mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine for an aircraft, the gas turbine engine comprising: a rotatable shaft defining a rotational axis, the rotatable shaft extending between a rearward end and a forward end of the gas turbine engine; a compressor drum surrounding, and coupled to, the shaft so as to define an annular gap therebetween; an intermediate case arranged axially rearward of the compressor drum and comprising a bearing support element extending into the annular gap; a rearward bearing mounted between the intermediate case and the shaft; a forward bearing that is forward of the rearward bearing, mounted between the bearing support element and the shaft , and proximate a forward end of the compressor drum such that the forward bearing is less than 50% of an axial length of the compressor drum from the forward end of the compressor drum ; a fan assembly that is forward of the compressor drum, the fan assembly comprising a fan that has fan blades and is located forward of the compressor drum ; a gearbox arranged to receive an input from the rotatable shaft and output drive to the fan so as to drive the fan at a lower rotational speed than rotatable shaft ; wherein the rotatable shaft is a hollow shaft defining an elongate cavity, and a fan thrust shaft is located within the cavity of the rotatable shaft and is coaxial with the rotatable shaft , the fan thrust shaft being connected to the fan of the gas turbine engine . a rotatable shaft defining a rotational axis, the rotatable shaft extending between a rearward end and a forward end of the gas turbine engine; a compressor drum surrounding, and coupled to, the shaft so as to define an annular gap therebetween; an intermediate case arranged axially rearward of the compressor drum and comprising a bearing support element extending into the annular gap; a rearward bearing mounted between the intermediate case and the shaft; a forward bearing that is forward of the rearward bearing, mounted between the bearing support element and the shaft , and proximate a forward end of the compressor drum such that the forward bearing is less than 50% of an axial length of the compressor drum from the forward end of the compressor drum ; a fan assembly that is forward of the compressor drum, the fan assembly comprising a fan that has fan blades and is located forward of the compressor drum ; a gearbox arranged to receive an input from the rotatable shaft and output drive to the fan so as to drive the fan at a lower rotational speed than rotatable shaft ; wherein the rotatable shaft is a hollow shaft defining an elongate cavity, and a fan thrust shaft is located within the cavity of the rotatable shaft and is coaxial with the rotatable shaft , the fan thrust shaft being connected to the fan of the gas turbine engine .
A service request processing method performed by a first service-call session control function, S-CSCF, device, the method comprising the steps of: • receiving a terminated service request from an interrogating-call session control function, I-CSCF, device, wherein the terminated service request carries an identity of terminated user equipment, UE, and terminated service information, wherein the terminated service information is a service type or a service identity, and the terminated UE has already registered to at least two proxy-call session control function, P-CSCF, devices that correspond each to different network slices; • determining an address of a P-CSCF device of one of the at least two P-CSCF devices and that corresponds to the terminated service information and the identity of the terminated UE; and • sending the terminated service request to the P-CSCF device corresponding to the determined address. • receiving a terminated service request from an interrogating-call session control function, I-CSCF, device, wherein the terminated service request carries an identity of terminated user equipment, UE, and terminated service information, wherein the terminated service information is a service type or a service identity, and the terminated UE has already registered to at least two proxy-call session control function, P-CSCF, devices that correspond each to different network slices; • determining an address of a P-CSCF device of one of the at least two P-CSCF devices and that corresponds to the terminated service information and the identity of the terminated UE; and • sending the terminated service request to the P-CSCF device corresponding to the determined address.
A process for separating or removing a permanganate reducing compound (PRC) from a mixed composition, as a first overhead from a first distillation step, containing at least PRC and methyl iodide, the process comprising distilling the mixed composition in a second distillation step to form a second overhead stream, a side-cut stream, and a lower stream, wherein the PRC includes at least acetaldehyde, and the process further comprises the steps of: adding an extractant extracting a PRC preferentially to methyl iodide to a concentration zone of a PRC and methyl iodide in a distillation column of the second distillation step, and withdrawing an extraction mixture falling from the concentration zone as the side-cut stream. adding an extractant extracting a PRC preferentially to methyl iodide to a concentration zone of a PRC and methyl iodide in a distillation column of the second distillation step, and withdrawing an extraction mixture falling from the concentration zone as the side-cut stream.
