mhurhangee/ep-ind-claims huggingface dataset:
Flow-through device for arranging on a fluid-conducting line and for attaching a flowmeter, in particular an ultrasonic flowmeter, for detecting a measurement variable of the fluid conducted by the line, the flow-through device comprising: - a first and a second connector (12, 14), by means of which the flow-through device can be connected to the fluid-conducting line, - a measurement region arranged between the first connector and the second connector, which measurement region can be coupled to the flowmeter for detecting the measurement variable, wherein the first connector, the measurement region and the second connector define a flow path for the fluid through the flow-through device, wherein the measurement region comprises at least two contact surfaces, which extend along at least part of the flow path, for contacting the flowmeter, characterized in that the at least two contact surfaces are designed to secrete a coupling medium under the effect of a pressing force. - a first and a second connector (12, 14), by means of which the flow-through device can be connected to the fluid-conducting line, - a measurement region arranged between the first connector and the second connector, which measurement region can be coupled to the flowmeter for detecting the measurement variable, wherein the first connector, the measurement region and the second connector define a flow path for the fluid through the flow-through device, wherein the measurement region comprises at least two contact surfaces, which extend along at least part of the flow path, for contacting the flowmeter, characterized in that the at least two contact surfaces are designed to secrete a coupling medium under the effect of a pressing force.
A clustered Single-Carrier Frequency Division Multiple Access, SC-FDMA, transmitting apparatus comprising: a transforming section configured to transform a symbol in a time domain into a signal in a frequency domain by performing discrete Fourier transformation, DFT, on the symbol in the time domain; a mapper configured to map the signal in the frequency domain on a plurality of discontinuous frequency bands; and a time-domain clustered SC-FDMA signal transmitting section configured to transmit a time-domain clustered SC-FDMA signal, obtained from the mapped signal in the frequency domain, characterized in that the DFT is performed using a DFT matrix with a DFT size which is a product of powers of a plurality of values; a vector length, corresponding to a size of each of the plurality of discontinuous frequency bands, is a product of two or more powers of prime numbers or a multiple of the product of the two or more powers of prime numbers, each prime number being equal to or larger than two and the two or more prime numbers are different from each other, the vector length being a number of subcarriers allocated to each of the plurality of discontinuous frequency bands, and wherein the vector length is a partially orthogonal vector length of column vectors constituting the DFT matrix. a transforming section configured to transform a symbol in a time domain into a signal in a frequency domain by performing discrete Fourier transformation, DFT, on the symbol in the time domain; a mapper configured to map the signal in the frequency domain on a plurality of discontinuous frequency bands; and a time-domain clustered SC-FDMA signal transmitting section configured to transmit a time-domain clustered SC-FDMA signal, obtained from the mapped signal in the frequency domain, characterized in that the DFT is performed using a DFT matrix with a DFT size which is a product of powers of a plurality of values; a vector length, corresponding to a size of each of the plurality of discontinuous frequency bands, is a product of two or more powers of prime numbers or a multiple of the product of the two or more powers of prime numbers, each prime number being equal to or larger than two and the two or more prime numbers are different from each other, the vector length being a number of subcarriers allocated to each of the plurality of discontinuous frequency bands, and wherein the vector length is a partially orthogonal vector length of column vectors constituting the DFT matrix.
An article of footwear, comprising: a harness, the harness including a base layer and a threading layer, the threading layer configured to attach to the base layer; the threading layer comprising threads arranged in a first thread group and a second thread group, the first thread group including a first end portion and a second end portion, wherein the threads extend radially outward from the first end portion to the second end portion; the second thread group including a third end portion and a fourth end portion, wherein the threads extend radially outward from the third end portion to the fourth end portion; the first end portion of the first thread group bering substantially spaced apart from the third end portion of the second thread group by a thread gap, and wherein the base layer includes a notch associated with the thread gap. a harness, the harness including a base layer and a threading layer, the threading layer configured to attach to the base layer; the threading layer comprising threads arranged in a first thread group and a second thread group, the first thread group including a first end portion and a second end portion, wherein the threads extend radially outward from the first end portion to the second end portion; the second thread group including a third end portion and a fourth end portion, wherein the threads extend radially outward from the third end portion to the fourth end portion; the first end portion of the first thread group bering substantially spaced apart from the third end portion of the second thread group by a thread gap, and wherein the base layer includes a notch associated with the thread gap.
Underlay board, having a polygonal horizontal section, an underside designed for laying on an under-surface, a topside designed to receive a floor covering and a number of narrow edges (2, 3, 4, 5) arranged all the way around it, where the underlay board is designed to be damp-proof, the underside is provided with a large number of grooves that cross over one another, and along at least one edge (2, 3, 4, 5) a groove described as an edge groove delimits the underside and extends over a length that corresponds to at least the space between two adjacent grooves that meet this edge angularly, characterised in that grooves running parallel to one other are set at different spaces apart.
