mhurhangee/ep-ind-claims huggingface dataset:
A redirection method, comprising: Obtaining (203, 403), by a control plane network element, a content transmission request sent from a content server, wherein the content transmission request comprises identification information of the to-be-transmitted content and a redirected address information; Determining (204, 405), by the control plane network element based on the content transmission request, a cache node (190, 191, 192) configured to store to-be-transmitted content and an aggregation user plane network element associated with the cache node (190, 191, 192) and configured to aggregate the to-be-transmitted content from the cache node (190, 191, 192); and Sending (205, 406), by the control plane network element, a traffic flow matching parameter to the aggregation user plane network element, wherein the traffic flow matching parameter comprises the redirected address information and wherein the traffic flow matching parameter is used to match a traffic flow of the to-be-transmitted content and wherein the redirected address information is used to determine a connection used to transmit a matched traffic flow, wherein the connection comprises a transport layer connection between the terminal device that requests the to-be-transmitted content and the aggregation user plane network element and/or a transport layer connection between the aggregation user plane network element and the cache node (190, 191, 192); and Sending, by the control plane network element, the traffic flow matching parameter to a terminal device that requests the to-be-transmitted content. Obtaining (203, 403), by a control plane network element, a content transmission request sent from a content server, wherein the content transmission request comprises identification information of the to-be-transmitted content and a redirected address information; Determining (204, 405), by the control plane network element based on the content transmission request, a cache node (190, 191, 192) configured to store to-be-transmitted content and an aggregation user plane network element associated with the cache node (190, 191, 192) and configured to aggregate the to-be-transmitted content from the cache node (190, 191, 192); and Sending (205, 406), by the control plane network element, a traffic flow matching parameter to the aggregation user plane network element, wherein the traffic flow matching parameter comprises the redirected address information and wherein the traffic flow matching parameter is used to match a traffic flow of the to-be-transmitted content and wherein the redirected address information is used to determine a connection used to transmit a matched traffic flow, wherein the connection comprises a transport layer connection between the terminal device that requests the to-be-transmitted content and the aggregation user plane network element and/or a transport layer connection between the aggregation user plane network element and the cache node (190, 191, 192); and Sending, by the control plane network element, the traffic flow matching parameter to a terminal device that requests the to-be-transmitted content.
A method of printing a three-dimensional article comprising: retaining a composite build material in a fluid state in a container; selectively applying energy to the composite build material in the container to solidify at least a portion of a first fluid layer of the composite build material, thereby forming a first solidified layer that defines a first cross-section of the article; raising or lowering the first solidified layer to provide a second fluid layer of the composite build material at a surface of the fluid composite build material in the container; and selectively applying energy to the composite build material in the container to solidify at least a portion of the second fluid layer of the composite build material, thereby forming a second solidified layer that defines a second cross-section of the article, the first cross-section and the second cross-section being bonded to one another in a z-direction, wherein the composite build material comprises: a carrier ink comprising a curable material; and pigment particles dispersed in the carrier ink, wherein the pigment particles comprise mica, and wherein the composite build material further comprises a colorant, the colorant differing from the pigment particles of the composite build material. retaining a composite build material in a fluid state in a container; selectively applying energy to the composite build material in the container to solidify at least a portion of a first fluid layer of the composite build material, thereby forming a first solidified layer that defines a first cross-section of the article; raising or lowering the first solidified layer to provide a second fluid layer of the composite build material at a surface of the fluid composite build material in the container; and selectively applying energy to the composite build material in the container to solidify at least a portion of the second fluid layer of the composite build material, thereby forming a second solidified layer that defines a second cross-section of the article, the first cross-section and the second cross-section being bonded to one another in a z-direction, wherein the composite build material comprises: a carrier ink comprising a curable material; and pigment particles dispersed in the carrier ink, wherein the pigment particles comprise mica, and wherein the composite build material further comprises a colorant, the colorant differing from the pigment particles of the composite build material. a carrier ink comprising a curable material; and pigment particles dispersed in the carrier ink, wherein the pigment particles comprise mica, and wherein the composite build material further comprises a colorant, the colorant differing from the pigment particles of the composite build material.