A multilayer film , especially a thermoplastic multilayer film, particularly to be used for food packaging, wherein the multilayer film comprises at least three layers and/or layer composites (2, 3, 4; 2a, 2b, 2c; 3a, 3b, 3c), especially at least three polymeric layers and/or layer composites: (A) an inner layer composite , especially an inner food contacting layer composite, wherein the inner layer composite comprises a plurality of single inner layers attached and/or adhered to one another, especially coextruded to one another, wherein the single inner layers are each composed of at least one foamed polymer comprising at least one polyolefin and wherein the single inner layers each comprise a multitude of voids, especially open cells or pores, capable of reversibly retaining and/or absorbing at least one food additive; (B) an outer layer composite , wherein the outer layer composite comprises a plurality of single outer layers attached and/or adhered to one another, especially coextruded to one another, wherein the single outer layers each comprise at least one polyamide; (C) an adhesive layer (tie layer) disposed between the inner layer composite and the outer layer composite , especially adhered to and/or coextruded with the inner layer composite and the outer layer composite . (A) an inner layer composite , especially an inner food contacting layer composite, wherein the inner layer composite comprises a plurality of single inner layers attached and/or adhered to one another, especially coextruded to one another, wherein the single inner layers are each composed of at least one foamed polymer comprising at least one polyolefin and wherein the single inner layers each comprise a multitude of voids, especially open cells or pores, capable of reversibly retaining and/or absorbing at least one food additive; (B) an outer layer composite , wherein the outer layer composite comprises a plurality of single outer layers attached and/or adhered to one another, especially coextruded to one another, wherein the single outer layers each comprise at least one polyamide; (C) an adhesive layer (tie layer) disposed between the inner layer composite and the outer layer composite , especially adhered to and/or coextruded with the inner layer composite and the outer layer composite .
A container for articles, comprising: - an upper end and a lower end opposed each other; - a first lateral wall and a second lateral wall connected each other, each having an inner surface and an outer surface; - a bottom , disposed at said lower end of the container and comprising in turn a first bottom wall connected to the first lateral wall and a second bottom wall connected to the second lateral wall , the first bottom wall and the second bottom wall being overlapped each other in such a way that the first bottom wall is more external than the second bottom wall considering the inner volume of the container ; - un upper opening opposed to the bottom ; characterised in that it comprises: means for blocking the bottom , comprising a first abutment flap fixed to the inner surface of the first lateral wall proximal to the lower end of the container and distal to the upper end of the container and comprising a lower abutment edge ; and a second abutment flap comprising an upper abutment edge and connected to the second bottom wall ; the second abutment flap being at last partially folded against the inner surface of the first lateral wall , at the lower end of the container for abutting with its upper abutment edge the lower abutment edge of the first abutment flap . - an upper end and a lower end opposed each other; - a first lateral wall and a second lateral wall connected each other, each having an inner surface and an outer surface; - a bottom , disposed at said lower end of the container and comprising in turn a first bottom wall connected to the first lateral wall and a second bottom wall connected to the second lateral wall , the first bottom wall and the second bottom wall being overlapped each other in such a way that the first bottom wall is more external than the second bottom wall considering the inner volume of the container ; - un upper opening opposed to the bottom ; means for blocking the bottom , comprising a first abutment flap fixed to the inner surface of the first lateral wall proximal to the lower end of the container and distal to the upper end of the container and comprising a lower abutment edge ; and a second abutment flap comprising an upper abutment edge and connected to the second bottom wall ; the second abutment flap being at last partially folded against the inner surface of the first lateral wall , at the lower end of the container for abutting with its upper abutment edge the lower abutment edge of the first abutment flap .
A method of processing audio content including a plurality of audio elements, the method comprising: clustering (S310) the plurality of audio elements into a plurality of clusters of audio elements; and for a cluster among the plurality of clusters: for each audio element in the cluster, determining (S320) a measure of energy that the audio element contributes to the cluster; for at least one audio element in the cluster, determining (S330) a compensation gain based at least in part on the measures of energy for the audio elements in the cluster; and applying (S340) the compensation gain to the at least one audio element in the cluster, wherein the measure of energy that an audio element contributes to the cluster c is given by E oc = g oc 2 E o , where E o is the energy of the audio element and g oc is the element-to-cluster gain for the audio element o , wherein the element-to-cluster gain is the gain with which the audio element o is rendered to the cluster c. clustering (S310) the plurality of audio elements into a plurality of clusters of audio elements; and for a cluster among the plurality of clusters: for each audio element in the cluster, determining (S320) a measure of energy that the audio element contributes to the cluster; for at least one audio element in the cluster, determining (S330) a compensation gain based at least in part on the measures of energy for the audio elements in the cluster; and applying (S340) the compensation gain to the at least one audio element in the cluster, wherein the measure of energy that an audio element contributes to the cluster c is given by E oc = g oc 2 E o , where E o is the energy of the audio element and g oc is the element-to-cluster gain for the audio element o , wherein the element-to-cluster gain is the gain with which the audio element o is rendered to the cluster c. for each audio element in the cluster, determining (S320) a measure of energy that the audio element contributes to the cluster; for at least one audio element in the cluster, determining (S330) a compensation gain based at least in part on the measures of energy for the audio elements in the cluster; and applying (S340) the compensation gain to the at least one audio element in the cluster, wherein the measure of energy that an audio element contributes to the cluster c is given by E oc = g oc 2 E o , where E o is the energy of the audio element and g oc is the element-to-cluster gain for the audio element o , wherein the element-to-cluster gain is the gain with which the audio element o is rendered to the cluster c.