Method for processing polyethylene terephthalate comprising: - supplying PET raw material having an intrinsic viscosity comprised between 0.80 dL/g and 0.85 dL/g; - drying the PET raw material at a temperature of 150°C or below to a target moisture level between 60ppm and 250ppm, the drying of the PET using drying air having a dew point of -40°C or higher, preferably, about -30°C, and a residence time of the PET raw material in a dryer comprised between one and four hours, preferably between one and three hours; - plasticizing the PET having a moisture level between 60ppm and 250ppm to generate a hydrolysis of PET during plasticization resulting in a controlled drop of intrinsic viscosity of the PET to reach targeted intrinsic viscosity between 0.70 dL/g and 0.76 dL/g; and - injecting the plasticized PET into a mold. - supplying PET raw material having an intrinsic viscosity comprised between 0.80 dL/g and 0.85 dL/g; - drying the PET raw material at a temperature of 150°C or below to a target moisture level between 60ppm and 250ppm, the drying of the PET using drying air having a dew point of -40°C or higher, preferably, about -30°C, and a residence time of the PET raw material in a dryer comprised between one and four hours, preferably between one and three hours; - plasticizing the PET having a moisture level between 60ppm and 250ppm to generate a hydrolysis of PET during plasticization resulting in a controlled drop of intrinsic viscosity of the PET to reach targeted intrinsic viscosity between 0.70 dL/g and 0.76 dL/g; and - injecting the plasticized PET into a mold.
Tubular containment part for a flywheel containment assembly, wherein the tubular containment casing part is made up of layers of different materials, characterized in that the layers of different material of the tubular containment casing part are continuous layers spirally wound over each other, the continuous layers comprising a first layer of a structural material and one or more successive layers made up of one or more different materials wherein the inside wall of the tubular casing part is formed by the structural material of the first layer.
A data writing method, comprising: determining whether a start storage address of a first data block is aligned with a bus bit width of a storage; in response to that the start storage address of the first data block is not aligned with the bus bit width of the storage, determining whether a second data block which is a data block stored in memory immediately before the first data block is compressed; in response to that the second data block is compressed, executing complete writing on a first beat of the first data block, wherein a bit width of the complete writing is equal to the bus bit width of the storage; in response to that it is determined that the second data block is not compressed, executing a partial writing on the first beat of the first data block; and in response to that the start storage address of the first data block is aligned with the bus bit width of the storage, directly executing the complete writing on the first beat of the first data block. determining whether a start storage address of a first data block is aligned with a bus bit width of a storage; in response to that the start storage address of the first data block is not aligned with the bus bit width of the storage, determining whether a second data block which is a data block stored in memory immediately before the first data block is compressed; in response to that the second data block is compressed, executing complete writing on a first beat of the first data block, wherein a bit width of the complete writing is equal to the bus bit width of the storage; in response to that it is determined that the second data block is not compressed, executing a partial writing on the first beat of the first data block; and in response to that the start storage address of the first data block is aligned with the bus bit width of the storage, directly executing the complete writing on the first beat of the first data block.
A process for producing at least two lube boiling range fractions including a light oil lube fraction and a heavy oil lube fraction, which comprises: hydrocracking a hydrocarbon feed in a first hydrocracking step under a first hydrocracking regime to provide a hydrocrackate with a boiling range suitable for the heavy oil fraction, fractionating the hydrocrackate to separate at least a first portion for the light oil fraction and a second portion for the heavy oil fraction; hydrocracking the portion for the light oil fraction in a second hydrocracking step under a second hydrocracking regime to form a second light oil hydrocrackate with a boiling range suitable for the light oil fraction, wherein the first hydrocracking step and the second hydrocracking step are carried out in a common hydroprocessing reactor containing a plurality of beds in sequence, the first portion for the light oil fraction and the second portion for the heavy oil fraction being introduced at different points in the sequence to form a combined hydrocrackate, processing the combined hydrocrackate by hydrodewaxing and hydrofinishing to meet product specifications for the light oil lube fraction and the heavy oil lube fraction and form a combined stream of a finished light oil lube fraction and a finished heavy oil lube fraction, and fractionating the combined stream to separate the finished light oil lube fraction and the finished heavy oil lube fraction. hydrocracking a hydrocarbon feed in a first hydrocracking step under a first hydrocracking regime to provide a hydrocrackate with a boiling range suitable for the heavy oil fraction, fractionating the hydrocrackate to separate at least a first portion for the light oil fraction and a second portion for the heavy oil fraction; hydrocracking the portion for the light oil fraction in a second hydrocracking step under a second hydrocracking regime to form a second light oil hydrocrackate with a boiling range suitable for the light oil fraction, wherein the first hydrocracking step and the second hydrocracking step are carried out in a common hydroprocessing reactor containing a plurality of beds in sequence, the first portion for the light oil fraction and the second portion for the heavy oil fraction being introduced at different points in the sequence to form a combined hydrocrackate, processing the combined hydrocrackate by hydrodewaxing and hydrofinishing to meet product specifications for the light oil lube fraction and the heavy oil lube fraction and form a combined stream of a finished light oil lube fraction and a finished heavy oil lube fraction, and fractionating the combined stream to separate the finished light oil lube fraction and the finished heavy oil lube fraction.
