mhurhangee/ep-ind-claims huggingface dataset:
A device for recovering exhaust heat, extending between an exhaust gas inlet and a gas outlet, and including: - a valve defining a direct gas passage between the exhaust gas inlet and the gas outlet, the valve comprising a valve body including the gas outlet and housing a gate movable around a pivot link between a closing off position and a released position of the direct gas passage, and - a heat exchanger comprising an exchanger inlet communicating with the valve upstream from the gate, and an exchanger outlet communicating with the valve downstream from the gate, - the valve including a tube comprising the exhaust gas inlet, the tube extending partially inside the valve body, up to a distal end mouth edge, said mouth edge extending in a plane, characterized in that - the gate has a planar contact surface, intended to come into direct contact with said mouth edge of the tube when the gate is in the closing off position, - the recovery device includes an intermediate pipe extending between the tube and the heat exchanger, - the recovery device includes, at the inlet of the intermediate pipe, an upstream deflector able to guide the gas coming from the exhaust gas inlet toward the direct gas passage, - the upstream deflector is formed by a part of the intermediate pipe, extending in the tube, and - the recovery device comprises a downstream deflector, arranged in the tube downstream from the inlet of the intermediate pipe, and in which the upstream deflector advances in the tube over a height greater than that of the downstream deflector. - a valve defining a direct gas passage between the exhaust gas inlet and the gas outlet, the valve comprising a valve body including the gas outlet and housing a gate movable around a pivot link between a closing off position and a released position of the direct gas passage, and - a heat exchanger comprising an exchanger inlet communicating with the valve upstream from the gate, and an exchanger outlet communicating with the valve downstream from the gate, - the valve including a tube comprising the exhaust gas inlet, the tube extending partially inside the valve body, up to a distal end mouth edge, said mouth edge extending in a plane, - the gate has a planar contact surface, intended to come into direct contact with said mouth edge of the tube when the gate is in the closing off position, - the recovery device includes an intermediate pipe extending between the tube and the heat exchanger, - the recovery device includes, at the inlet of the intermediate pipe, an upstream deflector able to guide the gas coming from the exhaust gas inlet toward the direct gas passage, - the upstream deflector is formed by a part of the intermediate pipe, extending in the tube, and - the recovery device comprises a downstream deflector, arranged in the tube downstream from the inlet of the intermediate pipe, and in which the upstream deflector advances in the tube over a height greater than that of the downstream deflector.
An electric insulation material comprising modified nanoparticles dispersed in a polymer matrix wherein said modified nanoparticles comprise a nanoparticle and a diblock copolymer covalently attached to the nanoparticle; said diblock copolymer comprising an inner polymer exhibiting a glass transition temperature below room temperature attached to the nanoparticle and an outer polymer covalently linked to the inner polymer, wherein said outer polymer possesses the same chemical functionality as said polymer matrix and wherein said material is adapted for use in electrical machine windings, cables and bushings.
A method for operating a metal detection system that comprises a balanced coil system with a transmitter coil that is connected to a transmitter unit, which provides transmitter signals having a selectable transmitter frequency (f TX) and with a first and a second receiver coil (22, 23) that provide output signals (s22, s23) to a receiver unit, which compensate one another in the event that the metal detection system is in balance and, in the event that product is present in the balanced coil system, provide an output signal that is forwarded to a signal processing unit, which suppresses at least the components of the product signal and delivers the signal components caused by metal contaminants (MC1, MC2,...) contained in the product, characterised in that it comprises the following steps a) determining the phase and magnitude of the related signals for one or more metal contaminants (MC1; MC2;...)for each of at least two transmitter frequencies and for at least two particle sizes of the metal contaminant (MC1,...); b) determining the phase and magnitude of the related signal for a specific product for the at least two transmitter frequencies; c) comparing the information established for the one or more metal contaminants (MC1; MC2;...) and the information established for the product for the at least two transmitter frequencies; d) determining a preferable transmitter frequency with which the signal components of smallest sized particles of the one or more contaminants (MC1; MC2;...) differ most in phase and amplitude from the phase and amplitude of the product signal; and e) selecting the preferable transmitter frequency for measuring the specific product for each metal contaminant type (MC1; MC2;...); and f1) applying the selected transmitter frequencies alternately and filtering them accordingly in the receiver unit; or f2) applying the selected transmitter frequencies simultaneously and filtering them accordingly in the receiver unit. a) determining the phase and magnitude of the related signals for one or more metal contaminants (MC1; MC2;...)for each of at least two transmitter frequencies and for at least two particle sizes of the metal contaminant (MC1,...); b) determining the phase and magnitude of the related signal for a specific product for the at least two transmitter frequencies; c) comparing the information established for the one or more metal contaminants (MC1; MC2;...) and the information established for the product for the at least two transmitter frequencies; d) determining a preferable transmitter frequency with which the signal components of smallest sized particles of the one or more contaminants (MC1; MC2;...) differ most in phase and amplitude from the phase and amplitude of the product signal; and e) selecting the preferable transmitter frequency for measuring the specific product for each metal contaminant type (MC1; MC2;...); and f1) applying the selected transmitter frequencies alternately and filtering them accordingly in the receiver unit; or f2) applying the selected transmitter frequencies simultaneously and filtering them accordingly in the receiver unit.
