UE to activate Idle mode Signaling Reduction, ISR, in idle mode, wherein the method further comprises, by a Serving Gateway, S-GW: obtaining a second message sent by the combined MME, wherein: the second message carries a first control plane address, a second control plane address, a RAT type, a combined indication, and an activation indication; the activation indication is used for notifying the S-GW to activate the ISR; and the combined indication indicates to the S-GW that the second message is sent by the combined MME; and activating the ISR according to the activation indication, selecting a control plane address from the first control plane address and the second control plane address according to the RAT type, and sending a downlink message to the selected control plane address.
Coating composition for coating wiper blade rubbers comprising, based on the total weight of the composition: 3.5 to 15 wt% of tetrafluoroethylene; 3.2 to 9.6 wt% of polyurethane; 1.6 to 6.0 wt% of polyhydromonomethylsiloxane oil or resin; 5.0 to 25.0 wt% of water-based resin; and solvent; wherein said composition is obtained by: preparing each component in the form of particles having a particle size of 50 to 500 nm; and adding said solvent. 3.5 to 15 wt% of tetrafluoroethylene; 3.2 to 9.6 wt% of polyurethane; 1.6 to 6.0 wt% of polyhydromonomethylsiloxane oil or resin; 5.0 to 25.0 wt% of water-based resin; and solvent; preparing each component in the form of particles having a particle size of 50 to 500 nm; and adding said solvent.
A method to maintain active queries, the method comprising: executing a query based on data items in at least two relations in a database, the executing including outputting a query result and control information associated with the query; recording the query result and the control information; and modifying the query result to reflect data items that were updated subsequent to the executing; characterized in that the method further comprises: prior to said modifying, receiving a notification that at least one of the data items has been updated subsequent to the executing; and wherein the modifying is responsive to the control information and the control information includes a sensitivity index for a join key of the query comprising a collection of entries, each entry including a sensitivity range for the join key, wherein the sensitivity range is a range of values of the join key that when modified can change the query result. executing a query based on data items in at least two relations in a database, the executing including outputting a query result and control information associated with the query; recording the query result and the control information; and modifying the query result to reflect data items that were updated subsequent to the executing; prior to said modifying, receiving a notification that at least one of the data items has been updated subsequent to the executing; and wherein the modifying is responsive to the control information and the control information includes a sensitivity index for a join key of the query comprising a collection of entries, each entry including a sensitivity range for the join key, wherein the sensitivity range is a range of values of the join key that when modified can change the query result.
A dielectric antenna, comprising: a dielectric block; a radiation electrode provided on the dielectric block; and a power supply terminal and a grounding terminal each electrically connected to the radiation electrode, wherein the dielectric block contains an organic polymer material, and the organic polymer material contains a liquid crystal polymer and polytetrafluoroethylene, characterised in that the added amount of the polytetrafluoroethylene is 2 to 15% by volume based on the volume of the dielectric block; and the liquid crystal polymer has a flow beginning temperature of no lower than 310°C and no higher than 335°C. a dielectric block; a radiation electrode provided on the dielectric block; and a power supply terminal and a grounding terminal each electrically connected to the radiation electrode, wherein the dielectric block contains an organic polymer material, and the organic polymer material contains a liquid crystal polymer and polytetrafluoroethylene, characterised in that the added amount of the polytetrafluoroethylene is 2 to 15% by volume based on the volume of the dielectric block; and the liquid crystal polymer has a flow beginning temperature of no lower than 310°C and no higher than 335°C.
A method performed by a wireless device configured for use in a non-terrestrial wireless communication system, the method comprising: configuring a number of parallel hybrid automatic repeat request, HARQ, processes as being available for use; discontinuously monitoring a downlink control channel, including monitoring the downlink control channel during an active time that is based on how many of the configured number of parallel HARQ processes are used, and responsive to a last available one of the configured number of parallel HARQ processes being put into use, starting a HARQ stall timer; and monitoring the downlink control channel responsive to expiration of the HARQ stall timer. configuring a number of parallel hybrid automatic repeat request, HARQ, processes as being available for use; discontinuously monitoring a downlink control channel, including monitoring the downlink control channel during an active time that is based on how many of the configured number of parallel HARQ processes are used, and responsive to a last available one of the configured number of parallel HARQ processes being put into use, starting a HARQ stall timer; and monitoring the downlink control channel responsive to expiration of the HARQ stall timer.
