mhurhangee/patent-ind-claim-en huggingface dataset:
A rotor assembly for a gas turbine engine comprising: a rotatable hub including a main body extending along a longitudinal axis (X), and including an array of annular flanges extending about an outer periphery of the main body to define an array of annular channels along the longitudinal axis (X); an array of airfoils circumferentially distributed about the outer periphery , each one of the airfoils including an airfoil section extending from a root section received in the annular channels , the airfoil section extending between a leading edge (LE) and a trailing edge (TE) in a chordwise direction (C) and extending between a tip portion and the root section in a radial direction (R), and the airfoil section defining a pressure side (P) and a suction side (S) separated in a thickness direction (T); and an array of platforms releasably secured to the hub , wherein each of the platforms includes a platform body , and the platform body is mechanically attached to the hub , characterised in that : each of the platforms (370; 470) includes opposed rows of resilient support members that abut against adjacent airfoils of the array of airfoils to oppose movement of the respective airfoil section in the circumferential direction (C); and the airfoil section includes a metallic sheath that receives a composite core , and the core includes first and second ligaments received in respective internal channels defined by the sheath such that the first and second ligaments are spaced apart along the root section with respect to the longitudinal axis (X). a rotatable hub including a main body extending along a longitudinal axis (X), and including an array of annular flanges extending about an outer periphery of the main body to define an array of annular channels along the longitudinal axis (X); an array of airfoils circumferentially distributed about the outer periphery , each one of the airfoils including an airfoil section extending from a root section received in the annular channels , the airfoil section extending between a leading edge (LE) and a trailing edge (TE) in a chordwise direction (C) and extending between a tip portion and the root section in a radial direction (R), and the airfoil section defining a pressure side (P) and a suction side (S) separated in a thickness direction (T); and an array of platforms releasably secured to the hub , wherein each of the platforms includes a platform body , and the platform body is mechanically attached to the hub , each of the platforms (370; 470) includes opposed rows of resilient support members that abut against adjacent airfoils of the array of airfoils to oppose movement of the respective airfoil section in the circumferential direction (C); and the airfoil section includes a metallic sheath that receives a composite core , and the core includes first and second ligaments received in respective internal channels defined by the sheath such that the first and second ligaments are spaced apart along the root section with respect to the longitudinal axis (X).
Method (S100) for use in a Lawful Intercept system comprising at least one Intercept Access Point, IAP, for intercepting communication traffic using User Datagram Protocol, UDP, and Transmission Control Protocol, TCP, packets in one or more communications networks and delivering said communication traffic as Communication Content, CC, to a Law Enforcement Agency, LEA, via a mediation functionality controlled by an administration functionality, wherein the method comprises: - receiving (S110) CC as UDP and TCP; - storing (S120) UDP and TCP CC in a buffer arrangement; - forwarding (S130) TCP CC or UDP CC via a first CC handover interface or via a second CC handover interface separated from the first CC handover interface to the LEA, wherein said method further comprises a synchronization process (S200) for retransmission of lost UDP packets, said process comprises the steps of: - receiving (S210) a request for synchronization of lost UDP CC packets; - achieving (S220) the lost UDP CC packets from the buffer arrangement; - sending (S230) the achieved lost UDP CC packets over the first CC handover interface as TCP CC packets. - receiving (S110) CC as UDP and TCP; - storing (S120) UDP and TCP CC in a buffer arrangement; - forwarding (S130) TCP CC or UDP CC via a first CC handover interface or via a second CC handover interface separated from the first CC handover interface to the LEA, wherein said method further comprises a synchronization process (S200) for retransmission of lost UDP packets, said process comprises the steps of: - receiving (S210) a request for synchronization of lost UDP CC packets; - achieving (S220) the lost UDP CC packets from the buffer arrangement; - sending (S230) the achieved lost UDP CC packets over the first CC handover interface as TCP CC packets.
A data centre including a humidifier unit arranged to provide cooling air for use in cooling IT equipment in the data centre, characterised in that the humidifier unit comprises in a single unit two or more sets of removable sections that in use form a wetted matrix system for humidifying air flowing along a flow path from one side of the wetted matrix system to the other , the two or more sets of removable sections including a first set of one or more removable sections and a second set of one or more removable sections, one or more water tanks for holding water, and two or more pumps , each pump being configured to pump water held in at least one such water tank to at least one of the two or more sets of removable sections , and in that the humidifier unit is configured to operate in a first mode of operation in which all of the sets of removable sections are wetted by water from the one or more water tanks by means of operation of at least one of the two or more pumps , the first mode of operation corresponding to a maximum level of humidification required of the humidifier unit during normal operation, and the humidifier unit is configured to operate in a second mode of operation both in the event of: (a) one or more, but not all, sets of removable sections being removed or otherwise rendered non-operational, the pumps otherwise being unaffected, and (b) one or more, but not all, pumps being removed or otherwise rendered non-operational, the removable sections otherwise being unaffected, such that in the second mode of operation the humidification unit is still able to deliver said maximum level of humidification. (a) one or more, but not all, sets of removable sections being removed or otherwise rendered non-operational, the pumps otherwise being unaffected, and (b) one or more, but not all, pumps being removed or otherwise rendered non-operational, the removable sections otherwise being unaffected, such that in the second mode of operation the humidification unit is still able to deliver said maximum level of humidification.
