mhurhangee/ep-ind-claims huggingface dataset:
A fusion splicer wherein: a body of the fusion splicer is provided with a pair of holder installation parts configured to detachably attach optical fiber holders which holds optical fibers and to mutually but the optical fibers in a first direction, and a fusion splicing part configured to mutually fuse and splice the optical fibers by a pair of electrodes opposed along a second direction orthogonal to the first direction, characterized in that each holder installation part of the pair includes a base fixed to the body, and a positioning member in which a holder fitting part fitted into the optical fiber holder is formed in an upper side and a base fitting part fitted into the base is formed in a lower side, the positioning member is attachable to and detachable from each base of the pair and adapted to be replaced from one base of the pair to the other base of the pair by reversing an orientation of the positioning member so as to have a same end of the positioning member turned to the fusion splicing part regardless of whether the positioning member is fitted into said one base or said other base, and in the second direction, the base fitting part has a width, and a center position in the middle of said width arranged such that a projection of said center position in a third direction orthogonal to the first and second directions (X, Y) intersects a projection in the first direction of a center position between the electrodes regardless of whether the positioning member is fitted into said one base or said other base. a body of the fusion splicer is provided with a pair of holder installation parts configured to detachably attach optical fiber holders which holds optical fibers and to mutually but the optical fibers in a first direction, and a fusion splicing part configured to mutually fuse and splice the optical fibers by a pair of electrodes opposed along a second direction orthogonal to the first direction, characterized in that each holder installation part of the pair includes a base fixed to the body, and a positioning member in which a holder fitting part fitted into the optical fiber holder is formed in an upper side and a base fitting part fitted into the base is formed in a lower side, the positioning member is attachable to and detachable from each base of the pair and adapted to be replaced from one base of the pair to the other base of the pair by reversing an orientation of the positioning member so as to have a same end of the positioning member turned to the fusion splicing part regardless of whether the positioning member is fitted into said one base or said other base, and in the second direction, the base fitting part has a width, and a center position in the middle of said width arranged such that a projection of said center position in a third direction orthogonal to the first and second directions (X, Y) intersects a projection in the first direction of a center position between the electrodes regardless of whether the positioning member is fitted into said one base or said other base.
An assembly comprising a turbine engine casing and a bladed rotor wheel arranged inside said casing, the casing presenting an inside wall including a circumferential strip of abradable material wherein in register with the tips of the blades, the casing presents upstream, the strip of abradable material, and downstream a circumferential groove, the strip of abradable material being defined downstream by the circumferential groove; the assembly being characterized in that a downstream end of the circumferential groove is arranged axially in register with or downstream from the trailing edges of the blades.
A fuse base connection terminal apparatus, comprising: a base, wherein at least one conductive copper bar is arranged on the base, wherein a connection bolt and a connection nut for selectively being connected with an external cable are arranged within the base, a groove for mounting the connection nut is arranged on the base and below the conductive copper bar, wherein the connection nut is mounted within the groove, the connection bolt passes upwardly and successively through the connection nut and the conductive copper bar from the groove, and a top end of the connection bolt protrudes beyond the conductive copper bar, wherein the fuse base connection terminal apparatus further comprises three steps arranged on upper surface of the base in step-like manner, with the one conductive copper bar being arranged on each of the steps, and the connection bolt and the connection nut being arranged within each of the steps. a base, wherein at least one conductive copper bar is arranged on the base, wherein a connection bolt and a connection nut for selectively being connected with an external cable are arranged within the base, a groove for mounting the connection nut is arranged on the base and below the conductive copper bar, wherein the connection nut is mounted within the groove, the connection bolt passes upwardly and successively through the connection nut and the conductive copper bar from the groove, and a top end of the connection bolt protrudes beyond the conductive copper bar, wherein the fuse base connection terminal apparatus further comprises three steps arranged on upper surface of the base in step-like manner, with the one conductive copper bar being arranged on each of the steps, and the connection bolt and the connection nut being arranged within each of the steps.
