mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: an acquisition unit configured to acquire information about a directional beam, said information being provided from a neighbor base station of a base station , said directional beam serving as an interference source for a terminal apparatus among a plurality of directional beams which is able to be formed by the base station , wherein the terminal apparatus is connected to the neighbor base station ; and a control unit configured to decide an operation of the base station regarding transmission of a signal over the directional beam on the basis of the information, wherein the information refers to interference for the terminal apparatus ,wherein the control unit is configured to decide restriction or suspension on transmission of the signal over the directional beam as the operation and to execute said operation, characterized in that the control unit in configured to cancel the operation of the base station in a case where a cancellation condition is satisfied, said cancellation condition including a condition that an elapsed time from initiation of the operation exceeds a predetermined time. an acquisition unit configured to acquire information about a directional beam, said information being provided from a neighbor base station of a base station , said directional beam serving as an interference source for a terminal apparatus among a plurality of directional beams which is able to be formed by the base station , wherein the terminal apparatus is connected to the neighbor base station ; and a control unit configured to decide an operation of the base station regarding transmission of a signal over the directional beam on the basis of the information, wherein the information refers to interference for the terminal apparatus ,wherein the control unit is configured to decide restriction or suspension on transmission of the signal over the directional beam as the operation and to execute said operation, characterized in that the control unit in configured to cancel the operation of the base station in a case where a cancellation condition is satisfied, said cancellation condition including a condition that an elapsed time from initiation of the operation exceeds a predetermined time.
A system, comprising: a gas turbine system comprising a compressor component ; an airflow generation system for attachment to a rotatable shaft of the gas turbine system , the airflow generation system and the compressor component drawing in an excess flow of air through an air intake section ; a mixing area for receiving an exhaust gas stream produced by the gas turbine system ; an air extraction system for extracting at least a portion of the excess flow of air generated by the airflow generation system and the compressor component to provide bypass air, and for diverting the bypass air into the mixing area to reduce a temperature of the exhaust gas stream ; an exhaust processing system ; and an air diversion system for diverting a portion of the bypass air to the exhaust processing system ; wherein the exhaust processing system comprises a selective catalytic reduction (SCR) system for processing the reduced temperature exhaust gas stream . a gas turbine system comprising a compressor component ; an airflow generation system for attachment to a rotatable shaft of the gas turbine system , the airflow generation system and the compressor component drawing in an excess flow of air through an air intake section ; a mixing area for receiving an exhaust gas stream produced by the gas turbine system ; an air extraction system for extracting at least a portion of the excess flow of air generated by the airflow generation system and the compressor component to provide bypass air, and for diverting the bypass air into the mixing area to reduce a temperature of the exhaust gas stream ; an exhaust processing system ; and an air diversion system for diverting a portion of the bypass air to the exhaust processing system ; wherein the exhaust processing system comprises a selective catalytic reduction (SCR) system for processing the reduced temperature exhaust gas stream .
Milk, characterized in that its fatty acid composition comprises at least 1.8% palmitoleic acid, at least 33% palmitic acid, and in addition totally at most 2.0% trans fatty acids, and wherein said milk has been produced by a process wherein to a ruminant is given a milk composition changing amount of a complete or concentrate feed which contains conventional feed ingredients and conventional additives and other auxiliary agents, wherein the conventional feed ingredients and conventional additives and other auxiliary agents include at least 15-55% protein and 5-50% starch, wherein said feed contains inside and on the surface of feed raw material particles a fatty acid mixture, wherein in case of a complete feed, the fatty acid mixture is used in an amount of 1-6% by weight, and in case of a concentrate feed, the amount of fatty acid mixture is 2-10%, based on the total weight of the feed, wherein the proportion of saturated fatty acids is over 90% and the fatty acid mixture comprises at least 99% free fatty acids, at least 90% palmitic acid (C16:0), at most 10% stearic acid (C18:0), 0-3% other fatty acids, and is free of trans fatty acids, has a melting point of >60°C and a iodine value of ≤1, thereby at least partially protecting the starch and protein from microbial degradation in the rumen, wherein the amount of fatty acid mixture ingested via the feed per amount of produced milk is 60-300 g of the fatty acid mixture/10 kg milk, and the milk is recovered.