Electrical machine comprising a winding carrier having a plurality of grooves and carrying at least one winding (3, 4, 28-30, 37-51), the winding (3, 4, 28-30, 37-51) being formed by a respective conductor having a plurality of groove portions , each of which passes through one of the grooves of the winding carrier and is conductively connected by connection portions (33-36, 55, 75, 76) of the conductor that lie outside the grooves , wherein, when current flows through the respective conductor from a first connection point to a second connection point of the respective winding (3, 4, 28-30, 37-51), the current is led about an axis of rotation of the electrical machine in all connection portions (33-36, 55, 75, 76) that lie in a first conductor portion of this conductor , which comprises a plurality of connection portion (33 - 36, 55, 75, 76), with a first direction of revolution , and in all connection portions (33-36, 55, 75, 76) that lie in a second conductor portion of this conductor , which comprises a plurality of connection portions (33-36, 55, 75, 76), with a second direction of revolution that is opposite to the first direction of revolution , the respective conductor being formed by a plurality of conductor clips which are conductively connected to one another and which each form two of the groove portions and a coupling portion that connects the groove portions , the coupling portion forming a first connection portion for these groove portions , a respective second connection portion being formed by a respective free end (9-15) of the conductor clip which is bent in a direction circumferential to the winding carrier and is conductively connected to a free end (9-15) of a further conductor clip , characterised in that the conductor has at least one groove portion that is connected as a reversing groove portion (68-70) via two connection portions (33-36, 55, 75, 76) to the further groove portions of the conductor , which, starting from the respective reversing groove portion (68-70), are led in the same direction circumferential to the winding carrier , wherein a stack of a plurality of groove portions stacked in the radial direction is arranged in each of the grooves , wherein, apart from one or two reversing groove portions (68-70) of the respective conductor , the free ends (9-15) of the conductor clips , which extend the groove portions arranged in the same radial position in the stacks , are bent in the same direction circumferential to the winding carrier .
A producing method of a die-cast product of a spherical graphite cast iron; the method comprising a melting process, in which raw material comprising cast iron is melted by heating; a spheroidizing process; an inoculation process in which an inoculation is carried out by adding, for example, a Fe-Si inoculum containing a small amount of elements (Ca, Ba, Al, etc.) having a strong affinity for N to the molten metal; and a casting process in which a casting into a metal mold is carried out; wherein the spheroidizing agent has a C amount of about 2.2 mass% , a total nitrogen amount N being 150 ppm (by mass) or less, and a nitrogen amount generated during melting being 15 ppm (by mass) or less using the nitrogen analysis method as described in the description. a spheroidizing process; an inoculation process in which an inoculation is carried out by adding, for example, a Fe-Si inoculum containing a small amount of elements (Ca, Ba, Al, etc.) having a strong affinity for N to the molten metal; and a casting process in which a casting into a metal mold is carried out; wherein the spheroidizing agent has a C amount of about 2.2 mass% , a total nitrogen amount N being 150 ppm (by mass) or less, and a nitrogen amount generated during melting being 15 ppm (by mass) or less using the nitrogen analysis method as described in the description.