A method for producing images of the electrical properties of a specimen comprising: a. Generating via a static magnetic field generator a static magnetic field inside the specimen b. in the presence of the static magnetic field, applying an acoustic wave to the specimen , by exciting an ultrasonic transducer located on the surface of the specimen with a sinusoidal voltage of a specific excitation frequency c. detecting via a receiver coil encirling the specimen or placed near the specimen the Lorentz electrical field induced by the propagation of the acoustic wave inside de specimen d. generating images showing the conductivity and permittivity distributions of the specimen based on the detected Lorentz electrical field. a. Generating via a static magnetic field generator a static magnetic field inside the specimen b. in the presence of the static magnetic field, applying an acoustic wave to the specimen , by exciting an ultrasonic transducer located on the surface of the specimen with a sinusoidal voltage of a specific excitation frequency c. detecting via a receiver coil encirling the specimen or placed near the specimen the Lorentz electrical field induced by the propagation of the acoustic wave inside de specimen d. generating images showing the conductivity and permittivity distributions of the specimen based on the detected Lorentz electrical field.
A polishing or grinding pad assembly (21; 121; 221) comprising: (a) a flexible pad (31; 131; 231); (b) a multilayer reinforcement coupled to the pad, the multilayer reinforcement including layers (41; 43; 141; 143; 241; 243) having different characteristics and the layers surrounding a rotational axis of the pad, each layer being in the form of a ring (41; 43; 141; 143; 241; 243); and (c) multiple floor-contacting abrasive tools (71; 171; 271) coupled to the multilayer reinforcement, and the tools being spaced apart from each other with at least some of the tools being on opposite sides of the rotational axis of the pad, wherein a floor-facing one of the layers includes an outer periphery with recesses (49; 149) between adjacent pairs of the tools (71; 171; 271). (a) a flexible pad (31; 131; 231); (b) a multilayer reinforcement coupled to the pad, the multilayer reinforcement including layers (41; 43; 141; 143; 241; 243) having different characteristics and the layers surrounding a rotational axis of the pad, each layer being in the form of a ring (41; 43; 141; 143; 241; 243); and (c) multiple floor-contacting abrasive tools (71; 171; 271) coupled to the multilayer reinforcement, and the tools being spaced apart from each other with at least some of the tools being on opposite sides of the rotational axis of the pad, wherein a floor-facing one of the layers includes an outer periphery with recesses (49; 149) between adjacent pairs of the tools (71; 171; 271).
An aptamer that inhibits an activity of complement Factor D (fD) by selectively binding to a catalytic cleft of said fD.
A user equipment, UE , the UE being in coverage of a cell of an evolved universal terrestrial radio access network, E-UTRAN, wherein the UE is configured to: determine a reference signal received power, RSRP, measurement of a synchronization signal received from the cell of the E-UTRAN, wherein the synchronization signal is a cell-specific reference signal, CRS; compare the RSRP measurement to a signal strength threshold that has been signaled to the UE from an evolved Node B, eNB ; and transmit, in response to a determination that the RSRP measurement is below the signal strength threshold, a direct link synchronization signal for discovery or communication and autonomously activate the UE as a synchronization source, wherein the UE is in Radio Resource Control, RRC, idle mode; and the UE is configured to receive direct link synchronization signal configuration broadcasted by the eNB on a system information block, and wherein the transmitted direct link synchronization signal for discovery or communication is configured based on the received direct link synchronization signal configuration. determine a reference signal received power, RSRP, measurement of a synchronization signal received from the cell of the E-UTRAN, wherein the synchronization signal is a cell-specific reference signal, CRS; compare the RSRP measurement to a signal strength threshold that has been signaled to the UE from an evolved Node B, eNB ; and transmit, in response to a determination that the RSRP measurement is below the signal strength threshold, a direct link synchronization signal for discovery or communication and autonomously activate the UE as a synchronization source, wherein the UE is in Radio Resource Control, RRC, idle mode; and the UE is configured to receive direct link synchronization signal configuration broadcasted by the eNB on a system information block, and wherein the transmitted direct link synchronization signal for discovery or communication is configured based on the received direct link synchronization signal configuration.
