mhurhangee/ep-ind-claims huggingface dataset:
A method for avoiding interference in a terminal equipped with a first communication module and a second communication module, the method comprising: detecting interference caused by the second communication module to communication of the first communication module; transmitting, to a base station, an interference occurrence information message for controlling to avoid the interference; and controlling to avoid the interference by executing discontinuous reception based on a control command included in an interference occurrence information response message received from the base station, characterized in that the controlling comprises: determining, if the control command instructs the discontinuous reception, whether an uplink activity indicator in the control command is set; and performing, if the uplink activity indicator is set, uplink transmission only in an active time of the discontinuous reception. detecting interference caused by the second communication module to communication of the first communication module; transmitting, to a base station, an interference occurrence information message for controlling to avoid the interference; and controlling to avoid the interference by executing discontinuous reception based on a control command included in an interference occurrence information response message received from the base station, characterized in that the controlling comprises: determining, if the control command instructs the discontinuous reception, whether an uplink activity indicator in the control command is set; and performing, if the uplink activity indicator is set, uplink transmission only in an active time of the discontinuous reception. determining, if the control command instructs the discontinuous reception, whether an uplink activity indicator in the control command is set; and performing, if the uplink activity indicator is set, uplink transmission only in an active time of the discontinuous reception.
Covering system for silage preparation comprising at least one underlay film for closely hugging onto the surface of a fodder material, wherein the underlay film has at least one oxygen barrier layer, at least 50 wt.% whereof consists of materials of the group comprising polyamide, copolyamide, polyester, copolyester, polyethylene vinyl alcohol, polyvinyl alcohol and/or mixtures thereof, characterized in that the underlay film has at least one protective layer for protection of the oxygen barrier layer against substances of the silage, wherein the underlay film has a thickness of at most 60 μm and the oxygen barrier layer is thicker than the protective layer at least by the factor 1.2.
A composition for use in a method of treating a bleeding disorder in a mammal, wherein the composition comprises an adeno-associated virus vector comprising a VP1, VP2 and VP3 sequence of AAV-Rh74 set forth as SEQ ID NO: 1, 3 and 4 respectively as shown in Figure 3, said vector further comprising a heterologous polynucleotide sequence comprising a gene encoding a blood coagulation (clotting) factor, wherein the heterologous polynucleotide sequence is operably linked to an expression control element conferring transcription of said heterologous polynucleotide sequence wherein the expression control element is a promoter active in liver, and wherein the method comprises administering the adeno-associated virus vector to said mammal, thereby delivering or transferring the heterologous polynucleotide sequence into the mammal.
A sensor, comprising: a sensor chip including a plurality of pixels (10;30) of the backside illumination type, the plurality of pixels (10; 30) being arranged in an array in a pixel region of the sensor chip, and an isolation region, each pixel (10; 30) including: an avalanche photodiode (21c; 21-1, 21-2) to convert incident light into electric charge and including an anode and a cathode at a side opposite to a back surface side of the avalanche photodiode, wherein the cathode is in a well region of the sensor chip, wherein the isolation region isolates the well region (103 of each pixel of the plurality of pixels from the one or more adjacent pixels of the plurality of pixels (10; 30); characterised in that each pixel includes a negative fixed charge film formed between the isolation region and the well region at side surfaces of the isolation region, the negative fixed charge film inducing a hole accumulation region between the isolation region and the well region, wherein the hole accumulation region is physically and electrically connected to the anode; and in that the sensor further comprises: a logic chip stacked on the sensor chip including a circuit configured to process signals from the avalanche photodiodes (21c; 21-1, 21-2) and to supply electric power to the avalanche photodiodes (21c; 21-1, 21-2), wherein the sensor chip and the logic chip are electrically connected via respective wiring layers abutting each other. an avalanche photodiode (21c; 21-1, 21-2) to convert incident light into electric charge and including an anode and a cathode at a side opposite to a back surface side of the avalanche photodiode, wherein the cathode is in a well region of the sensor chip, wherein the isolation region isolates the well region (103 of each pixel of the plurality of pixels from the one or more adjacent pixels of the plurality of pixels (10; 30); characterised in that each pixel includes a negative fixed charge film formed between the isolation region and the well region at side surfaces of the isolation region, the negative fixed charge film inducing a hole accumulation region between the isolation region and the well region, wherein the hole accumulation region is physically and electrically connected to the anode; and in that the sensor further comprises: a logic chip stacked on the sensor chip including a circuit configured to process signals from the avalanche photodiodes (21c; 21-1, 21-2) and to supply electric power to the avalanche photodiodes (21c; 21-1, 21-2), wherein the sensor chip and the logic chip are electrically connected via respective wiring layers abutting each other. a logic chip stacked on the sensor chip including a circuit configured to process signals from the avalanche photodiodes (21c; 21-1, 21-2) and to supply electric power to the avalanche photodiodes (21c; 21-1, 21-2), wherein the sensor chip and the logic chip are electrically connected via respective wiring layers abutting each other.