An address detective method for a parallel connection LED lighting system comprising a plurality of LED devices connected in parallel, characterized in that the address detective method comprises steps of: generating a testing signal corresponding to a sequence code in an address table, and transmitting the testing signal to the plurality of LED devices; determining whether a sum of consumption values of the plurality of LED devices increases by a first predetermined value; and when the sum does not increase by the first predetermined value, generating a reminder signal, and transmitting the reminder signal to the plurality of LED devices; determining whether the sum increases by a second predetermined value; when the sum increases by the second predetermined value, detecting an address code of a new LED device; and replacing an address code in the address table which corresponds to a current testing signal with the detected address code of the new LED device. generating a testing signal corresponding to a sequence code in an address table, and transmitting the testing signal to the plurality of LED devices; determining whether a sum of consumption values of the plurality of LED devices increases by a first predetermined value; and when the sum does not increase by the first predetermined value, generating a reminder signal, and transmitting the reminder signal to the plurality of LED devices; determining whether the sum increases by a second predetermined value; when the sum increases by the second predetermined value, detecting an address code of a new LED device; and replacing an address code in the address table which corresponds to a current testing signal with the detected address code of the new LED device.
A method for assessing the presence or absence of lesion(s) in an image, comprising a) estimating at least one subset of the image, whereby each subset is a candidate lesion area having a visibility, and estimating the background variation of the image in an area surrounding the candidate lesion area, wherein a visibility feature value of the visibility of a candidate lesion is the visibility of the edge of the candidate lesion area which is calculated as the orientated candidate lesion area edge gradient, b) correcting a visibility feature value of the visibility of the candidate lesion area with the background variation, comparing the corrected visibility feature value with a predetermined visibility threshold for lesions in that area, or correcting a predetermined visibility threshold for lesions in that area with the background variation, comparing a visibility feature value of the visibility of the candidate lesion area with the corrected predetermined visibility threshold, c) classifying the candidate lesion area detected in a) with respect to the threshold obtained in step b) as a lesion or not, d) optionally repeating steps a) to c) until all candidate lesion areas have been classified. a) estimating at least one subset of the image, whereby each subset is a candidate lesion area having a visibility, and estimating the background variation of the image in an area surrounding the candidate lesion area, wherein a visibility feature value of the visibility of a candidate lesion is the visibility of the edge of the candidate lesion area which is calculated as the orientated candidate lesion area edge gradient, b) correcting a visibility feature value of the visibility of the candidate lesion area with the background variation, comparing the corrected visibility feature value with a predetermined visibility threshold for lesions in that area, or correcting a predetermined visibility threshold for lesions in that area with the background variation, comparing a visibility feature value of the visibility of the candidate lesion area with the corrected predetermined visibility threshold, c) classifying the candidate lesion area detected in a) with respect to the threshold obtained in step b) as a lesion or not, d) optionally repeating steps a) to c) until all candidate lesion areas have been classified.
A method for compressing data, comprising obtaining a baseband signal; sampling obtained baseband signal to obtain several discrete baseband signals; calculating a phase and an amplitude of each of the discrete baseband signals, characterized in that said method further comprises: adjusting the amplitude of each of the discrete baseband signals respectively so that adjusted amplitude satisfies a preset peak-to-average ratio; and performing respectively for each of the discrete baseband signals operations of: bit-truncating the phase and the adjusted amplitude corresponding respectively to each of discrete baseband signals according to bit widths which are set respectively corresponding to the phase and the adjusted amplitude, and combining bit-truncated phase and bit-truncated amplitude into a compressed discrete baseband signal. obtaining a baseband signal; sampling obtained baseband signal to obtain several discrete baseband signals; calculating a phase and an amplitude of each of the discrete baseband signals, characterized in that said method further comprises: adjusting the amplitude of each of the discrete baseband signals respectively so that adjusted amplitude satisfies a preset peak-to-average ratio; and performing respectively for each of the discrete baseband signals operations of: bit-truncating the phase and the adjusted amplitude corresponding respectively to each of discrete baseband signals according to bit widths which are set respectively corresponding to the phase and the adjusted amplitude, and combining bit-truncated phase and bit-truncated amplitude into a compressed discrete baseband signal.
