mhurhangee/patent-ind-claim-en huggingface dataset:
System comprising a furniture part control module and an external monitoring device , wherein the furniture part control module is designed to control a movable furniture part of an item of furniture , wherein the furniture part control module has a transmitting and receiving unit , wherein the transmitting and receiving unit comprises a data interface , wherein the data interface is designed to receive information from the external monitoring device and to transmit information to the external monitoring device , wherein the data interface is designed to wirelessly receive or transmit the information, wherein the furniture part control module has a monitoring module , wherein the monitoring module controls the movable furniture part on the basis of the information received from the monitoring device via the data interface , wherein the furniture part control module has an identification element which can be used to identify the furniture part control module , wherein the identification element is in the form of an RFID element, or wherein the identification element is present as an RFID element and as a sign which can be optoelectronically read, characterized in that the monitoring device is designed to read information from the identification element or to receive information from the identification element , wherein the system is designed to compare the read or received information with a database in order to thus verify an authenticity of the furniture part control module and, if the furniture part control module is authentic, to allow the furniture part control module to be incorporated in the system, wherein the monitoring device has a monitoring unit and a data interface , wherein the data interface is designed to receive information from the furniture part control module and to transmit information to the furniture part control module , wherein the monitoring unit has a storage module for storing information, wherein the monitoring device has an input unit for a user to specify information that is intended to be transmitted to the furniture part control module .
Coupling element for coupling a locking bar of a piece of furniture having a plurality of pull-out furniture parts to an activator coupled directly or indirectly to one of the pull-out furniture parts , comprising - a housing which can be placed against the locking bar , - a driver which is displaceably mounted in the housing and is operatively connected to the locking bar for locking a pull-out movement of the other furniture part or the other furniture parts , - wherein the housing has a guide track in which a pin of the driver is guided, characterized in that - the housing has at least one spring element serving to fix the housing relative to the locking bar , so that by coupling the furniture part to the coupling element by simply pushing in the pull-out furniture part with the activator arranged therein in the direction of insertion the same is pushed against the driver of the coupling element in such a way that the coupling element itself, by fixing the latter via a spring element , can give way resiliently to the activator attached to the pull-out furniture part , thus enabling simple and safe coupling. - a housing which can be placed against the locking bar , - a driver which is displaceably mounted in the housing and is operatively connected to the locking bar for locking a pull-out movement of the other furniture part or the other furniture parts , - wherein the housing has a guide track in which a pin of the driver is guided, - the housing has at least one spring element serving to fix the housing relative to the locking bar , so that by coupling the furniture part to the coupling element by simply pushing in the pull-out furniture part with the activator arranged therein in the direction of insertion the same is pushed against the driver of the coupling element in such a way that the coupling element itself, by fixing the latter via a spring element , can give way resiliently to the activator attached to the pull-out furniture part , thus enabling simple and safe coupling.
A bearing cage formed from a single piece of wire bent into shape, the cage comprising: a first axial end ring ; a second axial end ring including a distal end of the single piece of wire; a plurality of axially-extending bridge portions between the first and second axial end rings ; and a plurality of circumferentially-extending connection portions interconnecting adjacent bridge portions , the connection portions alternately positioned adjacent the first and second axial end rings . a first axial end ring ; a second axial end ring including a distal end of the single piece of wire; a plurality of axially-extending bridge portions between the first and second axial end rings ; and a plurality of circumferentially-extending connection portions interconnecting adjacent bridge portions , the connection portions alternately positioned adjacent the first and second axial end rings .
Method for detecting an icing condition of a wind turbine, comprising the following steps: a. Identifying a system condition of the wind turbine in which a first anemometer of the wind turbine is stationary and in which the rotational speed of a rotor of the wind turbine is lower than a predefined first rotational speed threshold value; b. Accelerating the rotor to a rotational speed above the first rotational speed threshold value; c. Testing the condition of the first anemometer , wherein an icing signal is generated if the first anemometer is stationary. a. Identifying a system condition of the wind turbine in which a first anemometer of the wind turbine is stationary and in which the rotational speed of a rotor of the wind turbine is lower than a predefined first rotational speed threshold value; b. Accelerating the rotor to a rotational speed above the first rotational speed threshold value; c. Testing the condition of the first anemometer , wherein an icing signal is generated if the first anemometer is stationary.
