mhurhangee/ep-ind-claims huggingface dataset:
An error coding circuit, the error coding circuit comprised of: a non-systematic convolutional encoder for coding an input bit stream to produce three groups of parity bits ( P 1, P 2, P 3), wherein said encoder implements a rate 1/3 tail-biting convolutional code belonging to the class of maximum free distance codes with optimal distance spectra, such that a rate 1/2 code belonging to the class of maximum free distance codes with optimal distance spectra can be obtained by puncturing one of the groups of parity bits; an interleaver circuit for interleaving parity bits within each group of parity bits; and a rate-matching circuit for outputting a selected number of said interleaved parity bits ( P 1 ', P 2 ', P 3 ') ordered by group to obtain a desired code rate. a non-systematic convolutional encoder for coding an input bit stream to produce three groups of parity bits ( P 1, P 2, P 3), wherein said encoder implements a rate 1/3 tail-biting convolutional code belonging to the class of maximum free distance codes with optimal distance spectra, such that a rate 1/2 code belonging to the class of maximum free distance codes with optimal distance spectra can be obtained by puncturing one of the groups of parity bits; an interleaver circuit for interleaving parity bits within each group of parity bits; and a rate-matching circuit for outputting a selected number of said interleaved parity bits ( P 1 ', P 2 ', P 3 ') ordered by group to obtain a desired code rate.
A process for separating a multi-component feed mixture in a distillation system comprising a first distillation column having a first fired reboiler, and at least a second distillation column having a second heat-exchange reboiler, comprising the steps of a) Introducing the feed mixture to the first column, and separating into at least a first top and a first bottom product; b) Taking part of the first bottom product for providing heat to the second reboiler as a utility stream; c) Feeding part of said utility stream after heat-exchange as main feed to the second column for further separation; and d) Feeding the other part of said utility stream after heat-exchange to the first reboiler; wherein temperature and pressure of said part of said utility stream are adiabatically adjusted before feeding to the second column. a) Introducing the feed mixture to the first column, and separating into at least a first top and a first bottom product; b) Taking part of the first bottom product for providing heat to the second reboiler as a utility stream; c) Feeding part of said utility stream after heat-exchange as main feed to the second column for further separation; and d) Feeding the other part of said utility stream after heat-exchange to the first reboiler;
A traffic volume prediction method, comprising: receiving, by a first management device, a first message from a second management device, wherein the first message is used to request the first management device to perform traffic volume prediction, the first message comprises a predicted object, a traffic type, and prediction requirement information, and the prediction requirement information comprises a prediction granularity and/or a prediction period, wherein the prediction granularity comprises at least one of the following: a prediction area, a prediction service type, a prediction slice, a prediction cell, a prediction public land mobile communications network PLMN, or a prediction tenant; and determining, by the first management device for the predicted object based on the prediction requirement information, a predicted traffic volume corresponding to the traffic type; wherein the predicted object comprises at least one of the following: a service, a network, a network element, a network function, or a cell; wherein the traffic type comprises at least one of the following: a quantity of users, user distribution, a user activation ratio, coverage, a throughput, a quantity of radio resource control RRC connections, a quantity of physical resource blocks PRBs, PRB usage, or load information. receiving, by a first management device, a first message from a second management device, wherein the first message is used to request the first management device to perform traffic volume prediction, the first message comprises a predicted object, a traffic type, and prediction requirement information, and the prediction requirement information comprises a prediction granularity and/or a prediction period, wherein the prediction granularity comprises at least one of the following: a prediction area, a prediction service type, a prediction slice, a prediction cell, a prediction public land mobile communications network PLMN, or a prediction tenant; and determining, by the first management device for the predicted object based on the prediction requirement information, a predicted traffic volume corresponding to the traffic type; wherein the predicted object comprises at least one of the following: a service, a network, a network element, a network function, or a cell; wherein the traffic type comprises at least one of the following: a quantity of users, user distribution, a user activation ratio, coverage, a throughput, a quantity of radio resource control RRC connections, a quantity of physical resource blocks PRBs, PRB usage, or load information. a service, a network, a network element, a network function, or a cell; wherein the traffic type comprises at least one of the following: a quantity of users, user distribution, a user activation ratio, coverage, a throughput, a quantity of radio resource control RRC connections, a quantity of physical resource blocks PRBs, PRB usage, or load information.