A method implementing orthogonal frequency division multiple access, OFDMA, communication according to Institute of Electrical and Electronics Engineers, IEEE, 802.11 ax standard comprising: transmitting a downlink or uplink frame; wherein the IEEE 802.11ax standard adopts a tone plan of 80MHz channel, which comprises a first set of data and pilot tones, a second set of data and pilot tones, and a direct current, DC, region positioned between the first set of data and pilot tones and the second set of data and pilot tones; the first set of data and pilot tones consists of eighteen non-bifurcated 26-tone resource units, RUs, and the first thirteen tones of a bifurcated 26-tone RU; the second set of data and pilot tones consists of eighteen non-bifurcated 26-tone RUs and the remaining thirteen tones of the bifurcated 26-tone RU; and, the tone plan further comprises a leftover tone positioned between at least two 26-tone RUs. transmitting a downlink or uplink frame; wherein the IEEE 802.11ax standard adopts a tone plan of 80MHz channel, which comprises a first set of data and pilot tones, a second set of data and pilot tones, and a direct current, DC, region positioned between the first set of data and pilot tones and the second set of data and pilot tones; the first set of data and pilot tones consists of eighteen non-bifurcated 26-tone resource units, RUs, and the first thirteen tones of a bifurcated 26-tone RU; the second set of data and pilot tones consists of eighteen non-bifurcated 26-tone RUs and the remaining thirteen tones of the bifurcated 26-tone RU; and, the tone plan further comprises a leftover tone positioned between at least two 26-tone RUs.
Aircraft air conditioning system comprising: - an ambient air supply line having a first end connected to an ambient air inlet and a second end connected to a mixer of the aircraft air conditioning system so as to supply ambient air to the mixer, - a first compressor arranged in the ambient air supply line and being adapted to compress the ambient air flowing through the ambient air supply line, - a bleed air supply line having a first end for connecting to an engine or an auxiliary power unit and a second end for connecting to an aircraft environment, and - a bleed air turbine driven by the bleed air flowing through the bleed air supply line and being coupled to the first compressor so as to drive the first compressor, characterized in that - a backup line branches off from the bleed air supply line and opens into the ambient air supply line, wherein a backup valve is arranged in the backup line so as to control the flow of bleed air through the backup line, and wherein, during operation of the aircraft air conditioning system in a pure ambient air mode, the backup valve is configured to remain closed in order to prevent bleed air from entering the mixer. - an ambient air supply line having a first end connected to an ambient air inlet and a second end connected to a mixer of the aircraft air conditioning system so as to supply ambient air to the mixer, - a first compressor arranged in the ambient air supply line and being adapted to compress the ambient air flowing through the ambient air supply line, - a bleed air supply line having a first end for connecting to an engine or an auxiliary power unit and a second end for connecting to an aircraft environment, and - a bleed air turbine driven by the bleed air flowing through the bleed air supply line and being coupled to the first compressor so as to drive the first compressor, - a backup line branches off from the bleed air supply line and opens into the ambient air supply line, wherein a backup valve is arranged in the backup line so as to control the flow of bleed air through the backup line, and wherein, during operation of the aircraft air conditioning system in a pure ambient air mode, the backup valve is configured to remain closed in order to prevent bleed air from entering the mixer.
