mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: receiving, from a content source (106, 108, 109) based on a first request received from a first computing device (118, 120), a content segment; generating a first portion of the content segment comprising encrypted content in a first format that can be decrypted by a first endpoint device (124, 126, 127) and a second portion of the content segment comprising unencrypted content and metadata indicating timing information of the content segment; sending, to the first computing device (118, 120), the first portion in the first format and the second portion to cause transmission of the first portion in the first format and the second portion to the first endpoint device (124, 126, 127); encrypting, based on a second request for the content segment from a second computing device (118, 120), the first portion in a second format that can be decrypted by a second endpoint device (124, 126, 127); and sending, based at least in part on the timing information, to the second computing device (118, 120), the first portion in the second format and the second portion to cause transmission of the first portion in the second format and the second portion to the second endpoint device (124, 126, 127). receiving, from a content source (106, 108, 109) based on a first request received from a first computing device (118, 120), a content segment; generating a first portion of the content segment comprising encrypted content in a first format that can be decrypted by a first endpoint device (124, 126, 127) and a second portion of the content segment comprising unencrypted content and metadata indicating timing information of the content segment; sending, to the first computing device (118, 120), the first portion in the first format and the second portion to cause transmission of the first portion in the first format and the second portion to the first endpoint device (124, 126, 127); encrypting, based on a second request for the content segment from a second computing device (118, 120), the first portion in a second format that can be decrypted by a second endpoint device (124, 126, 127); and sending, based at least in part on the timing information, to the second computing device (118, 120), the first portion in the second format and the second portion to cause transmission of the first portion in the second format and the second portion to the second endpoint device (124, 126, 127).
Exterior aircraft light with integrated light output monitoring, comprising: a light source support; at least one light source, arranged on an outward facing side of the light source support; an aperture in the light source support; a light collection surface, arranged to direct an output monitoring light portion of the light, emitted by the at least one light source, through the aperture in a predefined angular range with respect to the light source support; and a light detector, arranged on a back side of the light source support; characterized by a total internal reflection optical element, arranged to direct the output monitoring light portion, having travelled through the aperture in the predefined angular range with respect to the light source support, to the light detector via total internal reflection. a light source support; at least one light source, arranged on an outward facing side of the light source support; an aperture in the light source support; a light collection surface, arranged to direct an output monitoring light portion of the light, emitted by the at least one light source, through the aperture in a predefined angular range with respect to the light source support; and a light detector, arranged on a back side of the light source support; characterized by a total internal reflection optical element, arranged to direct the output monitoring light portion, having travelled through the aperture in the predefined angular range with respect to the light source support, to the light detector via total internal reflection.
A pyrolysis apparatus comprising: a pyrolysis unit having a pyrolysis region and a gas exit passage; a first gas enclosure coupled to the gas exit passage such that the gaseous mixture can be directed from the pyrolysis unit to the first gas enclosure; a heating system adapted to heat the first gas enclosure to temperature sufficient for the gaseous mixture to undergo a pyrolysis process, wherein the first gas enclosure is adapted to cause the gaseous mixture to follow helical or spiral gas path therein. a pyrolysis unit having a pyrolysis region and a gas exit passage; a first gas enclosure coupled to the gas exit passage such that the gaseous mixture can be directed from the pyrolysis unit to the first gas enclosure; a heating system adapted to heat the first gas enclosure to temperature sufficient for the gaseous mixture to undergo a pyrolysis process, wherein the first gas enclosure is adapted to cause the gaseous mixture to follow helical or spiral gas path therein.
A management server comprising: a receiving unit adapted to receive from each base station information about a communication terminal belonging to the base station and about a relay device that relays communication between the base station and the communication terminal; a determination unit adapted to determine, on the basis of the information received from each base station by the receiving unit, whether or not interference is generated between communications controlled by different base stations; and a base station management unit adapted to instruct at least one of the base stations that control the communication, for which the determination unit has determined that interference is generated, to execute an interference avoidance control, wherein the base station management unit is further adapted to instruct the one of the base stations to execute a handover of the communication terminal belonging to the one of the base stations or of the relay device as the interference avoidance control. a receiving unit adapted to receive from each base station information about a communication terminal belonging to the base station and about a relay device that relays communication between the base station and the communication terminal; a determination unit adapted to determine, on the basis of the information received from each base station by the receiving unit, whether or not interference is generated between communications controlled by different base stations; and a base station management unit adapted to instruct at least one of the base stations that control the communication, for which the determination unit has determined that interference is generated, to execute an interference avoidance control, wherein the base station management unit is further adapted to instruct the one of the base stations to execute a handover of the communication terminal belonging to the one of the base stations or of the relay device as the interference avoidance control.