A smart sensor, comprising: a plurality of analog-to-digital converters (101a,b,c,d), ADCs, configured to receive analog signals from a sensor module (103a,b,c,d); a plurality of channel modules (105a,b,c,d), each channel module (105a,b,c,d) having a channel (105a,b,c,d) and being connected to a respective ADC (101a,b,c,d), each channel module (105a,b,c,d) comprising a limited data processing module (107a,b,c,d) configured to provide initial processing; a data control module operatively connected to each of the plurality of channel modules (105a,b,c,d) and configured to select a selected channel (105a,b,c,d) of the plurality of channel modules (105a,b,c,d) to receive initially processed data from the limited data processing module (107a,b,c,d) of the selected channel (105a,b,c,d), characterized in that the data control module includes a data handler configured to switch between the plurality of channels (105a,b,c,d) based on a sampling rate of a respective channel (105a,b,c,d), and wherein the data control module is configured to interface an external memory to store data in the external memory and/or to read data from the external memory; and a batch processing module operatively connected to the data control module and configured to receive the initially processed data of the selected channel (105a,b,c,d) from the data control module to provide further processing of the initially processed data. a plurality of analog-to-digital converters (101a,b,c,d), ADCs, configured to receive analog signals from a sensor module (103a,b,c,d); a plurality of channel modules (105a,b,c,d), each channel module (105a,b,c,d) having a channel (105a,b,c,d) and being connected to a respective ADC (101a,b,c,d), each channel module (105a,b,c,d) comprising a limited data processing module (107a,b,c,d) configured to provide initial processing; a data control module operatively connected to each of the plurality of channel modules (105a,b,c,d) and configured to select a selected channel (105a,b,c,d) of the plurality of channel modules (105a,b,c,d) to receive initially processed data from the limited data processing module (107a,b,c,d) of the selected channel (105a,b,c,d), characterized in that the data control module includes a data handler configured to switch between the plurality of channels (105a,b,c,d) based on a sampling rate of a respective channel (105a,b,c,d), and wherein the data control module is configured to interface an external memory to store data in the external memory and/or to read data from the external memory; and a batch processing module operatively connected to the data control module and configured to receive the initially processed data of the selected channel (105a,b,c,d) from the data control module to provide further processing of the initially processed data.
A clamping claw to be attached to a slide rail of an operating table, comprising a main body, a clamping structure (42, 44, 56, 74, 84, 88), which is attached to the main body and which has at least one contact element (42, 44, 56) formed to bear on the slide rail, and an actuating element, which is operationally-connected to the clamping structure (42, 44, 56, 74, 84, 88) and by which the clamping structure (42, 44, 56, 74, 84, 88) is movable into a locked state, in which the contact element (42, 44, 56) of the clamping structure (42, 44, 56, 74, 84, 88) bears on the slide rail, wherein, in the locked state of the clamping structure (42, 44, 56, 74, 84, 88), the contact element (42, 44, 56) engages on at least one edge region (24, 28) of the slide rail, in which a rail edge (22, 26) is located between two rail faces (14, 16, 18) inclined in relation to one another, wherein the contact element (42, 44, 56) has two contact faces (50, 52, 68, 70) and an edge recess (54, 72) arranged between the contact faces (54, 72), characterized in that, in the locked state of the clamping structure (42, 44, 56, 74, 84, 88), in in which one of the two contact faces (50, 52, 68, 70) bears on one of the two rail faces (14, 16, 18) and the other contact face bears on the other rail face, the edge recess (54, 72) accommodates the rail edge (22, 26) without contact.