A refrigeration system , comprising: a refrigeration loop having a compressor , an exhaust port of the compressor , a condenser , a throttle element , an evaporator , and a suction port of the compressor that are connected in sequence by using a flow path, wherein a first valve is disposed between the throttle element and the condenser , and the first valve is at least capable of cutting off a refrigerant flow from the throttle element to the condenser ; and a second valve is disposed close to the suction port of the compressor , and the second valve is used to control on/off of a flow path between the evaporator and the compressor ; characterised in that the apparatus comprises a three-way valve that is disposed between the exhaust port of the compressor and the condenser; and a hot air bypass branch, wherein an outlet of the hot air bypass branch is connected to a flow path between the evaporator and the throttle element , and an inlet of the hot air bypass branch is connected to the three-way valve ; wherein a third valve is disposed on the hot air bypass branch, and the third valve is at least capable of cutting off a refrigerant flow from the outlet of the hot air bypass branch to the inlet of the hot air bypass branch; and wherein the third valve is a one-way valve for cutting off the refrigerant flow from the outlet of the hot air bypass branch to the inlet of the hot air bypass branch. a refrigeration loop having a compressor , an exhaust port of the compressor , a condenser , a throttle element , an evaporator , and a suction port of the compressor that are connected in sequence by using a flow path, wherein a first valve is disposed between the throttle element and the condenser , and the first valve is at least capable of cutting off a refrigerant flow from the throttle element to the condenser ; and a second valve is disposed close to the suction port of the compressor , and the second valve is used to control on/off of a flow path between the evaporator and the compressor ; characterised in that the apparatus comprises a three-way valve that is disposed between the exhaust port of the compressor and the condenser; and a hot air bypass branch, wherein an outlet of the hot air bypass branch is connected to a flow path between the evaporator and the throttle element , and an inlet of the hot air bypass branch is connected to the three-way valve ; wherein a third valve is disposed on the hot air bypass branch, and the third valve is at least capable of cutting off a refrigerant flow from the outlet of the hot air bypass branch to the inlet of the hot air bypass branch; and wherein the third valve is a one-way valve for cutting off the refrigerant flow from the outlet of the hot air bypass branch to the inlet of the hot air bypass branch.
A localized surface plasmon resonance (LSPR) device, comprising: a) a nanoplasmonic filter, said nanoplasmonic filter comprising - an optically transparent dielectric layer, and - an array of metallic nanoparticles comprising antigen-specific binding molecules specific for at least one analyte on the optically transparent dielectric layer; characterized in that said LSPR device further comprises b) a few-layer MoS 2 thin-film transistor comprising a photoconductive flake comprising a few-layer MoS 2 layer for detecting an LSPR resonance shift if said at least one analyte binds to said antigen-specific binding molecules specific for said at least one analyte; and wherein said nanoplasmonic filter and said photoconductive flake of said few-layer MoS 2 thin-film transistor are separated by a 100-300 μm deep air space. a) a nanoplasmonic filter, said nanoplasmonic filter comprising - an optically transparent dielectric layer, and - an array of metallic nanoparticles comprising antigen-specific binding molecules specific for at least one analyte on the optically transparent dielectric layer; characterized in that said LSPR device further comprises - an optically transparent dielectric layer, and - an array of metallic nanoparticles comprising antigen-specific binding molecules specific for at least one analyte on the optically transparent dielectric layer; b) a few-layer MoS 2 thin-film transistor comprising a photoconductive flake comprising a few-layer MoS 2 layer for detecting an LSPR resonance shift if said at least one analyte binds to said antigen-specific binding molecules specific for said at least one analyte;
An energy management server comprising: an estimation unit configured to calculate an estimated value of an energy demand in a building in which an electric appliance is installed (S5); a scheduler configured to create an operation schedule of the electric appliance based on the estimated value (S6); an acquisition unit configured to acquire an actual value of the energy demand (S2); a monitoring unit configured to monitor an error between the estimated value and the actual value (S3), and if the error is equal to or larger than a defined threshold, generate an estimation trigger to execute a process of the estimation unit being configured to recalculate the estimated value of the energy demand (S5), and the scheduler configured to reform the operation schedule based on the recalculated estimated value (S6); a receiving unit configured to receive a demand response signal (DR) containing information which prompts suppression of energy consumption in a designated period, and generating a demand response trigger to execute the process of the estimation unit being configured to recalculate the estimated value of the energy demand (S5), and the scheduler configured to reform the operation schedule based on the recalculated estimated value (S6); characterized in that a setting unit configured to set the value of the threshold in the designated period to be lower than that in other periods. an estimation unit configured to calculate an estimated value of an energy demand in a building in which an electric appliance is installed (S5); a scheduler configured to create an operation schedule of the electric appliance based on the estimated value (S6); an acquisition unit configured to acquire an actual value of the energy demand (S2); a monitoring unit configured to monitor an error between the estimated value and the actual value (S3), and if the error is equal to or larger than a defined threshold, generate an estimation trigger to execute a process of the estimation unit being configured to recalculate the estimated value of the energy demand (S5), and the scheduler configured to reform the operation schedule based on the recalculated estimated value (S6); a receiving unit configured to receive a demand response signal (DR) containing information which prompts suppression of energy consumption in a designated period, and generating a demand response trigger to execute the process of the estimation unit being configured to recalculate the estimated value of the energy demand (S5), and the scheduler configured to reform the operation schedule based on the recalculated estimated value (S6); characterized in that a setting unit configured to set the value of the threshold in the designated period to be lower than that in other periods.