A connecting kit for fastening precast panel elements, constituting at least two-piece connection, one piece of which is positioned in the structure of one precast element and the other piece is positioned in the structure of an adjacent precast element, whereby such kit is fitted with a plug socket and a shape-matched connector which - by fitting in into the socket in use - integrates the two precast elements, wherein the kit consists of two plug sockets (A, B), adapted to be respectively embedded in one of the two panel elements to be connected with each other (Pa, Pb) and one flat plug connector (S) resembling a very low, wide and thick letter U with the profile of a sinusoidally bent plane, whereby the cross-section of the connector has the shape of a wedge tapering towards the end that is hammered into plug sockets (A, B), while each of the plug sockets (A, B) is fitted with a rectangular flat element situated in the part of the socket that is located in the external plane of the precast panel element to be connected (Pa, Pb) and has an internal gap whose shape matches in use a half of the plug connector (S), whereas the part of the plug socket (A, B) located inside the element to be connected has a semicircular cavity to accommodate a reinforcing bar . - integrates the two precast elements, wherein the kit consists of two plug sockets (A, B), adapted to be respectively embedded in one of the two panel elements to be connected with each other (Pa, Pb) and one flat plug connector (S) resembling a very low, wide and thick letter U with the profile of a sinusoidally bent plane, whereby the cross-section of the connector has the shape of a wedge tapering towards the end that is hammered into plug sockets (A, B), while each of the plug sockets (A, B) is fitted with a rectangular flat element situated in the part of the socket that is located in the external plane of the precast panel element to be connected (Pa, Pb) and has an internal gap whose shape matches in use a half of the plug connector (S), whereas the part of the plug socket (A, B) located inside the element to be connected has a semicircular cavity to accommodate a reinforcing bar .
A medical device handle for percutaneous delivery of a medical device implant , comprising: an elongated handle housing having a proximal end, a distal end, and a longitudinal axis extending from the proximal end to the distal end; a rotatable collar disposed about the proximal end of the elongated handle housing ; and a rotatable control knob disposed about a proximal portion of the rotatable collar ; wherein the rotatable control knob is configured to actuate the medical device implant between a delivery configuration, a deployed configuration, and a released configuration; characterized in that the rotatable collar includes a first internally-facing longitudinal slot extending less than a full length of the rotatable collar and terminating proximally at a distally-facing wall of an internally-facing circumferentially-oriented slot . an elongated handle housing having a proximal end, a distal end, and a longitudinal axis extending from the proximal end to the distal end; a rotatable collar disposed about the proximal end of the elongated handle housing ; and a rotatable control knob disposed about a proximal portion of the rotatable collar ; wherein the rotatable control knob is configured to actuate the medical device implant between a delivery configuration, a deployed configuration, and a released configuration; characterized in that the rotatable collar includes a first internally-facing longitudinal slot extending less than a full length of the rotatable collar and terminating proximally at a distally-facing wall of an internally-facing circumferentially-oriented slot .
A starter culture for producing sourdough, comprising a mixture of Lactobacillus paracasei BSB 2 DSM 28104 and Lactobacillus gallinarum BSB 1 DSM 28103.
A process for the conversion of a solid lignocellulosic material containing hemicellulose, cellulose and lignin, the process including the following steps: (a) hydrolyzing, at a temperature equal to or less than 40 °C, preferably equal to or less than 30 °C, at least part of the hemicellulose and at least part of the cellulose of the solid lignocellulosic material with an aqueous hydrochloric acid solution, containing in the range from equal to or more than 40.0 wt. % to equal to or less than 51.0 wt. % hydrochloric acid, based on the combined weight amount of water and hydrochloric acid in such aqueous hydrochloric acid solution; yielding a hydrochloric acid-containing, aqueous hydrolysate solution; (b) separating the hydrochloric acid-containing, aqueous hydrolysate solution from the lignin; and (c) heating at least part of the hydrochloric acid-containing, aqueous hydrolysate solution to a temperature equal to or more than 60°C, yielding a product solution containing 5-(chloromethyl)furfural, and extracting the 5-(chloromethyl)furfural from such product solution into an extraction solvent. (a) hydrolyzing, at a temperature equal to or less than 40 °C, preferably equal to or less than 30 °C, at least part of the hemicellulose and at least part of the cellulose of the solid lignocellulosic material with an aqueous hydrochloric acid solution, containing in the range from equal to or more than 40.0 wt. % to equal to or less than 51.0 wt. % hydrochloric acid, based on the combined weight amount of water and hydrochloric acid in such aqueous hydrochloric acid solution; yielding a hydrochloric acid-containing, aqueous hydrolysate solution; (b) separating the hydrochloric acid-containing, aqueous hydrolysate solution from the lignin; and (c) heating at least part of the hydrochloric acid-containing, aqueous hydrolysate solution to a temperature equal to or more than 60°C, yielding a product solution containing 5-(chloromethyl)furfural, and extracting the 5-(chloromethyl)furfural from such product solution into an extraction solvent.