A method for accessing a network by an Internet of Things device, the method comprising: sending, by an Internet of Things device, an access request message to an access point according to a service set identifier, SSID, wherein the access request message comprises a universally unique identifier, UUID, the SSID, and a first temporary password pass_tmp pre-configured at the Internet of Things device, the UUID is used to uniquely identify the Internet of Things device, receiving, by the access point, the access request message; and sending, by the access point, an access response message to the Internet of Things device when the first pass_tmp is the same as a second temporary password pass_tmp that is obtained by the access point from a server according to the UUID; receiving, by the Internet of Things device, the access response message sent by the access point, wherein the access response message comprises the SSID and a third password; and accessing, by the Internet of Things device, a network by using the SSID and the third password in the access response message. sending, by an Internet of Things device, an access request message to an access point according to a service set identifier, SSID, wherein the access request message comprises a universally unique identifier, UUID, the SSID, and a first temporary password pass_tmp pre-configured at the Internet of Things device, the UUID is used to uniquely identify the Internet of Things device, receiving, by the access point, the access request message; and sending, by the access point, an access response message to the Internet of Things device when the first pass_tmp is the same as a second temporary password pass_tmp that is obtained by the access point from a server according to the UUID; receiving, by the Internet of Things device, the access response message sent by the access point, wherein the access response message comprises the SSID and a third password; and accessing, by the Internet of Things device, a network by using the SSID and the third password in the access response message.
A tracking reference signal, TRS, burst transmission method, comprising: determining, by a transmit end, to send a first TRS burst in the first slot in a first maximum channel occupancy time, MCOT; if a length of the first MCOT is greater than Y slots, determining, by the transmit end, to send a second TRS burst in a slot that is in the first MCOT and whose distance to a start slot of the first TRS burst is Y slots, wherein Y is an integer greater than or equal to 2; and sending, by the transmit end, indication information to a receive end, wherein the indication information is used to indicate the slot for sending the second TRS burst. determining, by a transmit end, to send a first TRS burst in the first slot in a first maximum channel occupancy time, MCOT; if a length of the first MCOT is greater than Y slots, determining, by the transmit end, to send a second TRS burst in a slot that is in the first MCOT and whose distance to a start slot of the first TRS burst is Y slots, wherein Y is an integer greater than or equal to 2; and sending, by the transmit end, indication information to a receive end, wherein the indication information is used to indicate the slot for sending the second TRS burst.
A fishing tool configured to retrieve a fish from a wellbore, the fishing tool comprising a fish engagement arrangement with fish engagement means configured to lock the fishing tool to the fish inside a well, wherein the fishing tool further comprises an electrically actuated fish disengagement arrangement, which is configured to unlock the fishing tool from the fish, wherein the fish disengagement arrangement comprises an electric actuator, wherein the fish disengagement arrangement comprises a direct mechanical force link between the electric actuator and the fish engagement means, wherein the direct mechanical force link is configured to connect a mechanical force from the electric actuator to the fish engagement means, characterized in that it comprises an electric battery and a control unit, wherein the control unit is programmed to perform repeated disconnection attempts, by operating the electric actuator, in a situation where a first disconnection attempt is unsuccessful.