Bicycle electronic system, comprising: - a battery unit, - a manual command management unit, - a derailleur management unit, and - a supply and communication bus, each of said units (12, 14, 16) being connected to said bus, wherein each of said manual command management unit and derailleur management unit comprises a processor and a voltage regulator arranged between the processor and said bus. - a battery unit, - a manual command management unit, - a derailleur management unit, and - a supply and communication bus, each of said units (12, 14, 16) being connected to said bus,
Method for charging an energy store of a vehicle using a charging apparatus, wherein a voltage provided by the charging apparatus is measured at a port of the vehicle, wherein a charging current that is provided by the charging apparatus and charges the energy store is regulated to an optimum depending on the voltage in order to limit power losses that occur during charging at the charging apparatus and/or in the vehicle due to the charging, characterized in that the voltage at the port of the vehicle is measured as quiescent voltage in the unloaded state of the charging apparatus, wherein the charging current is equal to zero in the unloaded state of the charging apparatus, wherein the charging current is regulated during charging depending on a difference (dU) between the quiescent voltage and the voltage currently measured at the port of the vehicle during charging, and wherein the charging current is regulated during charging so as to keep a ratio of the difference (dU) and the quiescent voltage in a range from 1% to 5%.
A pneumatic brake cylinder control circuit for controlling the supply of pressurized air to brake cylinders, said circuit having a main source of pressurized air which drops in an emergency and having a modulated pressure source, the output of which is supplied to the brake cylinders, or to a pilot pressure input of a pneumatic relay valve for the brake cylinders, characterized by: a pneumatic emergency brake release timer comprising: a high capacity transfer valve connected in a first position to the output of the modulated pressure source and in a second position connected to a source of emergency braking air pressure, the high capacity transfer valve being biased in the second position to provide communication between the emergency braking air pressure and the brake cylinders, the high capacity transfer valve having a pilot port and being forced to the first position by a preset pilot pressure at its pilot port; a timing reservoir in communication with the pilot port of the high capacity transfer valve; and a check valve and a dissipating choke circuit providing parallel connections between the main source of pressure and the reservoir through said check valve and opposite flow through said dissipating choke circuit, whereby after a period of time for the reservoir to at least partially discharge through the dissipating choke circuit, the high capacity transfer valve will place the source of emergency braking air pressure in communication with the brake cylinders. a pneumatic emergency brake release timer comprising: a high capacity transfer valve connected in a first position to the output of the modulated pressure source and in a second position connected to a source of emergency braking air pressure, the high capacity transfer valve being biased in the second position to provide communication between the emergency braking air pressure and the brake cylinders, the high capacity transfer valve having a pilot port and being forced to the first position by a preset pilot pressure at its pilot port; a timing reservoir in communication with the pilot port of the high capacity transfer valve; and a check valve and a dissipating choke circuit providing parallel connections between the main source of pressure and the reservoir through said check valve and opposite flow through said dissipating choke circuit, whereby after a period of time for the reservoir to at least partially discharge through the dissipating choke circuit, the high capacity transfer valve will place the source of emergency braking air pressure in communication with the brake cylinders.
A composition comprising latanoprost and isopropyl myristate wherein the composition comprises between 1 percent and 20 percent of isopropyl myristate, by weight of the total weight of the composition.