An ultrasonic surgical integrated knife, comprising: a handle, internally provided with an energy transducer; and a blade assembly, comprising a waveguide and an outer sheath which are sleeved with each other, wherein the waveguide and the outer sheath are detachably connected, and the waveguide is fixedly connected with the energy transducer, wherein a conductive ring is arranged on one end, close to the blade assembly, of the energy transducer, characterized in that the waveguide is fixedly connected with the energy transducer by welding connection, and the conductive ring is provided with an oblique plane which extends along an axial direction of the energy transducer, wherein a distance between the oblique plane and an axis of the energy transducer gradually increases from one end close to the blade assembly to the other end far away from the blade assembly, and the handle is further provided with a conductive strip which is abutted against the conductive ring. a handle, internally provided with an energy transducer; and a blade assembly, comprising a waveguide and an outer sheath which are sleeved with each other, wherein the waveguide and the outer sheath are detachably connected, and the waveguide is fixedly connected with the energy transducer, wherein a conductive ring is arranged on one end, close to the blade assembly, of the energy transducer, characterized in that the waveguide is fixedly connected with the energy transducer by welding connection, and the conductive ring is provided with an oblique plane which extends along an axial direction of the energy transducer, wherein a distance between the oblique plane and an axis of the energy transducer gradually increases from one end close to the blade assembly to the other end far away from the blade assembly, and the handle is further provided with a conductive strip which is abutted against the conductive ring.
A method of managing hydrocarbons for a subsurface region, comprising: obtaining a training set of geologically plausible models for the subsurface region; obtaining geophysical data and/or reservoir surveillance data of the subsurface region, training an autoencoder with the training set; extracting a decoder from the trained autoencoder, wherein the decoder comprises a geologic-model-generating function; using the decoder within an objective function to replace output-space variables of the decoder with latent-space variables, wherein a dimensionality of the output-space variables is greater than a dimensionality of the latent-space variables; performing an inversion by identifying one or more minima of the objective function to generate a set of prospective latent-space models for the subsurface region; wherein the inversion is based on at least one of the geophysical data and/or the reservoir surveillance data; using the decoder to convert each of the prospective latent-space models to a respective output-space model; identifying one or more geologic axes for parameters of the geologically plausible models; identifying prospective latent-space models relating to maxima and minima along the geologic axes; estimating an uncertainty in the set of prospective latent-space models based on the maxima and minima along the geologic axes; and estimating an uncertainty in the set of output-space models based on the uncertainty in the set of prospective latent-space models making one or more hydrocarbon management decision based on the estimated uncertainty in the set of output -space models. obtaining a training set of geologically plausible models for the subsurface region; obtaining geophysical data and/or reservoir surveillance data of the subsurface region, training an autoencoder with the training set; extracting a decoder from the trained autoencoder, wherein the decoder comprises a geologic-model-generating function; using the decoder within an objective function to replace output-space variables of the decoder with latent-space variables, wherein a dimensionality of the output-space variables is greater than a dimensionality of the latent-space variables; performing an inversion by identifying one or more minima of the objective function to generate a set of prospective latent-space models for the subsurface region; wherein the inversion is based on at least one of the geophysical data and/or the reservoir surveillance data; using the decoder to convert each of the prospective latent-space models to a respective output-space model; identifying one or more geologic axes for parameters of the geologically plausible models; identifying prospective latent-space models relating to maxima and minima along the geologic axes; estimating an uncertainty in the set of prospective latent-space models based on the maxima and minima along the geologic axes; and estimating an uncertainty in the set of output-space models based on the uncertainty in the set of prospective latent-space models making one or more hydrocarbon management decision based on the estimated uncertainty in the set of output -space models.
Tank connection or electrical connection of a motor vehicle, having a connection bulge to be fixed in a sealed manner in a body opening of the vehicle, a receiving opening for the end stub of a vehicle tank or for the end region of an electrical connection plug being provided in said connection bulge and having a cover carrier which closes the connection bulge and is provided for a bulge cover, said cover carrier being mounted with a curved hinge arm in a hinge housing moulded laterally on the connection bulge around a hinge axis, wherein the cover carrier is held in an open position by a spring which is provided in the region of the hinge axis and counteracts a closing movement and, on the side of the connection bulge, said side being opposite the hinge housing, releasable locking means are provided, for locking the cover carrier in a closed position against the force of this spring, characterised in that the hinge axis is connected to the connection bulge or its hinge housing via a crank and a linear attenuator.