A method for the anti-corrosion coating of the surfaces of a metal component, in which method the surface of the metal component is subjected to a conversion treatment by being brought into contact with an acidic aqueous composition containing water-soluble compounds of the elements zirconium and/or titanium, as a consequence of which a coating layer of zirconium and/or titanium of at least 10 mg/m 2 is produced directly on the surface of the metal component, characterized in that, with or without an intermediate rinse and/or drying step, a reaction rinse follows this conversion treatment, the reaction rinse taking place by bringing the conversion-treated surface of the metal component into contact with an aqueous composition containing a surface-active substance, which aqueous composition has a pH no lower than 8 and no greater than 10 and contains at least one nonionic surfactant selected from alkoxylated alkyl alcohols as the surface-active substance, and subsequently the surface of the metal component treated in this way is electrocoated with or without an intermediate rinse and/or drying step.
A porous metallic implant prepared for polishing with an abrasive material comprising: a solid first layer; and a porous section comprising a second layer and attachment struts, the second layer being a porous tissue ingrowth structure and having a plurality of struts (240, 245), at least some of the struts defining a porous geometry, the porous geometry defining a plurality of faces at least partially confronting the first layer, each of the faces being bounded by intersecting struts at vertices, wherein less than all of the vertices of each face of the porous geometry at least partially confronting the first layer are connected by a strut to the first layer, each such strut being a first attachment strut, and characterized in that the first attachment struts are longer than other struts of the porous section. a solid first layer; and a porous section comprising a second layer and attachment struts, the second layer being a porous tissue ingrowth structure and having a plurality of struts (240, 245), at least some of the struts defining a porous geometry, the porous geometry defining a plurality of faces at least partially confronting the first layer, each of the faces being bounded by intersecting struts at vertices, wherein less than all of the vertices of each face of the porous geometry at least partially confronting the first layer are connected by a strut to the first layer, each such strut being a first attachment strut, and characterized in that the first attachment struts are longer than other struts of the porous section.
A composition capable of enhancing an IgA immune response and/or an IgG immune response for use in a method of enhancing and/or eliciting an immune response in a subject comprising administering said composition comprising an agent capable of reducing the level of binding of ATP to a P2X7 receptor to a subject, wherein the composition is administered to the subject orally and wherein the agent comprises an ATP-hydrolysing enzyme.
An aircraft flight control system for controlling an aircraft of the type having two elevators that control aircraft pitch, the system comprising: actuators operatively adapted to be coupled to the elevators, the actuators being structured to control positions of the elevators in response to an elevator command; a processing system coupled to the actuators and selectively generating the elevator command; and a manually-manipulable momentary on-off control providing input to the processing system; the processing system being structured to control the elevator actuators based on a longitudinal control law that controls a load factor demand, and to modify the longitudinal control law to set a reference speed during approach and landing in response to said manually-manipulable momentary on-off control input. actuators operatively adapted to be coupled to the elevators, the actuators being structured to control positions of the elevators in response to an elevator command; a processing system coupled to the actuators and selectively generating the elevator command; and a manually-manipulable momentary on-off control providing input to the processing system; the processing system being structured to control the elevator actuators based on a longitudinal control law that controls a load factor demand, and to modify the longitudinal control law to set a reference speed during approach and landing in response to said manually-manipulable momentary on-off control input.
A computer implemented method for determining a copy number variation of a nucleic acid sequence of interest in a test sample comprising cell-free nucleic acid fragments originating from genomes from cancer and somatic cells, the method comprising: (a) receiving sequence reads obtained by sequencing the cell-free nucleic acid fragments in the test sample; (b) aligning the sequence reads of the cell-free nucleic acid fragments to a reference genome comprising the sequence of interest, thereby providing test sequence tags, wherein the reference genome is divided into a plurality of bins; (c) determining sizes of at least some of the cell-free nucleic acid fragments in the test sample; (d) weighting the test sequence tags based on the sizes of cell-free nucleic acid fragments from which the tags are obtained; (e) calculating coverages for the bins based on the weighted test sequence tags; and (f) identifying a copy number variation in the sequence of interest from the calculated coverages by comparison to a qualified sample; and (g) using a copy number variation in the cancer genome to diagnose cancer, monitor the progress of cancer, and/or determine a treatment for cancer. (a) receiving sequence reads obtained by sequencing the cell-free nucleic acid fragments in the test sample; (b) aligning the sequence reads of the cell-free nucleic acid fragments to a reference genome comprising the sequence of interest, thereby providing test sequence tags, wherein the reference genome is divided into a plurality of bins; (c) determining sizes of at least some of the cell-free nucleic acid fragments in the test sample; (d) weighting the test sequence tags based on the sizes of cell-free nucleic acid fragments from which the tags are obtained; (e) calculating coverages for the bins based on the weighted test sequence tags; and (f) identifying a copy number variation in the sequence of interest from the calculated coverages by comparison to a qualified sample; and (g) using a copy number variation in the cancer genome to diagnose cancer, monitor the progress of cancer, and/or determine a treatment for cancer.