A disposable absorbent pad, preferably a bed pad, for adhering to a substrate, the disposable absorbent pad comprising: an absorbent structure configured to absorb fluid; a back sheet having a first surface and a second surface, the second surface of the back sheet having adhesive applied thereto for adhering the pad to a substrate; wherein the adhesive is applied to the second surface of the back sheet in four discrete areas positioned generally adjacent the corners of the second surface of the back sheet; and characterised in that the adhesive covers between 10 percent and 60 percent of the second surface. an absorbent structure configured to absorb fluid; a back sheet having a first surface and a second surface, the second surface of the back sheet having adhesive applied thereto for adhering the pad to a substrate;
Setting device for a pressure regulator, comprising: - a tubular casing developing according to a longitudinal axis and provided with an open first end; - a movable body movably associated with said tubular casing in such a way that it faces said first end; - a setting plate slidingly associated with said tubular casing according to the direction of said longitudinal axis; - a spring interposed between said movable body and said setting plate; - an adjusting unit suited to adjust the position of said setting plate according to said longitudinal axis; wherein said adjusting unit comprises: - a first shaft rotatably associated with said tubular casing according to said longitudinal axis; - screw means suited to connect said setting plate to said first shaft in such a way that the rotations of said first shaft according to two mutually opposite directions cause corresponding movements of said setting plate along said longitudinal axis according to two mutually opposite directions; - an electric motor provided with a second shaft rotatably constrained to said first shaft through a connection unit; - a control device suited to supply power to said electric motor; characterized in that said control device is provided with two different input lines to receive corresponding electric signals and with an output line to supply power to said electric motor, said control device being configured to transmit an electric pulse emitted by any of said input lines to said output line, in such a way that, if said electric pulse comes from a first one of said input lines, it is transmitted to said outlet line with the same polarity, while if said electric pulse comes from the second input line, it is transmitted to said output line with inverted polarity. - a tubular casing developing according to a longitudinal axis and provided with an open first end; - a movable body movably associated with said tubular casing in such a way that it faces said first end; - a setting plate slidingly associated with said tubular casing according to the direction of said longitudinal axis; - a spring interposed between said movable body and said setting plate; - an adjusting unit suited to adjust the position of said setting plate according to said longitudinal axis; - a first shaft rotatably associated with said tubular casing according to said longitudinal axis; - screw means suited to connect said setting plate to said first shaft in such a way that the rotations of said first shaft according to two mutually opposite directions cause corresponding movements of said setting plate along said longitudinal axis according to two mutually opposite directions; - an electric motor provided with a second shaft rotatably constrained to said first shaft through a connection unit; - a control device suited to supply power to said electric motor;
A measurement control method for a multi-carrier system, comprising the steps of: selecting, by User Equipment, the channel quality of a serving carrier group as a reference value, uniformly starting measurement on carriers except serving carriers or serving carrier groups when the reference value is smaller than a measurement starting threshold, s-Measure, configured by an evolved NodeB (eNB) for the serving carriers or serving carrier groups, and uniformly closing the measurement on the carriers except the serving carriers or serving carrier groups when the reference value is larger than or equal to the s-Measure, characterized by the step of evaluating the channel quality of the serving carrier group as a general evaluation result of channel quality of all serving carriers in the serving carrier group, wherein the general evaluation result comprises a weight average or arithmetic average of channel quality of all serving carriers in the serving carrier group. selecting, by User Equipment, the channel quality of a serving carrier group as a reference value, uniformly starting measurement on carriers except serving carriers or serving carrier groups when the reference value is smaller than a measurement starting threshold, s-Measure, configured by an evolved NodeB (eNB) for the serving carriers or serving carrier groups, and uniformly closing the measurement on the carriers except the serving carriers or serving carrier groups when the reference value is larger than or equal to the s-Measure, characterized by the step of evaluating the channel quality of the serving carrier group as a general evaluation result of channel quality of all serving carriers in the serving carrier group, wherein the general evaluation result comprises a weight average or arithmetic average of channel quality of all serving carriers in the serving carrier group.