One or more computer-readable media having instructions that, when executed, cause a user equipment, UE , to: acquire downlink synchronization and system information from an evolved node B, eNB ; identify, based on the downlink synchronization and system information, a resource pool that is provided in an uplink part of a frame for uplink transmissions, the resource pool being non-UE-specific; transmit an activation signal to the eNB to activate the resource pool for periodic uplink transmission; upon receipt of a response to the activation signal that indicates activation of the resource pool: randomly select one or more transmission resources of the resource pool ; and transmit machine-type communication, MTC, data in the one or more transmission resources. acquire downlink synchronization and system information from an evolved node B, eNB ; identify, based on the downlink synchronization and system information, a resource pool that is provided in an uplink part of a frame for uplink transmissions, the resource pool being non-UE-specific; transmit an activation signal to the eNB to activate the resource pool for periodic uplink transmission; upon receipt of a response to the activation signal that indicates activation of the resource pool: randomly select one or more transmission resources of the resource pool ; and transmit machine-type communication, MTC, data in the one or more transmission resources. randomly select one or more transmission resources of the resource pool ; and transmit machine-type communication, MTC, data in the one or more transmission resources.
A polyester resin obtained by using an aluminum compound and a phosphorus compound as a polymerization catalyst, containing greater than or equal to 85% by mol of an ethylene terephthalate structural unit, wherein the content of an aluminum-based contaminant is less than or equal to 100 ppb, and the content of a phosphorus compound represented by the following (B) structure is 5 to 11 ppm, with respect to the mass of the polyester resin, wherein the content of the aluminum-based contaminant and the content of the phosphorous compound represented by the following (B) structure are determined according to the methods indicated in the description, wherein the phosphorous compound represented by (B) is a thermolysis product at the time of polymerization of the polyester using an aluminum compound and a phosphorous compound represented by the following chemical formula (A) as a catalyst: (wherein in (Formula A), X1 and X2 each represent hydrogen, an alkyl group having 1 to 4 carbon atoms, or a metal having a valence of greater than or equal to 1), and wherein the polyester resin has a Tc1 of greater than or equal to 170°C and a Tc2 of less than or equal to 175°C, wherein Tc1 and Tc2 are determined according to the method indicated in the description, wherein Tc1 is the crystallization temperature at the time of elevating the temperature, and Tc2 is the crystllization temperature at the time of reducing the temperature. (wherein in (Formula A), X1 and X2 each represent hydrogen, an alkyl group having 1 to 4 carbon atoms, or a metal having a valence of greater than or equal to 1), and wherein the polyester resin has a Tc1 of greater than or equal to 170°C and a Tc2 of less than or equal to 175°C, wherein Tc1 and Tc2 are determined according to the method indicated in the description, wherein Tc1 is the crystallization temperature at the time of elevating the temperature, and Tc2 is the crystllization temperature at the time of reducing the temperature.
Apparatus, comprising first means for checking configured to check if a contention based random access is to be performed for a reason different from a beam failure recovery; means for monitoring configured to monitor if a received first reference signal has a received power above a set power threshold and/or a received quality above a set quality threshold; second means for checking configured to check if a reception device is configured to receive a downlink control signal on a first beam corresponding to the first reference signal; means for instructing configured to instruct a transmission device to transmit a preamble of the contention based random access on a first beam if the contention based random access is to be performed for the reason, the received first reference signal has the received power above the set power threshold and/or the received quality above the set quality threshold, and the reception device is configured to receive the downlink control signal on the first beam. first means for checking configured to check if a contention based random access is to be performed for a reason different from a beam failure recovery; means for monitoring configured to monitor if a received first reference signal has a received power above a set power threshold and/or a received quality above a set quality threshold; second means for checking configured to check if a reception device is configured to receive a downlink control signal on a first beam corresponding to the first reference signal; means for instructing configured to instruct a transmission device to transmit a preamble of the contention based random access on a first beam if the contention based random access is to be performed for the reason, the received first reference signal has the received power above the set power threshold and/or the received quality above the set quality threshold, and the reception device is configured to receive the downlink control signal on the first beam.
