mhurhangee/ep-ind-claims huggingface dataset:
A hinge device for connecting a first housing and second housing of a portable terminal, the hinge device comprising: a first hinge base disposed on one side of an end portion of the first housing; a second hinge base disposed on one side of an end portion of the second housing and adapted to rotate with respect first hinge base about a rotation axis that is provided at the sides of the housings and extending along the longitudinal direction of the housings; an elastic member adapted to provide an elastic force urging the first and second hinge bases toward each other, wherein the elastic force allows the angle between the first hinge base and the second hinge base to be maintained at every angle of rotation of the hinge bases comprised between restricted positions about the rotation axis; a first rotation cylinder adapted to extend from the first hinge base along the rotation axis; a second rotation cylinder adapted to extend from the second hinge base along the rotation axis, wherein the second rotation cylinder is adapted to penetrate the first rotation cylinder and rotate within the first rotation cylinder along the rotation axis; and a rotation groove disposed in the second hinge base to surround the second rotation cylinder, wherein one end of the first rotation cylinder is adapted to slide in the rotation groove, a frictional force being generated between the said end of the first rotation cylinder (211 and the rotation groove by the elastic force of the elastic member 203), the generated frictional force suppressing rotation of the first housing and the second housing with respect to each other. a first hinge base disposed on one side of an end portion of the first housing; a second hinge base disposed on one side of an end portion of the second housing and adapted to rotate with respect first hinge base about a rotation axis that is provided at the sides of the housings and extending along the longitudinal direction of the housings; an elastic member adapted to provide an elastic force urging the first and second hinge bases toward each other, wherein the elastic force allows the angle between the first hinge base and the second hinge base to be maintained at every angle of rotation of the hinge bases comprised between restricted positions about the rotation axis; a first rotation cylinder adapted to extend from the first hinge base along the rotation axis; a second rotation cylinder adapted to extend from the second hinge base along the rotation axis, wherein the second rotation cylinder is adapted to penetrate the first rotation cylinder and rotate within the first rotation cylinder along the rotation axis; and a rotation groove disposed in the second hinge base to surround the second rotation cylinder, wherein one end of the first rotation cylinder is adapted to slide in the rotation groove, a frictional force being generated between the said end of the first rotation cylinder (211 and the rotation groove by the elastic force of the elastic member 203), the generated frictional force suppressing rotation of the first housing and the second housing with respect to each other.
Laser pointing system for monitoring the stability of civil structures and historic buildings, comprising: - a laser emitter located at a single point of a structure; characterised in that said laser emitter is constituted by two or more independent laser sources (104, 105,...) emitting laser beams adjustable towards their respective optical targets (102, 103,...); each of said targets including a photocamera or camera, and being installed in a fixed position at a distance from the structure in their predetermined positions, in sight with respect to the laser beams; and wherein said laser emitter is composed by a connection element that allows, through the screwing of some bolts, to be hooked to the structure of which the displacement is to be measured, being fully in agreement to the measurement point; - processing means for each of said photocameras or cameras, used for processing the acquired images, for the detection and storage of coordinates of the laser beam detected in each image; - an electronic control unit which is configured through a means of communication to acquire the above coordinates acquired from each of the above photocameras or cameras and, through processing means to apply a formula to determine the displacements corresponding to the single point of the structure. - a laser emitter located at a single point of a structure; characterised in that said laser emitter is constituted by two or more independent laser sources (104, 105,...) emitting laser beams adjustable towards their respective optical targets (102, 103,...); each of said targets including a photocamera or camera, and being installed in a fixed position at a distance from the structure in their predetermined positions, in sight with respect to the laser beams; and wherein said laser emitter is composed by a connection element that allows, through the screwing of some bolts, to be hooked to the structure of which the displacement is to be measured, being fully in agreement to the measurement point; - processing means for each of said photocameras or cameras, used for processing the acquired images, for the detection and storage of coordinates of the laser beam detected in each image; - an electronic control unit which is configured through a means of communication to acquire the above coordinates acquired from each of the above photocameras or cameras and, through processing means to apply a formula to determine the displacements corresponding to the single point of the structure.