A method to detect the presence or absence of an MREJ type xv methicillin-resistant Staphylococcus aureus (MRSA) strain characterized by SEQ ID NO: 56 comprising: contacting a sample to be analyzed for the presence or absence of said MREJ type xv MRSA strain characterized by SEQ ID NO: 56 to a first primer that hybridizes with an SCCmec element right extremity sequence of SEQ ID NO: 56 and a second primer that hybridizes with the complement of an orfX sequence of SEQ ID NO: 56; wherein said first and second primers are at least 10 nucleotides in length; generating an amplicon of said MREJ type xv MRSA strain; and detecting the absence or presence of said amplicon. contacting a sample to be analyzed for the presence or absence of said MREJ type xv MRSA strain characterized by SEQ ID NO: 56 to a first primer that hybridizes with an SCCmec element right extremity sequence of SEQ ID NO: 56 and a second primer that hybridizes with the complement of an orfX sequence of SEQ ID NO: 56; wherein said first and second primers are at least 10 nucleotides in length; generating an amplicon of said MREJ type xv MRSA strain; and detecting the absence or presence of said amplicon.
Concentrate container adapter for a blood treatment device, in particular a dialysis machine, comprising a fastening body to which a concentrate bag can be fastened, the fastening body having a filling opening and two connecting openings arranged laterally to the filling opening , a housing receiving region on the fastening body , the fastening body being designed in such a way that the concentrate container adapter can be attached to a connector housing by means of the housing receiving region , and the housing receiving region being arranged on the outside of the material forming the filling opening and/or connecting openings , characterized in that the housing receiving region is spaced apart from the filling opening and the connecting openings . a fastening body to which a concentrate bag can be fastened, the fastening body having a filling opening and two connecting openings arranged laterally to the filling opening , a housing receiving region on the fastening body , the fastening body being designed in such a way that the concentrate container adapter can be attached to a connector housing by means of the housing receiving region , and the housing receiving region being arranged on the outside of the material forming the filling opening and/or connecting openings , characterized in that the housing receiving region is spaced apart from the filling opening and the connecting openings .
A method for wireless communication at a coordinating device of a spectrum sharing network, comprising: receiving , at the coordinating device, an indication that a frequency channel is to be vacated; identifying a plurality of cells of the spectrum sharing network that are using the frequency channel; determining a channel change order for the plurality of cells that indicates an order in which the plurality of cells should change channel, wherein the channel change order is based at least in part on one or a combination of: i) a number of user devices associated with at least one cell of the plurality of cells, ii) a type of service for user devices associated with the at least one cell; and providing , to the at least one cell of the plurality of cells, an indication of a channel change timing that is based at least in part on the determined channel change order. receiving , at the coordinating device, an indication that a frequency channel is to be vacated; identifying a plurality of cells of the spectrum sharing network that are using the frequency channel; determining a channel change order for the plurality of cells that indicates an order in which the plurality of cells should change channel, wherein the channel change order is based at least in part on one or a combination of: i) a number of user devices associated with at least one cell of the plurality of cells, ii) a type of service for user devices associated with the at least one cell; and providing , to the at least one cell of the plurality of cells, an indication of a channel change timing that is based at least in part on the determined channel change order.
A stress sensor (1; 100; 200, 300; 400; 500; 600) including: a membrane plate (4; 104; 204; 34; 504, 604), a first bonding region (5; 105; 205; 305; 405; 505; 605), superposed on the membrane plate, a cover plate (6; 106; 206; 306; 406; 506; 606) superposed on the first bonding region, the first bonding region bonding the membrane plate to the cover plate, three-dimensional detection piezoresistive elements (11; 111; 211; 411; 511; 611), extending on the membrane plate and embedded in the first bonding region, and planar detection piezoresistive elements (12; 112; 212; 412; 512; 612), extending on the membrane plate and surrounded at a distance by the first bonding region. a membrane plate (4; 104; 204; 34; 504, 604), a first bonding region (5; 105; 205; 305; 405; 505; 605), superposed on the membrane plate, a cover plate (6; 106; 206; 306; 406; 506; 606) superposed on the first bonding region, the first bonding region bonding the membrane plate to the cover plate, three-dimensional detection piezoresistive elements (11; 111; 211; 411; 511; 611), extending on the membrane plate and embedded in the first bonding region, and planar detection piezoresistive elements (12; 112; 212; 412; 512; 612), extending on the membrane plate and surrounded at a distance by the first bonding region.