mhurhangee/patent-ind-claim-en huggingface dataset:
A single radio voice call continuity processing method performed by a mobility management entity, MME, or performed by a Serving General Packet Radio Service Support Node, SGSN, the method comprising the steps: • when a single radio voice call continuity, SRVCC, handover request is received, acquiring, from a preset local configuration table, each location area identity corresponding to a Mobile Switching Center, MSC, currently associated with an SGs interface or a Gs interface, wherein the local configuration table comprises a correspondence between each location area identity and each MSC, • determining whether a location area identity in target identification information in the SRVCC handover request is a location area identity corresponding to the MSC currently associated with the SGs interface or the Gs interface, • when a result of the determining step is yes, performing SRVCC processing by using the MSC, which is currently associated with the SGs interface or the Gs interface, as a SRVCC serving MSC, • when the result of the determining step is no, selecting an MSC according to the target identification information to perform the SRVCC processing. • when a single radio voice call continuity, SRVCC, handover request is received, acquiring, from a preset local configuration table, each location area identity corresponding to a Mobile Switching Center, MSC, currently associated with an SGs interface or a Gs interface, wherein the local configuration table comprises a correspondence between each location area identity and each MSC, • determining whether a location area identity in target identification information in the SRVCC handover request is a location area identity corresponding to the MSC currently associated with the SGs interface or the Gs interface, • when a result of the determining step is yes, performing SRVCC processing by using the MSC, which is currently associated with the SGs interface or the Gs interface, as a SRVCC serving MSC, • when the result of the determining step is no, selecting an MSC according to the target identification information to perform the SRVCC processing.
A method for controlling of a mobile terminal originated request to establish a packet data network connection to a public land mobile network, PLMN, the method comprising: - receiving , in a network element, a packet data network connection request from the mobile terminal , - generating , by the network element, a response message rejecting the packet data network connection request, - transmitting the generated message to the mobile terminal , characterized in that the response message comprises information element comprising information on equivalent PLMNs for which the rejection is applicable and timer information defining individual running time value for each of the equivalent PLMNs, the individual running time value defining a period of time the mobile terminal is rejected to re-request the establishment of the packet data network connection from the equivalent PLMN for which the rejection is applicable. - receiving , in a network element, a packet data network connection request from the mobile terminal , - generating , by the network element, a response message rejecting the packet data network connection request, - transmitting the generated message to the mobile terminal ,
A computing system comprising: a projection screen comprising a first surface to specularly reflect infrared (IR) light, and a second surface to reflect visible light in a broad range of directions; a projector assembly to project visible images on the projection screen ; an IR light projector to project IR light towards the projection screen; an IR camera disposed above and pointed at the projection screen to capture an IR image representing an object disposed between the IR camera and the projection screen based on an intensity of IR light reflected by the object and the projection screen; wherein the first surface of the projection screen is to specularly reflect the IR light projected by the IR light projector away from the IR camera. a projection screen comprising a first surface to specularly reflect infrared (IR) light, and a second surface to reflect visible light in a broad range of directions; a first surface to specularly reflect infrared (IR) light, and a second surface to reflect visible light in a broad range of directions; a projector assembly to project visible images on the projection screen ; an IR light projector to project IR light towards the projection screen; an IR camera disposed above and pointed at the projection screen to capture an IR image representing an object disposed between the IR camera and the projection screen based on an intensity of IR light reflected by the object and the projection screen; wherein the first surface of the projection screen is to specularly reflect the IR light projected by the IR light projector away from the IR camera.