A composite fan case comprising: a generally cylindrical composite shell; at least one band of foundational composite material circumscribing an outer surface of the composite shell; a metallic rail mounted on the band of foundational material; characterized in that it further comprises a spacer extending from an exterior surface of the foundational material; wherein the metallic rail is disposed on the spacer to form and maintain a minimum gap between the metallic rail and band. a generally cylindrical composite shell; at least one band of foundational composite material circumscribing an outer surface of the composite shell; a metallic rail mounted on the band of foundational material; characterized in that it further comprises a spacer extending from an exterior surface of the foundational material; wherein the metallic rail is disposed on the spacer to form and maintain a minimum gap between the metallic rail and band.
An electrochemical battery cell, comprising: a housing; a negative electrode comprising lithium; a positive electrode comprising a mixture of iron disulfide having an average particle size of from 1 to 19 μm and a pH raising additive compound, comprising an organic amine, a cycloaliphatic epoxide, or an overbased metal sulfonate, or a combination thereof, wherein the pH raising additive compound is present in an effective amount to provide the mixture with a calculated pH of 4.0 to 14.0; and a non-aqueous electrolyte mixture comprising at least one salt dissolved in a solvent disposed within the housing, wherein the pH of the mixture and the average particle size of the iron disulfide are determined as described in the description. a housing; a negative electrode comprising lithium; a positive electrode comprising a mixture of iron disulfide having an average particle size of from 1 to 19 μm and a pH raising additive compound, comprising an organic amine, a cycloaliphatic epoxide, or an overbased metal sulfonate, or a combination thereof, wherein the pH raising additive compound is present in an effective amount to provide the mixture with a calculated pH of 4.0 to 14.0; and a non-aqueous electrolyte mixture comprising at least one salt dissolved in a solvent disposed within the housing, wherein the pH of the mixture and the average particle size of the iron disulfide are determined as described in the description.
A food article slicing machine comprising: a) a slicing station comprising a knife blade and a knife blade drive driving the blade along a cutting path in a cutting plane; b) a food article loading apparatus; c) a food article feed apparatus disposed over said food article loading apparatus, d) said food article feed apparatus having a conveyor assembly with independently driven endless conveyor belts (802, 804, 806), e) wherein each of the conveyor belts (802, 804, 806) is connected to a food article gripper for moving a food article along a food article feed path, characterized in that f) the conveyor assembly is an upper conveyor assembly. a) a slicing station comprising a knife blade and a knife blade drive driving the blade along a cutting path in a cutting plane; b) a food article loading apparatus; c) a food article feed apparatus disposed over said food article loading apparatus, d) said food article feed apparatus having a conveyor assembly with independently driven endless conveyor belts (802, 804, 806), e) wherein each of the conveyor belts (802, 804, 806) is connected to a food article gripper for moving a food article along a food article feed path, characterized in that f) the conveyor assembly is an upper conveyor assembly.
A method comprising: receiving, using at least one computer, a write request from a computing device in a data backup mode, wherein said at least one computer is operating in a data backup mode when performing a backup operation, writing, using the at least one computer, data associated with the write request to a primary storage drive of a storage system when the write request is for an unallocated block of the primary storage drive; and writing, using the at least one computer, the data associated with the write request to a secondary storage drive of the storage system when the write request is for an allocated block of the primary storage drive, wherein, in the data backup mode, the data are not written to the allocated block of the primary storage drive. receiving, using at least one computer, a write request from a computing device in a data backup mode, wherein said at least one computer is operating in a data backup mode when performing a backup operation, writing, using the at least one computer, data associated with the write request to a primary storage drive of a storage system when the write request is for an unallocated block of the primary storage drive; and writing, using the at least one computer, the data associated with the write request to a secondary storage drive of the storage system when the write request is for an allocated block of the primary storage drive, wherein, in the data backup mode, the data are not written to the allocated block of the primary storage drive.
A hydraulic flow boost arrangement comprising a first port, a second port and a tank for a working fluid, further comprising a first displacement-type ring gear machine having a first internal gear and a second displacement-type ring gear machine having a second internal gear, wherein an inlet port of the first ring gear machine is connected to the first port and an outlet port of the second ring gear machine is connected to the second port, wherein the first displacement-type ring gear machine is a motor and wherein second displacement-type ring gear machine is a pump, wherein the tank is in fluid communication to a first tank connection line for the working fluid, wherein a first shaft of the first internal gear and a second shaft of the second internal gear are connected such that the first shaft and the second shaft rotate with the same rotational speed, wherein a first displacement volume of the first ring gear machine is different from a second displacement volume of the second ring gear machine, wherein an inlet port of the second ring gear machine is connected to an outlet port of the first gear machine and the first tank connection line, wherein the tank is in fluid communication to the first tank connection line via a check valve means, wherein the check valve means is configured to prevent backflow of working fluid from the output port of the first ring gear machine into the tank.