An optical waveguide device comprising: a rib-type optical waveguide formed of a material having an electro-optic effect; and a reinforcing substrate that supports the rib-type optical waveguide, wherein one end of the rib-type optical waveguide has a tapered portion, structures are provided that are disposed apart from the tapered portion so as to sandwich the tapered portion and are disposed on the reinforcing substrate, the height of the structures is the same as or higher than the height of the rib-type optical waveguide, the clearance between the structures is set to be at least twice the width of the rib-type optical waveguide, an upper substrate is disposed above the tapered portion and the structures, an adhesive layer is disposed in a space sandwiched between the upper substrate and the reinforcing substrate and between the structures, and a refractive index of the adhesive layer is greater than refractive indexes of the reinforcing substrate and the upper substrate and the structures. a rib-type optical waveguide formed of a material having an electro-optic effect; and a reinforcing substrate that supports the rib-type optical waveguide, wherein one end of the rib-type optical waveguide has a tapered portion, structures are provided that are disposed apart from the tapered portion so as to sandwich the tapered portion and are disposed on the reinforcing substrate, the height of the structures is the same as or higher than the height of the rib-type optical waveguide, the clearance between the structures is set to be at least twice the width of the rib-type optical waveguide, an upper substrate is disposed above the tapered portion and the structures, an adhesive layer is disposed in a space sandwiched between the upper substrate and the reinforcing substrate and between the structures, and a refractive index of the adhesive layer is greater than refractive indexes of the reinforcing substrate and the upper substrate and the structures.
A prepreg comprising an epoxy resin composition containing an epoxy resin and a curing agent, and a reinforcing fiber, wherein the epoxy resin composition satisfies the following conditions (a) to (e): (a) an epoxy resin represented by the general formula is contained as the epoxy resin in an amount of 50 to 100 parts by mass in 100 parts by mass of the entire epoxy resin, and [A1'] an epoxy resin satisfying an inequality: n ≥ 2 among the component is contained in an amount of 50 to 80 parts by mass in 100 parts by mass of the entire epoxy resin; wherein, in the general formula, R 1, R 2 and R 3 each independently represent a hydrogen atom or a methyl group, and n represents an integer of 1 or more; (b) the entire epoxy resin has an average epoxy equivalent of 165 to 265 g/eq, wherein the average epoxy equivalent is measured as described in the description; (c) a water absorption coefficient as determined when the epoxy resin composition is stored in an atmosphere at 85°C and 95%RH for 2 hours is 3.0% by mass or less based on 100% by mass of the epoxy resin composition, wherein the water absorption coefficient is measured as described in the description; (d) an aromatic urea is contained as a curing agent; and (e) the content of dicyandiamide of the curing agent is 0.5 part by mass or less based on 100 parts by mass of the entire epoxy resin. (a) an epoxy resin represented by the general formula is contained as the epoxy resin in an amount of 50 to 100 parts by mass in 100 parts by mass of the entire epoxy resin, and [A1'] an epoxy resin satisfying an inequality: n ≥ 2 among the component is contained in an amount of 50 to 80 parts by mass in 100 parts by mass of the entire epoxy resin; wherein, in the general formula, R 1, R 2 and R 3 each independently represent a hydrogen atom or a methyl group, and n represents an integer of 1 or more; (b) the entire epoxy resin has an average epoxy equivalent of 165 to 265 g/eq, wherein the average epoxy equivalent is measured as described in the description; (c) a water absorption coefficient as determined when the epoxy resin composition is stored in an atmosphere at 85°C and 95%RH for 2 hours is 3.0% by mass or less based on 100% by mass of the epoxy resin composition, wherein the water absorption coefficient is measured as described in the description; (d) an aromatic urea is contained as a curing agent; and (e) the content of dicyandiamide of the curing agent is 0.5 part by mass or less based on 100 parts by mass of the entire epoxy resin.
A method in a network node for assisting a base station in downloading a requested web page, said network node operates in a wireless communications network and said requested web page is to be downloaded to a user equipment, the method comprising: obtaining a first value of a set of features related to the requested web page, and wherein said set of features represents any one out of: a content of the requested web page, the user equipment and a web browser in the user equipment, predicting whether or not it is beneficial regarding download time to activate an uplink grant pre-allocation for the user equipment for downloading the requested web page based on: comparing between the first value of said set of features and of a second value of said set of features, said second value is related to a previously downloaded web page, and an evaluation whether or not it is beneficial regarding download time to activate the uplink grant pre-allocation for the previously downloaded web page, and providing to the base station the result of said predicting whether or not it is beneficial regarding download time to activate the uplink grant pre-allocation for the user equipment for downloading the requested web page. obtaining a first value of a set of features related to the requested web page, and wherein said set of features represents any one out of: a content of the requested web page, the user equipment and a web browser in the user equipment, predicting whether or not it is beneficial regarding download time to activate an uplink grant pre-allocation for the user equipment for downloading the requested web page based on: comparing between the first value of said set of features and of a second value of said set of features, said second value is related to a previously downloaded web page, and an evaluation whether or not it is beneficial regarding download time to activate the uplink grant pre-allocation for the previously downloaded web page, and providing to the base station the result of said predicting whether or not it is beneficial regarding download time to activate the uplink grant pre-allocation for the user equipment for downloading the requested web page. comparing between the first value of said set of features and of a second value of said set of features, said second value is related to a previously downloaded web page, and an evaluation whether or not it is beneficial regarding download time to activate the uplink grant pre-allocation for the previously downloaded web page, and providing to the base station the result of said predicting whether or not it is beneficial regarding download time to activate the uplink grant pre-allocation for the user equipment for downloading the requested web page.