A cutter blade configured to be disposed inside a housing of a mower and rotatably driven about a vertical axis, the cutter blade comprising: a blade body; a blade portion provided at least at a part of a rotational direction-wise front end portion of the blade body; a wind generating portion provided at least at a part of a rotational direction-wise rear end portion of the blade body, the wind generating portion extending more upwards than the blade portion; and a thickness of the wind generating portion at the rotational direction-wise rear end portion being smaller at least partially than a thickness of the remaining part of the wind generating portion; wherein the blade body includes a first portion provided on a center side, a pair of second portions provided on the opposed sides of the first portion and each including the blade portion and the wind generating portion, and a pair of third portions each provided between the first portion and the respective second portion; characterized in that a height position of the first portion is set higher than a height position of the second portion, and the third portion is inclined to be positioned progressively lower from the first portion toward the second portion; and the blade body, the blade portion and the wind generating portion are integrally formed. a blade body; a blade portion provided at least at a part of a rotational direction-wise front end portion of the blade body; a wind generating portion provided at least at a part of a rotational direction-wise rear end portion of the blade body, the wind generating portion extending more upwards than the blade portion; and a thickness of the wind generating portion at the rotational direction-wise rear end portion being smaller at least partially than a thickness of the remaining part of the wind generating portion; wherein the blade body includes a first portion provided on a center side, a pair of second portions provided on the opposed sides of the first portion and each including the blade portion and the wind generating portion, and a pair of third portions each provided between the first portion and the respective second portion; characterized in that a height position of the first portion is set higher than a height position of the second portion, and the third portion is inclined to be positioned progressively lower from the first portion toward the second portion; and the blade body, the blade portion and the wind generating portion are integrally formed.
Assembly comprising: - a first fabric of first filamentary elements (64, 66), the first fabric of first filamentary elements (64, 66) extending in a first overall direction,, - a second fabric of second filamentary elements (68, 70), - a bearing structure comprising filamentary bearing elements connecting the first fabric of first filamentary elements (64, 66)and the second fabric of second filamentary elements (68, 70) together, each filamentary bearing element comprising at least one filamentary bearing portion extending between the first fabric of first filamentary elements (64, 66) and the second fabric of second filamentary elements (68, 70), characterized in that the first fabric of first filamentary elements (64, 66) being arranged in such a way that, for an at-rest length L of the first fabric in the first overall direction, expressed in m, elongation at maximum strength Art of the first fabric of first filamentary elements (64, 66) in the first overall direction is Art > (2π x H) /L in which H0 x K ≤ H where H0 is the mean straight-line distance between an internal face of the first fabric of first filamentary elements (64, 66) and an internal face of the second fabric of second filamentary elements (68, 70) when each filamentary bearing portion is at rest, H and H0 being expressed in m, and K=0.50. - a first fabric of first filamentary elements (64, 66), the first fabric of first filamentary elements (64, 66) extending in a first overall direction,, - a second fabric of second filamentary elements (68, 70), - a bearing structure comprising filamentary bearing elements connecting the first fabric of first filamentary elements (64, 66)and the second fabric of second filamentary elements (68, 70) together, each filamentary bearing element comprising at least one filamentary bearing portion extending between the first fabric of first filamentary elements (64, 66) and the second fabric of second filamentary elements (68, 70), characterized in that
A method of determining changes in blood oxygen saturation of a subject comprising the steps of: obtaining a video image of an area of exposed skin of the subject, the video image comprising signals representing intensity in at least two different colour channels; defining in the image a plurality of regions of interest in said area of exposed skin of the subject; determining a signal to noise ratio of a heart rate or breathing rate frequency component of one of the colour channel signals or both for each region of interest; determining whether to reject or not reject regions of interest based on the determined signal to noise ratio of a heart rate or breathing rate frequency component or both; processing the colour channel signals from non-rejected regions of interest by: normalising the signal in each of the colour channels by dividing each of the signals by its baseline component; determining the ratio of the amplitudes of the normalised signals from two of the colour channel signals; and outputting changes over time in the ratio as representing changes in blood oxygen saturation of the subject. obtaining a video image of an area of exposed skin of the subject, the video image comprising signals representing intensity in at least two different colour channels; defining in the image a plurality of regions of interest in said area of exposed skin of the subject; determining a signal to noise ratio of a heart rate or breathing rate frequency component of one of the colour channel signals or both for each region of interest; determining whether to reject or not reject regions of interest based on the determined signal to noise ratio of a heart rate or breathing rate frequency component or both; processing the colour channel signals from non-rejected regions of interest by: normalising the signal in each of the colour channels by dividing each of the signals by its baseline component; determining the ratio of the amplitudes of the normalised signals from two of the colour channel signals; and outputting changes over time in the ratio as representing changes in blood oxygen saturation of the subject.