Method for the production of furan resins comprising the following steps: a) reaction between furfuryl alcohol and formaldehyde in the presence of an acid catalyst; b) heat treatment with a strong base of the condensation polymer formed in step a), performed at a temperature comprised between 90° C and 115° C, and wherein the strong base is added in an amount comprised between 35% and 80% of the stoichiometric amount of the formaldehyde present; c) addition of urea. a) reaction between furfuryl alcohol and formaldehyde in the presence of an acid catalyst; b) heat treatment with a strong base of the condensation polymer formed in step a), performed at a temperature comprised between 90° C and 115° C, and wherein the strong base is added in an amount comprised between 35% and 80% of the stoichiometric amount of the formaldehyde present; c) addition of urea.
A bead having sphericity greater than or equal to 0.6 and made of a fused product having the following chemical composition, in percentages by weight based on the oxides and for a total of 100%: 20% ≤ (ZrO 2 + HfO 2), with HfO 2 ≤ 2%, 5% ≤ SiO 2, 0% ≤ Al 2 O 3 ≤ 20%, 8.5% ≤ MgO ≤ 20%, 0.5% ≤ TiO 2 ≤ 20%, and oxides other than ZrO 2, HfO 2, SiO 2, Al 2 O 3, MgO and TiO 2, or "other oxides": ≤ 5% provided that the weight ratio (ZrO 2 + HfO 2)/SiO 2 is greater than 1, and provided that Al 2 O 3 + TiO 2 ≤ 26% if MgO > 17%. 20% ≤ (ZrO 2 + HfO 2), with HfO 2 ≤ 2%, 5% ≤ SiO 2, 0% ≤ Al 2 O 3 ≤ 20%, 8.5% ≤ MgO ≤ 20%, 0.5% ≤ TiO 2 ≤ 20%, and oxides other than ZrO 2, HfO 2, SiO 2, Al 2 O 3, MgO and TiO 2, or "other oxides": ≤ 5%
A method for manufacturing a low light failure, high power LED street lamp, comprising: adopting an N-type semiconductor element and a P-type semiconductor element as cooling elements for heat dissipation of a circuit board mounted with an LED bulb, wherein, when adopting the N-type semiconductor element and P-type semiconductor element as the cooling elements, processing a crystal bar for manufacturing the N-type semiconductor element or the P-type semiconductor element in advance to be a cone shaped crystal bar with one end bigger and the other end smaller, then cutting the cone shaped crystal bar into slices to obtain wafers with the same thickness, in which the surface with a smaller diameter is regarded as a head end and the surface with a larger diameter is regarded as a tail end, making a color mark on the tail end surface for each wafer; then cutting and granulating the conical surface of each wafer to the same polygonal cylinder shapes, wherein the semiconductor with the polygonal cylinder shape is the N-type or P-type semiconductor element with the head end and the tail end, then arranging the N-type semiconductor element and P-type semiconductor element in a manner of matrix between an upper beryllium-oxide ceramic wafer and a lower beryllium-oxide ceramic wafer, both the upper beryllium-oxide ceramic wafer and the lower beryllium-oxide ceramic wafer are provided with a conductive circuit, so that the N-type semiconductor element and the P-type semiconductor element in each column are connected in series, when connecting in series, the head end of the N-type semiconductor element is connected with the tail end of the P-type semiconductor element or the tail end of the N-type semiconductor element is connected with the head end of the P-type semiconductor element, then attaching the lower beryllium-oxide ceramic wafer, through a graphene thermal conductive grease layer, on the backside of the circuit board which is mounted with the LED bulb, and mounting a heat sink on the upper beryllium-oxide ceramic wafer, then mounting the circuit board together with the heat sink into a street lamp housing.
A method of encoding data for transmission from a source (101, 105) to a destination over a communications channel, the method comprising: obtaining an ordered set of input symbols representing data to be encoded; selecting a plurality of field arrays of values, wherein each field array is a finite field array and the plurality of field arrays include at least two different finite field arrays; the method characterized by generating a data structure that represents a coefficient matrix having entries from at least two of the plurality of field arrays that are different finite field arrays; generating output symbols as linear combinations of input symbols with coefficients taken from the data structure that represents the coefficient matrix; and using the generated output symbols and an encoding for the data for transmission from the source to the destination. obtaining an ordered set of input symbols representing data to be encoded; selecting a plurality of field arrays of values, wherein each field array is a finite field array and the plurality of field arrays include at least two different finite field arrays; the method characterized by generating a data structure that represents a coefficient matrix having entries from at least two of the plurality of field arrays that are different finite field arrays; generating output symbols as linear combinations of input symbols with coefficients taken from the data structure that represents the coefficient matrix; and using the generated output symbols and an encoding for the data for transmission from the source to the destination.