A method of wireless communication at a user equipment, UE, comprising: transmitting, from the UE, a first random access message 1; transmitting, from the UE, a second random access message 1 in response to determining that a first random access message 2 control portion has not been received during a first portion of a first random access response, RAR, window; monitoring for the first random access message 2 control portion and a second random access message 2 control portion concurrently during a second portion of the first RAR window, wherein a coverage enhanced monitoring procedure for the second random access message 2 control portion is different than a monitoring procedure for the first random access message 2 control portion, wherein the coverage enhanced monitoring procedure includes soft combining multiple control portion candidates over multiple monitoring occasions before decoding the second random access message 2 control portion or monitoring for an alternative size of downlink control information, DCI, for the second random access message 2 control portion or determining an alternative interpretation of a DCI for the second random access message 2 control portion; receiving and decoding a random access message 2 control portion, the random access message 2 control portion being one of the first random access message 2 control portion or the second random access message 2 control portion; and monitoring for a random access message 2 data portion in response to decoding the random access message 2 control portion. transmitting, from the UE, a first random access message 1; transmitting, from the UE, a second random access message 1 in response to determining that a first random access message 2 control portion has not been received during a first portion of a first random access response, RAR, window; receiving and decoding a random access message 2 control portion, the random access message 2 control portion being one of the first random access message 2 control portion or the second random access message 2 control portion; and monitoring for a random access message 2 data portion in response to decoding the random access message 2 control portion.
An optical fiber, comprising: a glass fiber including a core and a clad; a primary resin layer that coats the glass fiber by being in contact with the glass fiber; and a secondary resin layer that coats the primary resin layer, wherein the secondary resin layer is formed from a cured product of a resin composition that includes a base resin containing a urethane (meth)acrylate oligomer, a monomer, and a photopolymerization initiator; and inorganic oxide particles, a volume average particle size of the inorganic oxide particles as measured by a small angle X-ray scattering method is 800 nm or less, and a standardized dispersion of the volume average particle size is 60% or less, and the inorganic oxide particles are surface-treated with a silane compound selected from the group consisting of 3-methacryloxypropyltrimethoxysilane, 3-acryloxypropyltrimethoxysilane, 3-methacryloxypropyltriethoxysilane, 3-acryloxypropyltriethoxysilane, 8-methacryloxyoctyltrimethoxysilane, 8-acryloxyoctyltrimethoxysilane, 7-octenyltrimethoxysilane, vinyltrimethoxysilane, and vinyltriethoxysilane, to be hydrophobic inorganic oxide particles. a glass fiber including a core and a clad; a primary resin layer that coats the glass fiber by being in contact with the glass fiber; and a secondary resin layer that coats the primary resin layer, wherein the secondary resin layer is formed from a cured product of a resin composition that includes a base resin containing a urethane (meth)acrylate oligomer, a monomer, and a photopolymerization initiator; and inorganic oxide particles, a volume average particle size of the inorganic oxide particles as measured by a small angle X-ray scattering method is 800 nm or less, and a standardized dispersion of the volume average particle size is 60% or less, and the inorganic oxide particles are surface-treated with a silane compound selected from the group consisting of 3-methacryloxypropyltrimethoxysilane, 3-acryloxypropyltrimethoxysilane, 3-methacryloxypropyltriethoxysilane, 3-acryloxypropyltriethoxysilane, 8-methacryloxyoctyltrimethoxysilane, 8-acryloxyoctyltrimethoxysilane, 7-octenyltrimethoxysilane, vinyltrimethoxysilane, and vinyltriethoxysilane, to be hydrophobic inorganic oxide particles.