An arrangement for storing thermal energy, the arrangement comprising a circuit containing a working fluid, the circuit having a plurality of pipes which pipes are distributed throughout a volume of the ground forming a heat storage, each pipe being arranged in a channel in the ground for heat exchange between the working fluid and the ground, characterized in that the arrangement comprises an electrical heating element, the electrical heating element being arranged in a channel in the ground to heat the ground for storing thermal energy in the heat storage, and the working fluid is a liquid having a boiling point above 120°C at atmospheric pressure.
An apparatus for admixing a gaseous or liquid substance into a fiber suspension, said apparatus comprising a tubular body defining a space that forms a flow channel for the suspension, in which body an inlet and an outlet for the suspension have been arranged so that the suspension flows through the flow channel mainly in the axial direction, a tubular feed member extending into the flow channel transversely against the flow direction of the suspension, comprising a conduit line for leading the substance into the feed member and having a cylindrical wall provided with openings for leading the substance from the feed member into the flow channel, a throttling member that is arranged in the flow channel downstream of the feed member in the flow direction of the suspension, and a mixing chamber formed in the flow channel between the feed member and the throttling member, characterized in that at least one protrusion is arranged on the inner surface of the tubular body in the region of the feed member for lowering the height of the flow cross-sectional area of the flow channel between the feed member and the tubular body of the apparatus, and the height of the flow cross-sectional area, which is the shortest distance between the protrusion and the outer surface of the cylindrical wall of the feed member, is H = k * dp, where k is (0,004...0,012)/100 m/kPa, and dp -[dp] = kPa)- is a pressure difference between the conduit line for the substance and the flow channel for the suspension.
An arrangement having a connector for at least one electrical cable, which has an electrical conductor (5, 6) surrounded by a sheath, which conductor has a high number of individual wires, in which the connector has a tubular clamping body (3, 7) consisting of metal for receiving the conductor (5, 6) of the cable, in the wall of which two cooperating through holes (9, 10) provided with thread are attached to at least one position, the axes of which run V-shaped at an angle (α) relative to one another, which angle is between 100° and 180°, in which clamping screws, which firmly clamp the conductor (5, 6) in the mounting position, are attached, in which - the axes of both clamping screws screwed in the mounting position into the two through holes (9, 10) also run V-shaped relative to one another, wherein they act on the same side of the conductor (5, 6) located in the clamping body (3, 7) on the same area of the same, characterized in - that the individual wires of the conductor (5, 6) are compactly pressed together in the mounting position by the two clamping screws acting on the same area of the same and are also pressed against the wall of the clamping body (3, 7) on its side opposite the through holes (9, 10) and - that each of the two clamping screws on the end face has a flat side running transverse to the axial direction of the clamping screws and in the transition region from the flat side to the threaded part of the clamping screws is rounded off all around with a radius, which is between 0.15 x D and 0.5 x D, with the diameter D of the threaded part of the clamping screws. - the axes of both clamping screws screwed in the mounting position into the two through holes (9, 10) also run V-shaped relative to one another, wherein they act on the same side of the conductor (5, 6) located in the clamping body (3, 7) on the same area of the same, - that the individual wires of the conductor (5, 6) are compactly pressed together in the mounting position by the two clamping screws acting on the same area of the same and are also pressed against the wall of the clamping body (3, 7) on its side opposite the through holes (9, 10) and - that each of the two clamping screws on the end face has a flat side running transverse to the axial direction of the clamping screws and in the transition region from the flat side to the threaded part of the clamping screws is rounded off all around with a radius, which is between 0.15 x D and 0.5 x D, with the diameter D of the threaded part of the clamping screws.
A set of nested PCR oligonucleotide primers for assaying rearrangement of immunoglobulin genes for identifying clonality of cells, cancer cells, hypermutation in immunoglobulin gene, antibody isotype producing cell and/or assaying B cell repertoire in a mouse sample, wherein the set comprises a. 5' oligonucleotide primers as set forth in SEQ ID NO: 1-34, SEQ ID NO: 55-93 and SEQ ID NO: 99-104; and b. 3' oligonucleotide primers as set forth in SEQ ID NO: 35-37, SEQ ID NO: 94-95 and SEQ ID NO: 105-108. a. 5' oligonucleotide primers as set forth in SEQ ID NO: 1-34, SEQ ID NO: 55-93 and SEQ ID NO: 99-104; and b. 3' oligonucleotide primers as set forth in SEQ ID NO: 35-37, SEQ ID NO: 94-95 and SEQ ID NO: 105-108.