A valve assembly for the actuation of at least one consumer, comprising two consumer-side connections (A, B), a pump connection and a tank connection (P, T), having four control edges (C1-C4) which are hydraulically actuated by way of a respectively control connection and of which a first connects the pump connection and the first consumer-side connection, the second connects the pump connection and the second consumer-side connection, the third connects the first consumer-side connection and the tank connection and the fourth connects the second consumer-side connection and the tank connection, including a first pilot control valve and second pilot control valve for actuation of the control connections (c1-c4) of two respective ones of the control edges (C1-C4), characterised in that associated with the first and the second control edges (C1, C2) is a respective first and second switching valve (F1, F2; V1, V2) belonging to the valve assembly, wherein the first switching valve (F1, V1) connects a control connection of the first control edge selectively to the first pilot control valve or to the tank connection and the second switching valve (F2, V2) connects a control connection of the second control edge selectively to the second pilot control valve or to the tank connection to permit opening of both control edges (C3, C4) controlling the discharge from the consumer while at the same time the control edges (C1, C2) controlling the feed to the consumer remain closed and thus implement a floating state of the consumer, wherein the first switching valve is a first directional control valve which connects the first pilot control valve selectively to a respective one of the control connections (c1, c3) of its two associated control edges, in particular the first and third control edges (C1, C3), and that the second switching valve is a second directional control valve which connects the second pilot control valve selectively to a respective one of the control connections (c2, c4) of its two associated control edges, in particular the second and fourth control edges (C2, C4), or wherein the first switching valve (F1, V1) has a first control inlet connected to the second pilot control valve and the second switching valve (F2, V2) has a first control inlet connected to the first pilot control valve.
An image processing apparatus for processing input image data that corresponds to a pixel area on a printing medium in order to print in the pixel area by a relative movement of a plurality of printing element groups with respect to the pixel area, the plurality of printing element groups including at least a first printing element group in which a plurality of printing elements for ejecting predetermined color ink are arranged, and a second printing element group in which a plurality of printing elements for ejecting the predetermined color ink are arranged, the printing element in the second printing element group being able to eject ink in equal amount to the printing element in the first printing element group; comprising: a generation unit configured to generate, based on the input image data, first multi-valued image data that corresponds to at least the first printing element group and second multi-valued image data that corresponds to at least the second printing element group; characterized by further comprising a quantization unit configured to perform quantization processing of the second multi-valued image data based on the first multi-valued image data, and perform quantization processing of the first multi-valued image data based on the second multi-valued image data. a generation unit configured to generate, based on the input image data, first multi-valued image data that corresponds to at least the first printing element group and second multi-valued image data that corresponds to at least the second printing element group; characterized by further comprising a quantization unit configured to perform quantization processing of the second multi-valued image data based on the first multi-valued image data, and perform quantization processing of the first multi-valued image data based on the second multi-valued image data.
C 6 -C 18 -acylated derivative of hyaluronic acid according to a general formula: wherein R is H + or Na + and R 1 is H or -C(=O)C x H y or -C(=O)CH=CH-het, wherein x is an integer ranging between 5 and 17 and y is an integer ranging between 11 and 35 and C x H y is a linear or branched, saturated or unsaturated C 5 -C 17 chain and het is a heterocyclic or heteroaromatic group having a selectable content of N, S or O atoms, at least one repeating unit containing one or more R 1 -C(=O)C x H y or -C(=O)CH=CH-het groups, and wherein n ranges between 12 and 4000.
An earth leakage breaker comprising: a switching contact for switching an electric path; a leakage current detector for detecting leakage current of the electric path; a step-down circuit for stepping down power supplied from the electric path into power of low voltage; an earth leakage detection circuit supplied with power by the step-down circuit and for detecting earth leakage on the basis of a detection signal of the leakage current detector; a tripping device driven by the earth leakage detection circuit to open the switching contact; and a surge absorption circuit characterized by the surge absorption circuit being composed of a switching element (54a, 54e) and a first Zener diode connected in series to the switching element (54a, 54e) such that the anode of the Zener diode is connected to the negative input terminal of the step-down circuit and the other end of the surge absorption circuit is connected to the positive input terminal of the step-down circuit, the switching element (54a, 54e) comprising a gate connected to a voltage divider circuit such, that the switching element (54a, 54e) becomes conductive, when the input voltage of the step-down circuit reaches a predetermined value. a switching contact for switching an electric path; a leakage current detector for detecting leakage current of the electric path; a step-down circuit for stepping down power supplied from the electric path into power of low voltage; an earth leakage detection circuit supplied with power by the step-down circuit and for detecting earth leakage on the basis of a detection signal of the leakage current detector; a tripping device driven by the earth leakage detection circuit to open the switching contact; and a surge absorption circuit characterized by the surge absorption circuit being composed of a switching element (54a, 54e) and a first Zener diode connected in series to the switching element (54a, 54e) such that the anode of the Zener diode is connected to the negative input terminal of the step-down circuit and the other end of the surge absorption circuit is connected to the positive input terminal of the step-down circuit, the switching element (54a, 54e) comprising a gate connected to a voltage divider circuit such, that the switching element (54a, 54e) becomes conductive, when the input voltage of the step-down circuit reaches a predetermined value.