A curable coating composition comprising: (a) a biobased hydroxy urethane prepared by reacting a cyclic carbonate of general formula (I) wherein R 1 and R 2 are independently selected from hydrogen, halogen or a linear alkyl group having 1 to 6 carbon atoms, wherein the cyclic carbonate is selected from the group consisting of ethylene carbonate, propylene carbonate, and butylene carbonate with a fatty acid diamine of formula (II) wherein R' comprises a hydrophobic group having 16-54 carbon atoms, wherein the reaction is conducted in the absence of an isocyanate and wherein the reaction is conducted at a temperature in the range of about 20 °C to about 30°C; and b) a curing agent. (a) a biobased hydroxy urethane prepared by reacting a cyclic carbonate of general formula (I) wherein R 1 and R 2 are independently selected from hydrogen, halogen or a linear alkyl group having 1 to 6 carbon atoms, wherein the cyclic carbonate is selected from the group consisting of ethylene carbonate, propylene carbonate, and butylene carbonate with a fatty acid diamine of formula (II) wherein R' comprises a hydrophobic group having 16-54 carbon atoms, wherein the reaction is conducted in the absence of an isocyanate and wherein the reaction is conducted at a temperature in the range of about 20 °C to about 30°C; and wherein R 1 and R 2 are independently selected from hydrogen, halogen or a linear alkyl group having 1 to 6 carbon atoms, wherein the cyclic carbonate is selected from the group consisting of ethylene carbonate, propylene carbonate, and butylene carbonate with a fatty acid diamine of formula (II) wherein R' comprises a hydrophobic group having 16-54 carbon atoms, wherein the reaction is conducted in the absence of an isocyanate and wherein the reaction is conducted at a temperature in the range of about 20 °C to about 30°C; and b) a curing agent.
A sweeping robot, comprising: a chassis , and a jet dust raising structure installed on the chassis , wherein the jet dust raising structure has an air inlet , an air outlet , and a jet channel connected to the air inlet and the air outlet , the air inlet is configured for air flow to enter the jet channel , and the air outlet is arranged in a front side of a brush suction port of the sweeping robot, characterized in that : a bottom of the chassis is further provided with a pressurization bulge , and the pressurization bulge is arranged in a front side of the brush suction port , a plurality of the pressurization bulges are spaced along a length direction of the brush suction port , and the air outlet corresponds to a gap between two adjacent pressurization bulges . a chassis , and a jet dust raising structure installed on the chassis , wherein the jet dust raising structure has an air inlet , an air outlet , and a jet channel connected to the air inlet and the air outlet , the air inlet is configured for air flow to enter the jet channel , and the air outlet is arranged in a front side of a brush suction port of the sweeping robot, characterized in that : a bottom of the chassis is further provided with a pressurization bulge , and the pressurization bulge is arranged in a front side of the brush suction port , a plurality of the pressurization bulges are spaced along a length direction of the brush suction port , and the air outlet corresponds to a gap between two adjacent pressurization bulges .
A fusion method for touch messages, comprising: pushing touch messages of all touch fingers from at least two different touch screens into different buffer queues for buffering; intercepting head data of each buffer queue to generate a reported data array; acquiring states of the touch fingers according to the reported data array and packaging the states into multi-finger touch protocol data; and reporting the multi-finger touch protocol data to a system, characterized in that method further comprises: controlling a speed of reporting the multi-finger touch protocol data according to a preset time interval, wherein the preset time interval is calculated according to the following equation: t = 1 / f ∗ 1000 ∗ 1000 − Tc − Tr , wherein f is a sampling frequency of a touch panel, Tc is consumption time of obtaining the touch messages of the touch fingers, and Tr is consumption time of packaging and reporting the multi-finger touch protocol data. pushing touch messages of all touch fingers from at least two different touch screens into different buffer queues for buffering; intercepting head data of each buffer queue to generate a reported data array; acquiring states of the touch fingers according to the reported data array and packaging the states into multi-finger touch protocol data; and reporting the multi-finger touch protocol data to a system, controlling a speed of reporting the multi-finger touch protocol data according to a preset time interval, wherein the preset time interval is calculated according to the following equation: t = 1 / f ∗ 1000 ∗ 1000 − Tc − Tr , wherein f is a sampling frequency of a touch panel, Tc is consumption time of obtaining the touch messages of the touch fingers, and Tr is consumption time of packaging and reporting the multi-finger touch protocol data.