An optical transceiver assembly, comprising: a serializer; a high-order modulation unit coupled to the serializer, wherein the high-order modulation unit is a pulse amplitude modulation four, PAM4, unit; a digital-analog conversion unit coupled to the high-order modulation unit; and a optical transceiver module comprises a transmit processing unit, a receive processing unit and an optical splitting apparatus, wherein the transmit processing unit and the receive processing unit are respectively coupled to the digital-analog conversion unit, and the optical splitting apparatus is configured to transmit a first optical signal output by the transmit processing unit, and receive a second optical signal and transmit the second optical signal to the receive processing unit. a serializer; a high-order modulation unit coupled to the serializer, wherein the high-order modulation unit is a pulse amplitude modulation four, PAM4, unit; a digital-analog conversion unit coupled to the high-order modulation unit; and a optical transceiver module comprises a transmit processing unit, a receive processing unit and an optical splitting apparatus, wherein the transmit processing unit and the receive processing unit are respectively coupled to the digital-analog conversion unit, and the optical splitting apparatus is configured to transmit a first optical signal output by the transmit processing unit, and receive a second optical signal and transmit the second optical signal to the receive processing unit.
A method of making a wall flow membrane filter comprising selecting a honeycomb body comprising an array of open-ended through-channels separated by porous channel walls; masking a first subset of the channels at one or both ends of the body; applying a membrane-forming composition to the porous channel walls of a second subset of channels; curing the membrane-forming composition to provide a wall-adhering fluid-permeable membrane; and plugging the first subset of channels at a first end of the body and plugging the second subset of channels at a second end of the body.
Organic compounds of formula 1 selected from: 4,4',4",4"'-tetra-t-butyl-2,2',2",2"'-(phenylenemethanediyl)tetraphenol according to the structure of formula TP'0 6,6',6",6"'-tetra-o-methyl-2,2',2",2"'-(phenylenemethanediyl)tetraphenol according to the structure of formula TP"0 4,4',4",4"'-tetra-t-butyl-2,2',2",2"'-(phenylenemethanediyl)tetraphenol according to the structure of formula TP'0 6,6',6",6"'-tetra-o-methyl-2,2',2",2"'-(phenylenemethanediyl)tetraphenol according to the structure of formula TP"0
A non-dairy creamer comprising a triglyceride composition, the triglyceride composition comprises triglycerides comprising a total fatty acid content, the triglycerides comprising: a lauric acid content of from about 5wt% to about 30wt%, by weight of the total fatty acid content; a palmitic acid content of from about 20wt% to about 45wt%, by weight of the total fatty acid content; a myristic acid content of from about 2wt% to about 8wt%, by weight of the total fatty acid content; a stearic acid content of from about 2wt% to about 6wt%, by weight of the total fatty acid content; a linoleic acid content of from about 3wt% to about 10wt%, by weight of the total fatty acid content; and an oleic acid content of from about 25wt% to about 40wt%, by weight of the total fatty acid content, wherein the triglyceride composition has a trans fatty acid value of from about 0 wt% to about 1 % by weight of the total fatty acid content, an oxidative stability index of greater than about 15h at a temperature of 120 °C and an airflow rate of 20L/h, a saturated fatty acid content of from about 55wt% to about 65wt% by weight of the total fatty acid content, a slip melting point of from about 22 °C to about 40 °C, and a total volatile aldehyde content of from about 1wt% to about 5wt% by weight of the triglyceride composition. a lauric acid content of from about 5wt% to about 30wt%, by weight of the total fatty acid content; a palmitic acid content of from about 20wt% to about 45wt%, by weight of the total fatty acid content; a myristic acid content of from about 2wt% to about 8wt%, by weight of the total fatty acid content; a stearic acid content of from about 2wt% to about 6wt%, by weight of the total fatty acid content; a linoleic acid content of from about 3wt% to about 10wt%, by weight of the total fatty acid content; and an oleic acid content of from about 25wt% to about 40wt%, by weight of the total fatty acid content,
Method for operating a valve, in particular a fuel injection valve of an internal combustion engine of a motor vehicle, wherein at least one actuation variable, in particular an actuation current and/or an actuation voltage are/is applied to the fuel injection valve during an actuation period (t A) in order to influence an operating state of the fuel injection valve, characterized in that the actuation periods (t A) of the fuel injection valve are gated out in a transition region (T WP2 -T WP1), wherein the transition region (T WP2 -T WP1) is bounded by a local maximum and a local minimum of a characteristic curve of the flight time of a valve element of the fuel injection valve as function of the actuation period (t A).