A floor covering system for playgrounds and sports surfaces, comprising a superstructure and a substructure, wherein the superstructure comprises a prefabricated floor covering plate, wherein at least one granulated cover made of a mixture comprising crushed rubber and an elastically curing plastic binder or comprising a natural rubber, characterised in that the substructure comprises a floor coverings grid, which is at least substantially formed from a mixture of crushed rubber and an elastically curing plastic binder.
A circuit for attenuating a signal received by a loudspeaker, the circuit comprising: a bidirectional switch configured to receive the signal and provide the signal to the loudspeaker; and a system controller configured to: monitor a characteristic of the signal; if the characteristic exceeds a threshold, provide a pulse width modulated, PWM, signal with duty cycle less than 100% to the bidirectional switch; and if the characteristic is below the threshold, provide the PWM signal with duty cycle of 100% to the bidirectional switch. a bidirectional switch configured to receive the signal and provide the signal to the loudspeaker; and a system controller configured to: monitor a characteristic of the signal; if the characteristic exceeds a threshold, provide a pulse width modulated, PWM, signal with duty cycle less than 100% to the bidirectional switch; and if the characteristic is below the threshold, provide the PWM signal with duty cycle of 100% to the bidirectional switch. monitor a characteristic of the signal; if the characteristic exceeds a threshold, provide a pulse width modulated, PWM, signal with duty cycle less than 100% to the bidirectional switch; and if the characteristic is below the threshold, provide the PWM signal with duty cycle of 100% to the bidirectional switch.
An actuation system comprising: a plurality of actuators; a common power drive unit for driving the actuators; a transmission line transmitting drive from the common drive unit to the plurality of actuators; a clutch arranged in the transmission line between the power drive unit and the plurality of actuators for selectively disconnecting the power drive unit from the plurality of actuators; at least one sensor for sensing an abnormal load condition in the actuation system; a clutch control, the at least one sensor being operatively coupled to the clutch control, the clutch control being configured such that when the at least one sensor senses an abnormal load condition, the clutch control is operative to disengage the clutch so as to disconnect the power drive unit from the plurality of actuators; and a brake operative to brake the actuators upon disengagement of the clutch; and characterised in that the clutch comprises the brake integrated into the clutch, thereby automatically operating the integrated brake upon disengagement of the clutch. a plurality of actuators; a common power drive unit for driving the actuators; a transmission line transmitting drive from the common drive unit to the plurality of actuators; a clutch arranged in the transmission line between the power drive unit and the plurality of actuators for selectively disconnecting the power drive unit from the plurality of actuators; at least one sensor for sensing an abnormal load condition in the actuation system; a clutch control, the at least one sensor being operatively coupled to the clutch control, the clutch control being configured such that when the at least one sensor senses an abnormal load condition, the clutch control is operative to disengage the clutch so as to disconnect the power drive unit from the plurality of actuators; and a brake operative to brake the actuators upon disengagement of the clutch; and characterised in that the clutch comprises the brake integrated into the clutch, thereby automatically operating the integrated brake upon disengagement of the clutch.
A process for producing acetic acid comprising: separating a reaction medium formed in a reactor in a flash vessel to form a liquid recycle and a vapor product stream; distilling the vapor product stream in a first column to obtain a side stream and a low boiling overhead vapor stream; condensing the low boiling overhead vapor stream and biphasically separating the condensed stream to form a heavy liquid phase and a light liquid phase; measuring hydrogen iodide concentration in the side stream; controlling recycle rate of the light liquid phase to the reactor in response to the measured hydrogen iodide to maintain hydrogen iodide concentration in the side stream of less than or equal to 50 wppm; and distilling the side stream in a second column to obtain a purified acetic acid product. separating a reaction medium formed in a reactor in a flash vessel to form a liquid recycle and a vapor product stream; distilling the vapor product stream in a first column to obtain a side stream and a low boiling overhead vapor stream; condensing the low boiling overhead vapor stream and biphasically separating the condensed stream to form a heavy liquid phase and a light liquid phase; measuring hydrogen iodide concentration in the side stream; controlling recycle rate of the light liquid phase to the reactor in response to the measured hydrogen iodide to maintain hydrogen iodide concentration in the side stream of less than or equal to 50 wppm; and distilling the side stream in a second column to obtain a purified acetic acid product.