Transceiver using a given frequency band to simultaneously transmit a transmit S TX out signal and to receive a receive signal S RX in, characterised in that it comprises: a duplexer comprising an input port receiving a signal to be transmitted S TX in, an output port supplying a received signal S RX out as well as a common port; a bidirectional frequency transposition module comprising a first input/output connected to the common port of the duplexer as well as a second input/output which receives the receive signal S RX in and which supplies said received signal S RX out, said frequency transposition module being suitable for transposing, the signal to be transmitted S TX in by a predetermined frequency difference, Δ F, in order to obtain the transmit signal S TX out, and to transpose the receive signal S RX in by the same frequency difference, in order to obtain the received signal S RX out, the frequency band of the signal to be transmitted and the frequency band of the received signal thus being separated by a frequency gap which is double said predetermined frequency difference, the predetermined frequency difference Δ F being chosen such that Δ F > ( B TX + B RX) /4 where B TX is the transmit signal band and B RX is the receive signal band. a duplexer comprising an input port receiving a signal to be transmitted S TX in, an output port supplying a received signal S RX out as well as a common port; a bidirectional frequency transposition module comprising a first input/output connected to the common port of the duplexer as well as a second input/output which receives the receive signal S RX in and which supplies said received signal S RX out, said frequency transposition module being suitable for transposing, the signal to be transmitted S TX in by a predetermined frequency difference, Δ F, in order to obtain the transmit signal S TX out, and to transpose the receive signal S RX in by the same frequency difference, in order to obtain the received signal S RX out, the frequency band of the signal to be transmitted and the frequency band of the received signal thus being separated by a frequency gap which is double said predetermined frequency difference, the predetermined frequency difference Δ F being chosen such that Δ F > ( B TX + B RX) /4 where B TX is the transmit signal band and B RX is the receive signal band.
A method for producing a cold-brew coffee extract, comprising the steps of: adding water to coffee beans to form a suspension; wet grinding said suspension in multiple steps to an average particle size of 100 μm or less; subjecting said suspension to one or more separation steps, wherein the suspension is separated into at least one liquid phase and a solid phase, said liquid phase comprising coffee aroma, and said solid phase comprising coffee powder and water as major components; and further processing at least the water phase to provide the cold-brew coffee extract; wherein the temperature of the suspension during steps to and the temperature of the water phase during step does not exceed 47°C, and wherein steps to are performed within a time frame of 40 seconds to 2 minutes. adding water to coffee beans to form a suspension; wet grinding said suspension in multiple steps to an average particle size of 100 μm or less; subjecting said suspension to one or more separation steps, wherein the suspension is separated into at least one liquid phase and a solid phase, said liquid phase comprising coffee aroma, and said solid phase comprising coffee powder and water as major components; and further processing at least the water phase to provide the cold-brew coffee extract;
Carrying device comprising - a carrying frame; - an energy store which is carried by the carrying frame; - a converter device, which is carried by the carrying frame, for converting an electric current drawn from the energy store; and comprising - an electrical connection device, which is carried by the carrying frame, for connecting a consumer; wherein: - the carrying frame is designed as a carrying plate or carrying rack; - the carrying device is designed as a rucksack; - two straps are provided for carrying the carrying device over the two shoulders of a user; - the converter device is a frequency converter, which is electrically connected to the energy store, for converting an electric direct current drawn from the energy store into an alternating current; - the connection device is designed as a plug socket or connection socket; - the energy store is fastened to the carrying frame in an exchangeable manner; - a receiver for the energy store is provided for fastening the energy store to the carrying frame; - the energy store can be inserted into the receiver in an exchangeable manner; - the energy store is held in the receiver by a locking device; and wherein - the converter device is arranged underneath the energy store and the receiver. - a carrying frame; - an energy store which is carried by the carrying frame; - a converter device, which is carried by the carrying frame, for converting an electric current drawn from the energy store; and comprising - an electrical connection device, which is carried by the carrying frame, for connecting a consumer; - the carrying frame is designed as a carrying plate or carrying rack; - the carrying device is designed as a rucksack; - two straps are provided for carrying the carrying device over the two shoulders of a user; - the converter device is a frequency converter, which is electrically connected to the energy store, for converting an electric direct current drawn from the energy store into an alternating current; - the connection device is designed as a plug socket or connection socket; - the energy store is fastened to the carrying frame in an exchangeable manner; - a receiver for the energy store is provided for fastening the energy store to the carrying frame; - the energy store can be inserted into the receiver in an exchangeable manner; - the energy store is held in the receiver by a locking device; and wherein - the converter device is arranged underneath the energy store and the receiver.
A method for the delay-minimized detection of an auxiliary control variable for a system comprising a controlled system and a controller, wherein at the end of the controlled system an output variable is detected, wherein within the controlled system a disturbance variable (Q s) takes hold, wherein in the controlled system at a point before the point of application of the disturbance variable (Q s) a state variable is detected, wherein the auxiliary control variable is calculated from the state variable evaluated with a constant k x and an estimation error (e), wherein the estimation error (e) is calculated from a comparison of the detected output variable and the integrated auxiliary control variable, and characterized in that the system is a hydraulic system with a hydraulic fluid, and that the constant k x is inversely proportional to the capacitance (c) of the hydraulic system and is proportional to the engine speed (n) and to the pump delivery rate.