An implantable medical device , in particular an extravascular cardioverter-defibrillator, comprising: an implantable housing for accommodating a control unit configured to generate and/or process electrical signals; wherein an outer surface of the housing comprises at least one electrode portion for receiving electrical signals to be processed by the control unit and/or for providing electrical signals generated by the control unit, the electrode portion being surrounded along its outer contour by an insulating portion which electrically insulates the electrode portion from a remainder of the housing ; wherein both the electrode portion and the remainder of the housing are made of a biocompatible and electrically conductive first material; wherein the insulating portion is made of a biocompatible and electrically insulating second material comprising a titanium oxide compound. an implantable housing for accommodating a control unit configured to generate and/or process electrical signals; wherein an outer surface of the housing comprises at least one electrode portion for receiving electrical signals to be processed by the control unit and/or for providing electrical signals generated by the control unit, the electrode portion being surrounded along its outer contour by an insulating portion which electrically insulates the electrode portion from a remainder of the housing ; wherein both the electrode portion and the remainder of the housing are made of a biocompatible and electrically conductive first material; wherein the insulating portion is made of a biocompatible and electrically insulating second material comprising a titanium oxide compound.
A method for training an acoustic model comprising tied states in an automatic speech recognition system using the maximum likelihood criterion, comprising the steps of: A. performing a forced alignment of speech training data with an existing acoustic model and processing the training data, and as a result training a new acoustic model and saving said new acoustic model, wherein the processing comprises the steps of B to F, which are B. processing the training data by obtaining an estimated between class scatter matrix and within-class scatter matrix for each tied state of the existing acoustic model based on the result of the forced alignment, from which mean vectors may be estimated, and for each tied state of the existing acoustic model: C. biasing the between class scatter matrix and the within-class scatter matrix based on a previously determined error rate of the corresponding tied state using the existing acoustic model, D. diagonalizing the between class scatter matrix and the within class scatter matrix and estimating eigen-vectors based on the transformed scatter matrices to produce a transformation matrix, E. obtaining new discriminative features using the transformation matrix, F. training a new acoustic model based on said new discriminative features. A. performing a forced alignment of speech training data with an existing acoustic model and processing the training data, and as a result training a new acoustic model and saving said new acoustic model, wherein the processing comprises the steps of B to F, which are B. processing the training data by obtaining an estimated between class scatter matrix and within-class scatter matrix for each tied state of the existing acoustic model based on the result of the forced alignment, from which mean vectors may be estimated, C. biasing the between class scatter matrix and the within-class scatter matrix based on a previously determined error rate of the corresponding tied state using the existing acoustic model, D. diagonalizing the between class scatter matrix and the within class scatter matrix and estimating eigen-vectors based on the transformed scatter matrices to produce a transformation matrix, E. obtaining new discriminative features using the transformation matrix, F. training a new acoustic model based on said new discriminative features.
A separation membrane comprising: a separation functional layer composed of a polyamide containing, as a monomer unit, at least one selected from the group consisting of piperazine and a piperazine derivative; and a coating covering the separation functional layer and containing a polymer having a repeating unit represented by the following formula : wherein N + is a nitrogen atom constituting a quaternary ammonium cation, and R 1 and R 2 are each independently a substituent containing a carbon atom bonded to the nitrogen atom, wherein the piperazine derivative is a compound obtained by substitution of at least one hydrogen atom bonded to a carbon atom or nitrogen atom of piperazine with a substituent, characterized in that the polymer satisfies one of the following conditions (A) or (B): (A) the polymer is a copolymer of a first monomer serving to form the repeating unit and a second monomer, the second monomer has a reactive substituent capable of being chemically bonded to the separation functional layer , and the reactive substituent is an epoxy group, a hydroxy group, an amino group, or an amide group; or (B) the polymer is a copolymer or a modified homopolymer represented by the following formula : wherein in the formula , m and n are each independently an integer of 1 or more. a separation functional layer composed of a polyamide containing, as a monomer unit, at least one selected from the group consisting of piperazine and a piperazine derivative; and a coating covering the separation functional layer and containing a polymer having a repeating unit represented by the following formula : N + is a nitrogen atom constituting a quaternary ammonium cation, and R 1 and R 2 are each independently a substituent containing a carbon atom bonded to the nitrogen atom, wherein the piperazine derivative is a compound obtained by substitution of at least one hydrogen atom bonded to a carbon atom or nitrogen atom of piperazine with a substituent, characterized