A piezoelectric material, comprising a single crystal containing Ca, Ta, an element M (M is Al or Ga), Si, and O, wherein the single crystal has the same crystal structure as a crystal structure of langasite represented by La 3 Ga 5 SiO 14, and characterized in that at least the content of the element M is below that required in the stoichiometric composition represented by Ca 3 TaM 3 Si 2 O 14, and that the oxygen diffusion coefficient of the single crystal is less than 7.0×10 -16 cm 2 /s.
Plug connector having a plug connector housing which has housing walls and a clamping means which can be operated and is mounted on the plug connector housing, and wherein the plug connector housing having a protective-ground conductor connection is designed for the connection, by means of the clamping means which can be operated, of at least one line (101, 102) to the protective-ground conductor connection in a clamping manner, wherein the protective-ground conductor connection has a first connection region and a second connection region, which is separate from the first, for the connection in each case of a line (101, 102) in a clamping manner, and wherein the protective-ground conductor connection further has a protective-ground conductor contact with a contact pin and a connection block, and the contact pin projects at least partially through a housing flange, in the plugging direction of the plug connector housing, characterized in that the first connection region is formed between a substantially semi-cylindrical wall section of the connection block of the protective-ground conductor contact and a housing wall of the plug connector housing, wherein a clamping disk is fitted to the clamping means on the second connection region, and the second connection region is formed between the clamping means and a planar side wall of the connection block of the protective-ground conductor contact, wherein the clamping means projects both through the first and also through the second connection region (14, 15) and wherein a line is clamped against the housing wall in the first connection region and a line is clamped in a screwed manner between the clamping disk and the connection block in the second connection region.
A turbine engine comprising: a first turbine engine assembly; a second turbine engine assembly disposed adjacent to the first turbine engine assembly; a wheel space defined between the first turbine engine assembly and the second turbine engine assembly and configured to receive cooling air therein; a sealing feature located on the first turbine engine assembly and extending axially into the wheel space, characterized in that it further comprises a sealing land assembly, having a sealing land associated with a moveable member, installed in an opening in the second turbine assembly, a biasing member constructed of shape memory alloy associated with the moveable member and configured to bias the moveable member and associated sealing land axially into the wheel space towards the sealing feature as the turbine engines transitions from a cold state to a hot state, wherein the moveable member is configured to receive a bias from a return spring away from the sealing feature to move to a seated position in the opening when the turbine engine transitions to a cold state. a first turbine engine assembly; a second turbine engine assembly disposed adjacent to the first turbine engine assembly; a wheel space defined between the first turbine engine assembly and the second turbine engine assembly and configured to receive cooling air therein; a sealing feature located on the first turbine engine assembly and extending axially into the wheel space, characterized in that it further comprises a sealing land assembly, having a sealing land associated with a moveable member, installed in an opening in the second turbine assembly, a biasing member constructed of shape memory alloy associated with the moveable member and configured to bias the moveable member and associated sealing land axially into the wheel space towards the sealing feature as the turbine engines transitions from a cold state to a hot state, wherein the moveable member is configured to receive a bias from a return spring away from the sealing feature to move to a seated position in the opening when the turbine engine transitions to a cold state.
Method for adapting a feedback suppression device of a hearing device to a prescribed situation by - periodically activating an adaptation process of the feedback suppression device and - performing the adaptation process of the feedback suppression device, wherein the adaptation process involves an adaptive filter for adapting to changes of situation on an acoustic feedback path (g) being adapted, wherein the adaptive filter has an alterable step size that controls the speed of adaptation of the adaptive filter, characterized in that the activation is effected using a periodic, not purely binary, activation signal that has more than two values and wherein the values are altered on the basis of a current hearing situation. - periodically activating an adaptation process of the feedback suppression device and - performing the adaptation process of the feedback suppression device, wherein the adaptation process involves an adaptive filter for adapting to changes of situation on an acoustic feedback path (g) being adapted, wherein the adaptive filter has an alterable step size that controls the speed of adaptation of the adaptive filter,