A heat exchanger comprising a flow path layer in which a first flow path which has a tubular shape extending in a first direction and through which a first fluid flows and a second flow path which has a tubular shape extending in a second direction intersecting the first direction and through which a second fluid exchanging heat with the first fluid flows are disposed in the same layer, wherein each of the first flow path and the second flow path is formed such that both of a flow path width and a flow path height are reduced and expanded along an extending direction of the flow path, the heat exchanger being characterized in that the first flow path and the second flow path intersect each other in the same layer in first portions of which both of the flow path width and the flow path height are reduced, due to displacement of the first portions in a third direction intersecting the first direction and the second direction. wherein each of the first flow path and the second flow path is formed such that both of a flow path width and a flow path height are reduced and expanded along an extending direction of the flow path, the heat exchanger being characterized in that the first flow path and the second flow path intersect each other in the same layer in first portions of which both of the flow path width and the flow path height are reduced, due to displacement of the first portions in a third direction intersecting the first direction and the second direction.
A method of configuring a lighting system comprising a first light switch for controlling a first lighting device and a second light switch for controlling a second lighting device , the method comprising: - receiving a signal indicative of an activation of a first user input element of the first light switch , wherein the activation is indicative of a selection of a first light scene, - controlling the first lighting device according to the first light scene, and - associating a second light scene with a second user input element of the second light switch based on the selected first light scene, such that when the second user input element is activated by a user, the second lighting device is controlled according to the second light scene, characterised in that the method further comprises: - receiving a signal indicative of a second activation of the first user input element or another user input element of the first light switch , wherein the second activation is indicative of a selection of a secondary first light scene, - controlling the first lighting device according to the secondary first light scene, and - associating a secondary second light scene with the second user input element based on the selected secondary first light scene, such that when the second user input element is activated by a user, the second lighting device is controlled according to the secondary second light scene. - receiving a signal indicative of an activation of a first user input element of the first light switch , wherein the activation is indicative of a selection of a first light scene, - controlling the first lighting device according to the first light scene, and - associating a second light scene with a second user input element of the second light switch based on the selected first light scene, such that when the second user input element is activated by a user, the second lighting device is controlled according to the second light scene, - receiving a signal indicative of a second activation of the first user input element or another user input element of the first light switch , wherein the second activation is indicative of a selection of a secondary first light scene, - controlling the first lighting device according to the secondary first light scene, and - associating a secondary second light scene with the second user input element based on the selected secondary first light scene, such that when the second user input element is activated by a user, the second lighting device is controlled according to the secondary second light scene.
Coated inorganic expanding agent particles comprising a core or a plurality of cores of an inorganic expanding agent that is capable to swell in contact with water, and a sol/gel-formed coating comprising a mixed oxide of two or more metals and/or metalloids.
A method, performed by a management node (130; 131), for supporting management of network nodes (120-123; 124-127) comprised in a communication network , wherein the method comprises: - receiving (501a-b; 601), from at least some of said network nodes , Link Layer Discovery Protocol, "LLDP", information, which LLDP information is information obtained by said nodes based on one or more LLDP messages received from neighboring network nodes (120-124) that are neighbouring said at least some network nodes , the LLDP information comprising security status information regarding said neigbouring network nodes (120-124), wherein the security status information regarding a neighbouring network node indicates if the neighbouring network node has been verified to be authentic and indicates if the neighbouring network node has been verified to be not authentic. - receiving (501a-b; 601), from at least some of said network nodes , Link Layer Discovery Protocol, "LLDP", information, which LLDP information is information obtained by said nodes based on one or more LLDP messages received from neighboring network nodes (120-124) that are neighbouring said at least some network nodes , the LLDP information comprising security status information regarding said neigbouring network nodes (120-124), wherein the security status information regarding a neighbouring network node indicates if the neighbouring network node has been verified to be authentic and indicates if the neighbouring network node has been verified to be not authentic.
A method for diagnosing a lymphatic anomaly in a human patient comprising detecting a single nucleotide variant (SNV) in one or more of, PIK3R4, PIK3R6, mTOR, and ARAF in a nucleic acid in an isolated biological sample obtained from the patient; wherein the presence of said SNV is indicative of a lymphatic anomaly and wherein the SNV is selected from a) c.3481A>G:p.S1161G in PIK3R4; b) c.1393-7C>T in PIK3R6; c) c.6818A>G:p.P2273L in mTOR; and d) c.640T>C:p.S214P in ARAF. a) c.3481A>G:p.S1161G in PIK3R4; b) c.1393-7C>T in PIK3R6; c) c.6818A>G:p.P2273L in mTOR; and d) c.640T>C:p.S214P in ARAF.
A composition comprising CO 2 , a lubricant and a compound selected from HFC-1225ye, HFC-1234yf, and HFC-1234ye, wherein the lubricant is selected from the group consisting of polyol esters, polyalkylene glycols, polyvinyl ethers, mineral oils, alkylbenzenes, synthetic paraffins, synthetic naphthenes, and polyalphaolefins.