A three dimensional printing apparatus, comprising: a tank, filled with a liquid forming material, wherein the tank has at least two forming areas in step manner; a platform, disposed in the tank and immersed in the liquid forming material, wherein the tank and the platform are adapted to generate a relative planar motion, so that the platform moves from a forming area in a higher step towards another forming area in a lower step; and a curing tool, disposed adjacent to the tank, wherein, in use, when the platform moves to each of the forming areas, the curing tool cures the liquid forming material between the platform and the corresponding forming area to form a solidification layer (L 1) on the platform, and as the platform moves by at least two forming areas to form at least two solidification layers, the solidification layers are stacked to form a three dimensional object. a tank, filled with a liquid forming material, wherein the tank has at least two forming areas in step manner; a platform, disposed in the tank and immersed in the liquid forming material, wherein the tank and the platform are adapted to generate a relative planar motion, so that the platform moves from a forming area in a higher step towards another forming area in a lower step; and a curing tool, disposed adjacent to the tank, wherein, in use, when the platform moves to each of the forming areas, the curing tool cures the liquid forming material between the platform and the corresponding forming area to form a solidification layer (L 1) on the platform, and as the platform moves by at least two forming areas to form at least two solidification layers, the solidification layers are stacked to form a three dimensional object.
Tyre sidewall, having a rubber composition based on at least one diene elastomer, a reinforcing filler comprising carbon black and a sulphur-based crosslinking system, characterized in that the carbon black has a CTAB specific surface area greater than or equal to 90 m 2 /g and that the proportion of this carbon black is between 30 and 40 phr, the carbon black constituting the predominant reinforcing filler, and in which the rubber composition comprises from 35 to 55% of natural rubber or of synthetic polyisoprene, and from 65 to 45% of a diene elastomer chosen from polybutadiene, styrene-butadiene copolymers, isoprene-butadiene copolymers, isoprene-styrene copolymers and isoprene-butadiene-styrene copolymers.
A method for establishing a co-existence working mode, comprising: receiving, by a base station of a first communication system from a user equipment in the first communication system, a mode establishing request for requesting to establish the co-existence working mode in which the user equipment performs a first communication with the base station and performs a second communication with an apparatus in a second communication system which is different from the first communication system in a time-division manner; encapsulating, by the base station, configuration information of a co-existence working mode allowed to be utilized by the user equipment into an establishing response message, and transmitting the establishing response message to the user equipment; and receiving, by the base station, a message indicating whether configuration of the co-existence working mode has been completed fed back from the user equipment, wherein the configuration information of the co-existence working mode indicates whether the user equipment can stop uplink transmission of the first communication system in order to avoid the interference from the first communication system to the second communication. receiving, by a base station of a first communication system from a user equipment in the first communication system, a mode establishing request for requesting to establish the co-existence working mode in which the user equipment performs a first communication with the base station and performs a second communication with an apparatus in a second communication system which is different from the first communication system in a time-division manner; encapsulating, by the base station, configuration information of a co-existence working mode allowed to be utilized by the user equipment into an establishing response message, and transmitting the establishing response message to the user equipment; and receiving, by the base station, a message indicating whether configuration of the co-existence working mode has been completed fed back from the user equipment, wherein the configuration information of the co-existence working mode indicates whether the user equipment can stop uplink transmission of the first communication system in order to avoid the interference from the first communication system to the second communication.
A test bench for a contactor bulb, the test bench comprising: - a frame configured to hold the bulb, and - an actuating device, supported by the frame and comprising an output shaft, centred on a longitudinal axis and movable in translation relative to the frame parallel to the longitudinal axis between a front position and a rear position, the output shaft being configured to be connected to an actuating rod of the bulb, characterised in that the actuating device is an electromagnetic actuator with moving magnets. - a frame configured to hold the bulb, and - an actuating device, supported by the frame and comprising an output shaft, centred on a longitudinal axis and movable in translation relative to the frame parallel to the longitudinal axis between a front position and a rear position, the output shaft being configured to be connected to an actuating rod of the bulb,
A nursery fruit tree having an optimal fruit/wood production balance having the following characteristics: - crowns of productive branches at three levels, separated by windows sufficiently large to enable optimal light provision for production and ripening of the fruit, - an uncut main stem, - the inclination of the side branches versus the stem approaching 90°. - crowns of productive branches at three levels, separated by windows sufficiently large to enable optimal light provision for production and ripening of the fruit, - an uncut main stem, - the inclination of the side branches versus the stem approaching 90°.