An apparatus for strapping packaged goods with at least one strapping band , comprising a band guiding means for guiding the strapping band , a conveying installation for deploying and retracting the band guiding means , a guide carriage which conjointly with the band guiding means by a nominal deployment length is deployable up to a deflection point, a length-limitation band which is connected to the guide carriage and extractable by the guide carriage , and an adjustment installation for adjusting the nominal deployment length of the guide carriage up to the deflection point, wherein the guide carriage has a deflection unit which is capable of deflecting the band guiding means at the deflection point, characterized in that the adjustment installation is specified for determining an actual deployment length of the guide carriage and, as a function of the nominal deployment length of the guide carriage , for controlling a fixing installation which stops the extraction movement of the length-limitation band .
Method for detecting agricultural field work performed by a vehicle , comprising: a) carrying a satellite navigation receiver on the vehicle while recording a sequence (FG) of position fixes (p i ) and corresponding time stamps (t i ) of the satellite navigation receiver; b) for a position fix (p i ) of the sequence: determining a group (G i ) of position fixes which lie in a predetermined local region (B) around the considered position fix (p i ); c) dividing the group (G i ) into at least two subgroups in which position fixes of the first subgroup have a minimum time interval (ΔT) relative to position fixes of the second subgroup, d) determining a first trajectory portion (tr 1 ) based on at least two position fixes of the first subgroup and a second trajectory portion (tr 2 ) based on at least two position fixes of the second subgroup; e) determining a feature vector (M i ) for the considered position fix (p i ) comprising at least an angle (α i ) between the first and the second trajectory portion (tr 1 , tr 2 ); and, f) when the feature vector (M i ) fulfils a predetermined threshold criterion (K) comprising a maximum angle (α max ), detecting the position fix (p i ) as a location of field work (F). a) carrying a satellite navigation receiver on the vehicle while recording a sequence (FG) of position fixes (p i ) and corresponding time stamps (t i ) of the satellite navigation receiver; b) for a position fix (p i ) of the sequence: determining a group (G i ) of position fixes which lie in a predetermined local region (B) around the considered position fix (p i ); c) dividing the group (G i ) into at least two subgroups in which position fixes of the first subgroup have a minimum time interval (ΔT) relative to position fixes of the second subgroup, d) determining a first trajectory portion (tr 1 ) based on at least two position fixes of the first subgroup and a second trajectory portion (tr 2 ) based on at least two position fixes of the second subgroup; e) determining a feature vector (M i ) for the considered position fix (p i ) comprising at least an angle (α i ) between the first and the second trajectory portion (tr 1 , tr 2 ); and, f) when the feature vector (M i ) fulfils a predetermined threshold criterion (K) comprising a maximum angle (α max ), detecting the position fix (p i ) as a location of field work (F).
A computer-implemented method of operating a software-defined network, the method comprising: obtaining (S310, S410) specifications of a plurality of data plane elements which together form a path through a data plane suitable for carrying traffic associated with a category of applications and/or services ; determining (S320, S420), based on the specifications, which one or more of a plurality of security profiles the path is capable of complying with; selecting (S330, S430) one of the one or more security profiles to be an initial security profile; and routing (S350, S450) traffic associated with the category of applications and/or services via the path in compliance with the initial security profile; characterised by : subsequently obtaining (S360, S460) an alert that network performance conditions have worsened; and responsive thereto: selecting (S370, S470) a different one of the plurality of security profiles, that is less resource-intensive than the initial security profile, to be a replacement security profile; and routing (S390, S490) traffic associated with the category of applications and/or services in compliance with the replacement security profile. obtaining (S310, S410) specifications of a plurality of data plane elements which together form a path through a data plane suitable for carrying traffic associated with a category of applications and/or services ; determining (S320, S420), based on the specifications, which one or more of a plurality of security profiles the path is capable of complying with; selecting (S330, S430) one of the one or more security profiles to be an initial security profile; and routing (S350, S450) traffic associated with the category of applications and/or services via the path in compliance with the initial security profile; characterised by : subsequently obtaining (S360, S460) an alert that network performance conditions have worsened; and selecting (S370, S470) a different one of the plurality of security profiles, that is less resource-intensive than the initial security profile, to be a replacement security profile; and routing (S390, S490) traffic associated with the category of applications and/or services in compliance with the replacement security profile.
A pressurised refill canister for a simulated cigarette , the refill canister containing a composition including a propellant, the canister having an outlet valve having a stem biased to a closed position by a first resilient member , characterised by , the stem having a maximum outer diameter of greater than 3mm and, wherein, within a circle defined at the outlet end having a diameter of 1.5mm, there is a feature present, which extends inwardly to a significant extent for at least part of its circumference.