A control device for a doubly-fed induction generator in which a feedback linearization method is embedded, including a current control device with a doubly-fed induction generator controlled by a power conversion device composed of a system-side converter having an AC-DC conversion function and a generator-side converter having a DC-AC conversion function, whereby the control device divides and measures positive sequency components and negative sequency components from stator voltage and current, rotor voltage and current, and signals of stator magnetic flux and rotor magnetic flux of the doubly-fed induction generator, divides the rotor current into four signals by dividing d-axial current and q-axial current from the positive sequency component and the negative sequency component of the rotor current, and makes a positive sequency component controller (100, 200) and a negative sequency component controller (300, 400) for the rotor current separately control the four signals of the rotor current, using measured values of positive sequency components and negative sequency components from stator voltage and current, rotor voltage and current, and signals of stator magnetic flux and rotor magnetic flux, in which the positive sequency component controller (100, 200) is performed to linearize a relationship between the input-current of the rotor and the output-voltage of the rotor for the d-axis component and the q-axis component, characterized in that d-axial output v rd p of the positive sequency component controller (100, 200) is calculated as v rd p = R r i rd p − ω s − ω r σ L r i rq p + σ L r v 1 p where R r: stator resistance, i rd p, i rq p: d-axial component, q-axial component for positive sequency component of rotor current, ω s,ω r: stator slip angular velocity, rotor slip angular velocity, σ = 1 − L m 2 L r L s L r: rotor inductance, v 1 p: new state variable 1 of positive sequency component; and q-axial output V rq p of the positive sequency component controller (100, 200) is calculated as v rq p = R r i rq p + ω s − ω r L m 2 L s i ms p + ω s − ω r σ L r i rd p + σ L r v 2 p where i ms p:: positive sequency component magnetizing current, L s, L m: stator inductance, mutual inductance, v 2 p: new state variable 2 of positive sequency component. where R r: stator resistance, i rd p, i rq p: d-axial component, q-axial component for positive sequency component of rotor current, ω s,ω r: stator slip angular velocity, rotor slip angular velocity, L r: rotor inductance, v 1 p: new state variable 1 of positive sequency component; and q-axial output V rq p of the positive sequency component controller (100, 200) is calculated as where i ms p:: positive sequency component magnetizing current, L s, L m: stator inductance, mutual inductance, v 2 p: new state variable 2 of positive sequency component.
Process for recovering proteins from natural product mixtures composed of a press cake from rapeseed from oil recovery, in which a natural product mixture composed of the press cake from oil recovery from rapeseed is firstly finely comminuted and processed by addition of the liquid water to form a flowable slurry which in addition to oil constituents also contains proteins, lecithin, polyphenols and in particular husks as solid constituents, characterized by the following steps: i setting of the pH of the slurry in the alkaline range so that the pH is greater than pH = 9, ii addition of at least one water-soluble organic solvent in the form of a short-chain aliphatic alcohol selected from a group of alcohols consisting of methanol, ethanol and/or propanol after setting of the pH of the slurry in such a way that the addition of the alcohol brings about a shift in the solubility equilibrium and a displacement extraction occurs, where the resulting alcoholic-aqueous alkaline dispersion separates overall into the following four phases: an oil phase, an alcohol phase, a protein phase and a solids phase composed of husks and other solids, where the volume of alcohol added in step ii is selected so that the alcohol content of the aqueous dispersion after step ii is less than 45% by volume, and iii separation of a protein phase from the slurry after the addition of the water-soluble solvent in step ii, where a separation of the solids phase from the slurry is carried out before the protein phase is separated off. i setting of the pH of the slurry in the alkaline range so that the pH is greater than pH = 9, ii addition of at least one water-soluble organic solvent in the form of a short-chain aliphatic alcohol selected from a group of alcohols consisting of methanol, ethanol and/or propanol after setting of the pH of the slurry in such a way that the addition of the alcohol brings about a shift in the solubility equilibrium and a displacement extraction occurs, where the resulting alcoholic-aqueous alkaline dispersion separates overall into the following four phases: an oil phase, an alcohol phase, a protein phase and a solids phase composed of husks and other solids, where the volume of alcohol added in step ii is selected so that the alcohol content of the aqueous dispersion after step ii is less than 45% by volume, and iii separation of a protein phase from the slurry after the addition of the water-soluble solvent in step ii, where a separation of the solids phase from the slurry is carried out before the protein phase is separated off.
Step-action indexing mechanism, in particular for hand-held units for apportioned delivery of inhaler medicaments, having an annular housing encircled, around its longitudinal axis (x-x), by a scale ring which is moved in a stepwise manner by indexing fingers which pivot, counter to spring loading, in the direction of a plane perpendicular to the longitudinal axis (x-x) of the housing during the actuating stroke and thus via toothing formation means cause the scale ring to rotate, characterized in that an annular part, which is disposed in a rotationally fixed manner in the housing, has at least one slot which extends obliquely upward from the lower peripheral edge for the insertion of a guide pin of a step-action indexing-finger star, the step-action indexing fingers of which extend from a central hub, in opposite directions, directed obliquely upward in the form of a secant, and, during the actuating stroke, counter to their inherent spring stressing, enter, moving swiveling inward into the toothing formation in order to rotate the scale ring.