An injection control device, comprising: a body; a positioning guide; a syringe supporting section coupled to the body; a plunging member; and a plunging member activating system (55, 57) coupled to the positioning guide and the plunging member, characterised in that the body is movable with respect to the positioning guide and the plunging member activating system (55, 57) is configured to provide a one-way advancing motion of the plunging member as the body is withdrawn and moved away from a substantially fixed position of the positioning guide to inject or expel material contained within the device at a rate that is consistently proportional to a distance travelled by the body from the position of the positioning guide. a body; a positioning guide; a syringe supporting section coupled to the body; a plunging member; and a plunging member activating system (55, 57) coupled to the positioning guide and the plunging member,
Supply air unit, which comprises: - a supply air chamber, - at least one mixing chamber (20, 20a, 20b), which opens into the air-conditioned room space, - nozzles (60, 60a, 60b) or a nozzle gap, through which a fresh airflow is conducted from the supply air chamber into said at least one mixing chamber (20a, 20b), - a first heat-transfer unit, which is formed by at least one heat exchanger (30, 30a, 30b), through which a circulated airflow is conducted from the air-conditioned room space into said at least one mixing chamber (20, 20a, 20b), whereby the circulated airflow is heated or cooled in said at least one heat exchanger (30, 30a, 30b), characterised in that the supply air unit also comprises: - a second heat-transfer unit, which is formed by at least one radiating element, which is located in the lower part of the supply air unit and in which there is a radiating surface, to which heat is transferred from the air-conditioned room space for cooling, or from which heat is transferred into the air-conditioned room space for heating, which radiating surface also comprises openings, whereby the radiating surface becomes sound-absorbing. - a supply air chamber, - at least one mixing chamber (20, 20a, 20b), which opens into the air-conditioned room space, - nozzles (60, 60a, 60b) or a nozzle gap, through which a fresh airflow is conducted from the supply air chamber into said at least one mixing chamber (20a, 20b), - a first heat-transfer unit, which is formed by at least one heat exchanger (30, 30a, 30b), through which a circulated airflow is conducted from the air-conditioned room space into said at least one mixing chamber (20, 20a, 20b), whereby the circulated airflow is heated or cooled in said at least one heat exchanger (30, 30a, 30b), - a second heat-transfer unit, which is formed by at least one radiating element, which is located in the lower part of the supply air unit and in which there is a radiating surface, to which heat is transferred from the air-conditioned room space for cooling, or from which heat is transferred into the air-conditioned room space for heating, which radiating surface also comprises openings, whereby the radiating surface becomes sound-absorbing.
Measuring device for measuring a fill level of a material in a container based on the time of flight principle, comprising: a first pulse repetition frequency generator and a second pulse repetition frequency generator, configured to generate pulses comprising slightly differing frequencies, a first pulse generator connected to the first pulse repetition frequency generator and a second pulse generator connected to the second two pulse generators (4, 5) have a predetermined pulse width and a predeterminded repetion frequency, a transmit oscillator, connected to the first pulse generator, configured to generate measuring signals by modulating a high frequency signal onto each pulse, a local oscillator configurate to modulate a frequency signal onto each pulse generated by the second pulse generator, a coupler and a transmitting-/receiving unit configured to transmit the measuring signals to the surface of the material and receiving the reflected portion of the measuring signals as a measurement signal, a mixer configured to mix the measurement signal with the signal of the local oscillator, whereby the output of the mixer is an analog intermediate frequency signal (S IF), said intermediate frequency signal comprises information corresponding to the fill level of the material in the container, a band pass filter which is configured to pass a predetermined frequency range and filter frequencies greater than a measurement signal frequency of the measurement signal, and an analog to digital converter configured to subsequently sample the intermediate frequency signal (S IF), characterized in that said analog to digital converter being configured to employ a sampling frequency (f s) less than a expected signal frequency of the intermediate frequency signal (S IF), wherein in the case where the frequency of the intermediate frequency signal (S IF) corresponds to said expected frequency, the analog to digital converter is configured to output a digital intermediate frequency signal (S IF) with a frequency that is shifted down with respect to the frequency of the analog intermediate frequency signal (S IF), and in that the magnitude of said frequency shift corresponds essentially to the sampling frequency (f s) of the analog to digital converter.