A method of separating an electronic assembly from a multilayer stack of electronic components that includes the electronic assembly, a substrate , and a sacrificial anode portion that is located between the electronic assembly and the substrate and that operatively attaches the electronic assembly to the substrate, wherein the electronic assembly includes a cathode portion and a device portion , the method comprising: locating the multilayer stack within an electrically conductive fluid to form an electrochemical cell ; generating a potential difference between the cathode portion and the sacrificial anode portion such that the cathode portion forms a cathode of the electrochemical cell and the sacrificial anode portion forms an anode of the electrochemical cell; and separating the electronic assembly from the substrate by electrochemically oxidizing the sacrificial anode portion to dissolve the sacrificial anode portion within the electrically conductive fluid, characterized in that the electronic assembly further includes a sacrificial photovoltaic cell that is located between and in electrical and mechanical communication with the cathode portion and the sacrificial anode portion , and in that the generating includes: generating the potential difference with the sacrificial photovoltaic cell, and wherein the method further comprises: directing electromagnetic radiation onto the sacrificial photovoltaic cell to initiate the generating. locating the multilayer stack within an electrically conductive fluid to form an electrochemical cell ; generating a potential difference between the cathode portion and the sacrificial anode portion such that the cathode portion forms a cathode of the electrochemical cell and the sacrificial anode portion forms an anode of the electrochemical cell; and separating the electronic assembly from the substrate by electrochemically oxidizing the sacrificial anode portion to dissolve the sacrificial anode portion within the electrically conductive fluid, characterized in that the electronic assembly further includes a sacrificial photovoltaic cell that is located between and in electrical and mechanical communication with the cathode portion and the sacrificial anode portion , and in that the generating includes: generating the potential difference with the sacrificial photovoltaic cell, and wherein the method further comprises: directing electromagnetic radiation onto the sacrificial photovoltaic cell to initiate the generating. generating the potential difference with the sacrificial photovoltaic cell, and wherein the method further comprises: directing electromagnetic radiation onto the sacrificial photovoltaic cell to initiate the generating.
Use of a smoke condensate for browning and smoking a protein-containing food, the smoke condensate comprising: Phenols: 0,1 - 0,56 % Carbonyls: 3,5 - 13,0 % Polysorbate: 0 - 2,25 % and the rest water, wherein the smoke condensate is atomized and ejected into an air flow which is circulated in one chamber of an oven, wherein the air flow has a temperature of 100 - 200 °C. Phenols: 0,1 - 0,56 % Carbonyls: 3,5 - 13,0 % Polysorbate: 0 - 2,25 %
A drill bit , comprising: a bit body including a crown and a shank having a neck section ; the crown including a number of blade profiles (214a, 214b...214n), a number of cutters (216a-216m) being placed along each profile and a gamma ray sensor that is integrated into one or more of the cutters (216a-216m), the gamma ray sensor (240a-240c) configured to detect naturally occurring gamma rays from a formation being drilled. a bit body including a crown and a shank having a neck section ; the crown including a number of blade profiles (214a, 214b...214n), a number of cutters (216a-216m) being placed along each profile and a gamma ray sensor that is integrated into one or more of the cutters (216a-216m), the gamma ray sensor (240a-240c) configured to detect naturally occurring gamma rays from a formation being drilled.
A method of monitoring operations of an apparatus for taking out a molded product, comprising the steps of: measuring a cycle time required for one cycle of taking out a molded product from an injection molding machine; setting a target cycle time allowed by an administrator; comparing the cycle time measured every one cycle and the target cycle time; counting the number of times that the measured cycle times consecutively exceed the target cycle time, following the measured cycle time that has first exceeded the target cycle time, if it is determined that the measured cycle time has exceeded the target cycle time as a result of the comparing; and outputting a detection signal if the counted number of times that the measured cycle times consecutively exceed the target cycle time is more than n times where n is an integer of one or more. measuring a cycle time required for one cycle of taking out a molded product from an injection molding machine; setting a target cycle time allowed by an administrator; comparing the cycle time measured every one cycle and the target cycle time; counting the number of times that the measured cycle times consecutively exceed the target cycle time, following the measured cycle time that has first exceeded the target cycle time, if it is determined that the measured cycle time has exceeded the target cycle time as a result of the comparing; and outputting a detection signal if the counted number of times that the measured cycle times consecutively exceed the target cycle time is more than n times where n is an integer of one or more.