A system comprising: a. a tubular, rectangular or conical vessel, the vessel being made of a thermally conductive material; and b. an internal packing, contained within the vessel, for enhancing heat transport into or out of the vessel, the internal packing comprising a microfibrous media, the microfibrous media being made of thermally conductive fibers, wherein the thermally conductive fibers are micron-sized and have an average diameter of 1-30 microns, wherein an orientation of the internal packing is configured for promoting heat transfer between a fluid and internal walls of the vessel using disks of microfibrous media stacked in an axial direction of the vessel, wherein the internal packing contacts the internal walls of the vessel, wherein a fluid flow direction is in the axial direction of the vessel and perpendicular or near-perpendicular to the disks of microfibrous media, wherein the microfibrous media contains a microfibrous immobilized process and chemical reaction facilitator, the microfibrous immobilized process and chemical reaction facilitator increasing heat transport and electrical conduction; and c. supporting structures to hold and compress the microfibrous immobilized process and chemical reaction facilitator, wherein the microfibrous media is between the supporting structures. a. a tubular, rectangular or conical vessel, the vessel being made of a thermally conductive material; and b. an internal packing, contained within the vessel, for enhancing heat transport into or out of the vessel, the internal packing comprising a microfibrous media, the microfibrous media being made of thermally conductive fibers, wherein the thermally conductive fibers are micron-sized and have an average diameter of 1-30 microns, wherein an orientation of the internal packing is configured for promoting heat transfer between a fluid and internal walls of the vessel using disks of microfibrous media stacked in an axial direction of the vessel, wherein the internal packing contacts the internal walls of the vessel, wherein a fluid flow direction is in the axial direction of the vessel and perpendicular or near-perpendicular to the disks of microfibrous media, wherein the microfibrous media contains a microfibrous immobilized process and chemical reaction facilitator, the microfibrous immobilized process and chemical reaction facilitator increasing heat transport and electrical conduction; and c. supporting structures to hold and compress the microfibrous immobilized process and chemical reaction facilitator, wherein the microfibrous media is between the supporting structures.
A fan with at least one motor and at least one fan wheel which can rotate about a rotation axis (RA) and a multi-part fan housing which forms a flow channel in which the at least one fan wheel is arranged, wherein the fan housing has at least one first axial part and one second axial part which are arranged relative to one another in the axial direction as viewed along the rotation axis (RA), wherein the fan has at least one housing cover which is arranged on an outer surface of the fan housing and connects the first axial part and the second axial part to one another, wherein the at least one housing cover forms a receiving space with the outer surface of the fan housing in which a printed circuit board with motor electronics for the motor is arranged, characterized in that the first or second axial part has a pocket for receiving a connecting cable of a connector plug of the fan connected to the circuit board , and the housing cover has at least one rib protruding into the receiving space, the rib fixing the connector plug in the pocket in a strain-relieving manner, and wherein the at least one housing cover has a retaining web which projects into the receiving space and is designed to fix a winding plug of the motor to the circuit board relative to its position in the receiving space . the first or second axial part has a pocket for receiving a connecting cable of a connector plug of the fan connected to the circuit board , and the housing cover has at least one rib protruding into the receiving space, the rib fixing the connector plug in the pocket in a strain-relieving manner, and wherein the at least one housing cover has a retaining web which projects into the receiving space and is designed to fix a winding plug of the motor to the circuit board relative to its position in the receiving space .
A method of providing security for a plurality of client computers, the method comprising: receiving an event report identifying possible malware on or infection of a first client computer from a device separated from the first client computer ; receiving a first set of data from a detection program running on the first client computer ; automatically analyzing the first set of data based on a set of known actual identifiers of compromise, IOCs, related to the possible malware; receiving a second set of data from a second client computer ; updating the set of known actual identifiers of compromise, wherein updating the set of known actual identifiers of compromise comprises analyzing the second set of data and re-weighting known actual IOCs found in both the first set of data and the second set of data; and automatically re-analyzing the first set of data based on the update . receiving an event report identifying possible malware on or infection of a first client computer from a device separated from the first client computer ; receiving a first set of data from a detection program running on the first client computer ; automatically analyzing the first set of data based on a set of known actual identifiers of compromise, IOCs, related to the possible malware; receiving a second set of data from a second client computer ; updating the set of known actual identifiers of compromise, wherein updating the set of known actual identifiers of compromise comprises analyzing the second set of data and re-weighting known actual IOCs found in both the first set of data and the second set of data; and automatically re-analyzing the first set of data based on the update .
Silage additive comprising: a. 40 to 90 wt.% nitrite, b. 10 to 60 wt.% ammonium or sodium formate, characterized in that it comprises less than 2 wt.% of hexamethylene tetramine. a. 40 to 90 wt.% nitrite, b. 10 to 60 wt.% ammonium or sodium formate,