An arrangement for interrupting current comprising a first and a second terminal (11, 12), at least a first, a second, and a third parallel circuit branch arranged between the first and second terminals, the arrangement being adapted to electrically connect two sections (100, 200) of a power system, - the first parallel circuit branch comprising a mechanical main circuit breaker, - the second parallel circuit branch comprising an energy absorbing device, and - the third parallel circuit branch comprising a resonant circuit and a voltage control means arranged in series with the resonant circuit, characterized in that the voltage control means being controllable in use to inject energy into the resonant circuit to force a rapid increase of an alternating current (Io), wherein the alternating current being flowing in a loop containing the first and the third parallel circuit branch as the mechanical main circuit breaker is being controlled to open to interrupt a main current, and whereby zero cross-over of the current through the mechanical main circuit breaker is realized as the alternating current amplitude exceeds the main current amplitude. - the first parallel circuit branch comprising a mechanical main circuit breaker, - the second parallel circuit branch comprising an energy absorbing device, and - the third parallel circuit branch comprising a resonant circuit and a voltage control means arranged in series with the resonant circuit,
A network component of a mobile communication system for configuring a message interface for direct communication between two or more mobile transceivers (20; 30; 40), wherein the two or more mobile transceivers (20; 30; 40) are comprised in two or more vehicles, the network component comprising one or more interfaces configured to communicate with the two or more mobile transceivers (20; 30; 40); and a control module configured to control the one or more interfaces, wherein the control module is further configured to receive information on an application using direct communication between the two or more mobile transceivers (20; 30; 40), receive information on communication capabilities of the two or more mobile transceivers (20; 30; 40), determine information on an overall situation of the two or more vehicles on the road or in a traffic situation; determine, based on the information on the application, based on the information on the overall situation and based on the information on the communication capabilities of the two or more mobile transceivers (20; 30; 40), information on a message interface configuration for configuring the message interface, and provide the information on the message interface configuration to the two or more mobile transceivers (20; 30; 40). one or more interfaces configured to communicate with the two or more mobile transceivers (20; 30; 40); and a control module configured to control the one or more interfaces, wherein the control module is further configured to receive information on an application using direct communication between the two or more mobile transceivers (20; 30; 40), receive information on communication capabilities of the two or more mobile transceivers (20; 30; 40), determine information on an overall situation of the two or more vehicles on the road or in a traffic situation; determine, based on the information on the application, based on the information on the overall situation and based on the information on the communication capabilities of the two or more mobile transceivers (20; 30; 40), information on a message interface configuration for configuring the message interface, and provide the information on the message interface configuration to the two or more mobile transceivers (20; 30; 40). receive information on an application using direct communication between the two or more mobile transceivers (20; 30; 40), receive information on communication capabilities of the two or more mobile transceivers (20; 30; 40), determine information on an overall situation of the two or more vehicles on the road or in a traffic situation; determine, based on the information on the application, based on the information on the overall situation and based on the information on the communication capabilities of the two or more mobile transceivers (20; 30; 40), information on a message interface configuration for configuring the message interface, and provide the information on the message interface configuration to the two or more mobile transceivers (20; 30; 40).
A method for the production of a pyrrolidine derivative, which comprises the following steps: 1) Incubation of the reaction partners a) 5-oxo-pyrrolidine-2-carboxylic acid derivative of the formula I wherein R 1 is a linear alkyl residue with C 1 -C 6; R 2 and R 3 are each independent from each other selected from the group consisting of: H, XH, with each: n = 0 - 20, and X = O or S, b) a compound selected from the group consisting of: N-substituted diamine of the formula II where R 4 is a linear alkyl or acyl residue with C 2 to C 22, and n = 1 - 6; and N-substituted monoamine of the formula III where R 5 is alinear alkyl or acyl residue with C 2 to C 22; and N-substituted fatty amide of the formula IV where R 6 is a linear alkyl group with C 2 to C 24; under appropriate reaction conditions, and 2) Isolation of the obtained pyrrolidine derivative. 1) Incubation of the reaction partners a) 5-oxo-pyrrolidine-2-carboxylic acid derivative of the formula I wherein R 1 is a linear alkyl residue with C 1 -C 6; R 2 and R 3 are each independent from each other selected from the group consisting of: H, XH, with each: n = 0 - 20, and X = O or S, b) a compound selected from the group consisting of: N-substituted diamine of the formula II where R 4 is a linear alkyl or acyl residue with C 2 to C 22, and n = 1 - 6; and N-substituted monoamine of the formula III where R 5 is alinear alkyl or acyl residue with C 2 to C 22; and N-substituted fatty amide of the formula IV where R 6 is a linear alkyl group with C 2 to C 24; under appropriate reaction conditions, and a) 5-oxo-pyrrolidine-2-carboxylic acid derivative of the formula I wherein R 1 is a linear alkyl residue with C 1 -C 6; R 2 and R 3 are each independent from each other selected from the group consisting of: H, XH, with each: n = 0 - 20, and X = O or S, R 1 is a linear alkyl residue with C 1 -C 6; R 2 and R 3 are each independent from each other selected from the group consisting of: H, XH, with each: n = 0 - 20, and X = O or S, n = 0 - 20, and X = O or S, b) a compound selected from the group consisting of: N-substituted diamine of the formula II where R 4 is a linear alkyl or acyl residue with C 2 to C 22, and n = 1 - 6; and N-substituted monoamine of the formula III where R 5 is alinear alkyl or acyl residue with C 2 to C 22; and N-substituted fatty amide of the formula IV where R 6 is a linear alkyl group with C 2 to C 24; N-substituted diamine of the formula II where R 4 is a linear alkyl or acyl residue with C 2 to C 22, and n = 1 - 6; and N-substituted monoamine of the formula III where R 5 is alinear alkyl or acyl residue with C 2 to C 22; and N-substituted fatty amide of the formula IV where R 6 is a linear alkyl group with C 2 to C 24; 2) Isolation of the obtained pyrrolidine derivative.