in that the polymer satisfies one of the following conditions (A) or (B): (A) the polymer is a copolymer of a first monomer serving to form the repeating unit and a second monomer, the second monomer has a reactive substituent capable of being chemically bonded to the separation functional layer , and the reactive substituent is an epoxy group, a hydroxy group, an amino group, or an amide group; or (B) the polymer is a copolymer or a modified homopolymer represented by the following formula : (A) the polymer is a copolymer of a first monomer serving to form the repeating unit and a second monomer, the second monomer has a reactive substituent capable of being chemically bonded to the separation functional layer , and the reactive substituent is an epoxy group, a hydroxy group, an amino group, or an amide group; or the second monomer has a reactive substituent capable of being chemically bonded to the separation functional layer , and the reactive substituent is an epoxy group, a hydroxy group, an amino group, or an amide group; or (B) the polymer is a copolymer or a modified homopolymer represented by the following formula :
A process for the preparation of a crystalline polymorph Form A of 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide, wherein said Form A has an X-ray powder diffraction pattern measured using Cu Kα radiation with peaks at 2θ = about 9.3, 9.7, 10.2, 10.5, 11.7, 13.0, 14.5, 15.0, 15.5, 16.0, 16.4, 16.9, 17.8, 18.0, 20.0, 20.5, 20.9, 22.0, 22.3, 23.4, 24.2 and 24.5°, the method comprising: (a) dissolving 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide, at a temperature of at least 40°C, in a non-aqueous solvent or mixture of non-aqueous solvents to obtain a solution, wherein the solvent or solvents contain less than about 5 wt% of water relative to the 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide starting material; (a') optionally seeding the solution with Form A crystals of 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide; (b) cooling the solution, thereby forming crystals of polymorph Form A of 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide; (c) isolating the crystals. (a) dissolving 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide, at a temperature of at least 40°C, in a non-aqueous solvent or mixture of non-aqueous solvents to obtain a solution, wherein the solvent or solvents contain less than about 5 wt% of water relative to the 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide starting material; (a') optionally seeding the solution with Form A crystals of 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide; (b) cooling the solution, thereby forming crystals of polymorph Form A of 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide; (c) isolating the crystals.
A luminaire for providing substantially uniform light distribution along a flat wall surface, the luminaire comprising: a light source; a housing having an internal reflective surface and an elongated light emitting opening therein in a plane substantially perpendicular to the wall surface to be illuminated; the opening having a center region; a kick reflector comprising a frontal layer that is reflective on both sides; wherein at least part of the kick reflector resides within the housing and is positioned between the internal reflective surface and the center region of the housing such that a distance exists between the internal reflective surface of the housing and the frontal layer along the frontal layer's entire length; and, wherein in use, light from the light source passes through said distance between the frontal layer and the housing before being emitted from the light emitting opening at a location between the housing and the frontal layer. a light source; a housing having an internal reflective surface and an elongated light emitting opening therein in a plane substantially perpendicular to the wall surface to be illuminated; the opening having a center region; a kick reflector comprising a frontal layer that is reflective on both sides; wherein at least part of the kick reflector resides within the housing and is positioned between the internal reflective surface and the center region of the housing such that a distance exists between the internal reflective surface of the housing and the frontal layer along the frontal layer's entire length; and, wherein in use, light from the light source passes through said distance between the frontal layer and the housing before being emitted from the light emitting opening at a location between the housing and the frontal layer.
Watercraft comprising a jet drive having an electric motor drive, and comprising an electrical energy store for the electric motor, wherein the jet drive and the electric motor drive are integrated, as a first structural unit , in a manner installed in a box or a housing, and in that the energy store is integrated, as a second structural unit , in a box or a housing containing the energy store, both of which are designed to be able to be mounted and dismantled in each case, in and from the watercraft , as an integral structural unit, wherein the second structural unit is inserted from above, through an opening in the hull of the watercraft , into a battery receiving unit , and is guided by a low-play guide rail system , to its final position, in the direction of the rear of the vehicle, wherein the locking is achieved by guide and locking pins which are designed for fastening the second structural unit in the vertical direction, wherein slide rails, which allow for simple shifting of the second structural unit , are installed under the second structural unit , wherein the slide rails receive the weight of the second structural unit , such that the guide and locking pins serve primarily for guidance without a significant load-transmitting function, wherein the locking is achieved via a storage compartment which can be inserted in front of the second structural unit .