A method performed by a network node, for handling User Equipment, UE, capabilities of a UE in a wireless communications network, the method comprising: sending to an Access and Mobility management Function, AMF, node, a first indication indicating whether or not the network node has capabilities to store UE capabilities associated with the UE capability ID, receiving from the AMF node, a second indication indicating whether or not UE capabilities associated with a capability identity of the UE, UE capability ID, are available in the AMF node, deciding whether explicit UE capabilities associated with the UE capability ID shall be retrieved from the UE or the AMF node based on the received second indication. sending to an Access and Mobility management Function, AMF, node, a first indication indicating whether or not the network node has capabilities to store UE capabilities associated with the UE capability ID, receiving from the AMF node, a second indication indicating whether or not UE capabilities associated with a capability identity of the UE, UE capability ID, are available in the AMF node, deciding whether explicit UE capabilities associated with the UE capability ID shall be retrieved from the UE or the AMF node based on the received second indication.
A method for producing products made of composite material, characterized in that it comprises the following operating steps: - placing between a first mould and at least a second mould at least one fabric layer of composite material fibre fabric and at least a first layer of composite material fibres, wherein a resin layer of non-polymerized, composite material resin, substantially free of hardener, is placed between the fabric layer and the first mould; - injecting resin and hardener between the first mould and the second mould to impregnate the fabric layer and the first fibre layer with the injected resin and polymerizing the injected resin and the resin layer with the injected hardener. - placing between a first mould and at least a second mould at least one fabric layer of composite material fibre fabric and at least a first layer of composite material fibres, wherein a resin layer of non-polymerized, composite material resin, substantially free of hardener, is placed between the fabric layer and the first mould; - injecting resin and hardener between the first mould and the second mould to impregnate the fabric layer and the first fibre layer with the injected resin and polymerizing the injected resin and the resin layer with the injected hardener.
A device in a wireless communication system, comprising: an access determination unit configured to determine an access requirement of a user equipment; and a control unit configured to transform a target small cell in which the device locates from an off state to an on state and re-allocate a new Physical cell ID, PCI, which is different from a PCI used in the off state to the target small cell, based on the access requirement of the user equipment; wherein when the target small cell is in the off state, the PCI of the target small cell is an in-cluster general PCI shared by a plurality of small cells in the off state within a small cell cluster in which the target small cell locates, in-cluster general PCIs of different small cell clusters within a predetermined range being different from each other, and when the target small cell is in the on state, the new PCI of the target small cell is an in-cluster unique PCI selected from an in-cluster available PCI set of the small cell cluster in which the target small cell locates, the in-cluster available PCI set being a set of in-cluster unique PCIs available when all small cells within the small cell cluster are in the on state. an access determination unit configured to determine an access requirement of a user equipment; and a control unit configured to transform a target small cell in which the device locates from an off state to an on state and re-allocate a new Physical cell ID, PCI, which is different from a PCI used in the off state to the target small cell, based on the access requirement of the user equipment; wherein when the target small cell is in the off state, the PCI of the target small cell is an in-cluster general PCI shared by a plurality of small cells in the off state within a small cell cluster in which the target small cell locates, in-cluster general PCIs of different small cell clusters within a predetermined range being different from each other, and when the target small cell is in the on state, the new PCI of the target small cell is an in-cluster unique PCI selected from an in-cluster available PCI set of the small cell cluster in which the target small cell locates, the in-cluster available PCI set being a set of in-cluster unique PCIs available when all small cells within the small cell cluster are in the on state.
Device for sampling tritium present in a gaseous environment, comprising: - a tank in fluid communication with the gaseous environment, comprising lateral walls symmetrical about an axis of the tank, and - a quantity of adsorbent material positioned inside said tank, suitable for adsorbing the tritium contained in the gaseous environment, the device comprising at least one opening for fluid communication between the tank and the gaseous environment, the device being characterised in that said device further comprises a permeable wall positioned inside the tank, and in that: - the geometry of the opening for fluid communication is adapted, according to the sampling time, in order for the quantity of adsorbent material to not be saturated after the sampling, and - the adsorbent material is shaped in such a way as to have a surface of revolution for exchange with the gaseous environment while being positioned between the lateral walls of the tank and the permeable wall, said permeable wall defining the surface for exchange between the adsorbent material and the gaseous environment. - a tank in fluid communication with the gaseous environment, comprising lateral walls symmetrical about an axis of the tank, and - a quantity of adsorbent material positioned inside said tank, suitable for adsorbing the tritium contained in the gaseous environment, - the geometry of the opening for fluid communication is adapted, according to the sampling time, in order for the quantity of adsorbent material to not be saturated after the sampling, and - the adsorbent material is shaped in such a way as to have a surface of revolution for exchange with the gaseous environment while being positioned between the lateral walls of the tank and the permeable wall, said permeable wall defining the surface for exchange between the adsorbent material and the gaseous environment.