A method of navigation for a host vehicle, the method comprising the following steps performed by at least one processing device: receiving, from a camera (122, 124, 126), a plurality of images representative of an environment of the host vehicle; analyzing the plurality of images to identify at least one target vehicle in the environment of the host vehicle; analyzing the plurality of images to identify at least one characteristic (2304, 2306, 2308, 2310, 2312, 2314, 2316, 2318) of the target vehicle, wherein the at least one characteristic of the target vehicle is adverse relative to the host vehicle; and causing at least one navigational change of the host vehicle to initiate a pass of the target vehicle in response to identifying the presence of the at least one characteristic of the target vehicle; characterized in that the at least one characteristic of the target vehicle comprises release of particulate matter from the target vehicle. receiving, from a camera (122, 124, 126), a plurality of images representative of an environment of the host vehicle; analyzing the plurality of images to identify at least one target vehicle in the environment of the host vehicle; analyzing the plurality of images to identify at least one characteristic (2304, 2306, 2308, 2310, 2312, 2314, 2316, 2318) of the target vehicle, wherein the at least one characteristic of the target vehicle is adverse relative to the host vehicle; and causing at least one navigational change of the host vehicle to initiate a pass of the target vehicle in response to identifying the presence of the at least one characteristic of the target vehicle; characterized in that the at least one characteristic of the target vehicle comprises release of particulate matter from the target vehicle.
An orthopaedic prosthetic component (13, 16, 17, 18, 19, 23, 24, 27) comprising: an information storage portion for storing information, a transmitter portion coupled to the information storage portion for transmitting a signal related to the information stored in the information storage portion, and an internal power source portion connected to supply power to the transmitter, characterised in that each of the information storage portion, the transmitter portion and the internal power source portion is received within a separate recess, wherein the orthopaedic prosthetic component includes the plurality of recesses, which extend inwardly from a non-articulating surface of the orthopaedic element. an information storage portion for storing information, a transmitter portion coupled to the information storage portion for transmitting a signal related to the information stored in the information storage portion, and an internal power source portion connected to supply power to the transmitter, characterised in that each of the information storage portion, the transmitter portion and the internal power source portion is received within a separate recess, wherein the orthopaedic prosthetic component includes the plurality of recesses, which extend inwardly from a non-articulating surface of the orthopaedic element.
Sensor device for determining the electrical conductivity of a fluid and the speed of sound in the fluid, wherein the sensor device has: - at least one pair of electrodes that has a first electrode and a second electrode electrically isolated from the first electrode, each of which is in direct contact with the fluid, and is designed to determine the electrical conductivity of the fluid in accordance with the conductive principle, and - a sound transducer that is designed to emit sound waves into the fluid in such a way that the sound waves are reflected back to the sound transducer at the first electrode and/or second electrode, and to receive the sound waves reflected back to the sound transducer at least at the first electrode and/or second electrode in order to determine the speed of sound in the fluid. - at least one pair of electrodes that has a first electrode and a second electrode electrically isolated from the first electrode, each of which is in direct contact with the fluid, and is designed to determine the electrical conductivity of the fluid in accordance with the conductive principle, and - a sound transducer that is designed to emit sound waves into the fluid in such a way that the sound waves are reflected back to the sound transducer at the first electrode and/or second electrode, and to receive the sound waves reflected back to the sound transducer at least at the first electrode and/or second electrode in order to determine the speed of sound in the fluid.
A method for controlling a data rate of at least a first UE in a multi-user communication system, the method comprising: determining a channel estimate for a plurality of different reverse-link signals to produce a plurality of channel estimates; determining a first signal-to-noise, SNR, ratio for the first UE using the plurality of different channels estimates; and determining a first reverse-link data rate using the first SNR, a power amplifier overhead of the first UE, and an existing power spectral density, PSD, of the first UE. determining a channel estimate for a plurality of different reverse-link signals to produce a plurality of channel estimates; determining a first signal-to-noise, SNR, ratio for the first UE using the plurality of different channels estimates; and determining a first reverse-link data rate using the first SNR, a power amplifier overhead of the first UE, and an existing power spectral density, PSD, of the first UE.