A horizontal axis ocean power generation device , whereby the horizontal axis ocean power generation device comprises a sealing system capable of direct removal or replaceable underwater, wherein the ocean power generation device further comprises a hub , a generator and a spindle connecting the hub and the generator , the sealing system is arranged on the spindle , and the sealing system comprises: at least one first seal ; and at least one second seal located at a side of the at least one first seal proximate to seawater, the at least one second seal not functioning to seal when the ocean power generation device operates normally, the at least one first seal functioning to seal when the ocean power generation device operates normally, and when the at least one first seal needs to be removed or replaced, the at least one second seal operating to function to seal. at least one first seal ; and at least one second seal located at a side of the at least one first seal proximate to seawater, the at least one second seal not functioning to seal when the ocean power generation device operates normally, the at least one first seal functioning to seal when the ocean power generation device operates normally, and when the at least one first seal needs to be removed or replaced, the at least one second seal operating to function to seal.
An electromagnetic induction tool configured to be disposed within a drill collar on a bottom hole assembly, the tool comprising: a mandrel ; a cascaded gap sub section to separate different portions of the mandrel and positioned to at least partially hinder the flow of an axial current and an azimuthal current on the mandrel , these currents resulting from induced electromagnetic fields; and a coil antenna , wherein the coil antenna is disposed over the cascaded gap sub section ; wherein the cascaded gap sub section is a single insert with connectors on both ends for attachment to the mandrel and comprises: a plurality of gap subs that each comprise the entire cross section of an area of the mandrel ; and a metal support disposed between each of the plurality of gap subs. a mandrel ; a cascaded gap sub section to separate different portions of the mandrel and positioned to at least partially hinder the flow of an axial current and an azimuthal current on the mandrel , these currents resulting from induced electromagnetic fields; and a coil antenna , wherein the coil antenna is disposed over the cascaded gap sub section ; a plurality of gap subs that each comprise the entire cross section of an area of the mandrel ; and a metal support disposed between each of the plurality of gap subs.
Knife, comprising a housing and a blade holder that is movable between a first position and a second position in the housing , comprising a return device , by means of which the blade holder is loaded into the rear position relative to the housing in at least one region of the movement of the blade holder , characterized in that the return device comprises first return means which include a spring and a movable element which is connected to the spring and is loaded in a movement direction by the spring, wherein the first return means are mounted on the housing or the blade holder , wherein the movable element interacts with at least one counter surface of the blade holder or housing , which counter surface is comprised by second return means, and wherein the movable element is movable relative to the counter surface .
Plate forming part of a heat exchanger and intended to delimit at least one channel (111a, 111b; 211a, 211b) for circulation of a fluid , the plate comprising a bottom , and at least one raised edge which surrounds the bottom , the plate comprising at least one opening configured to supply the channel (111a, 111b; 211a, 211b) with fluid , the opening being shaped according to an opening profile (X1), the plate being equipped with a fluid distribution means shaped according to a distribution means profile (X2) which is homothetic with the opening profile (X1) of the opening , characterized in that the distribution means comprises protrusions which emerge from the bottom towards a first channel, two immediately adjacent protrusions are separated by a circulation passage, the protrusions are different from each other in height, the height of one protrusion being taken between a protrusion base, which is formed in the bottom plane of the plate, and a protrusion summit, which is formed opposite the protrusion base, or in that the plate comprises a collar formed around the opening, the distribution means comprises a ring which is in abutment against the collar, the ring comprises an annulus which is in abutment against the collar, the annulus being provided with crests which extend from the ring towards a first channel for the fluid, two immediately adjacent crests being separated by a circulation corridor, the crests being different from each other in height, the height of the crest being taken between a crest base, which is formed integrally with the ring, and a crest summit, which is formed opposite the crest base.