mhurhangee/ep-ind-claims huggingface dataset:
A system (200; 300), comprising: a signal receiver circuit configured to receive second heart sound information of a subject and plethysmography information of the subject; and an assessment circuit configured to: determine a mean blood pressure of the subject using the received S2 information; determine an indication of pulse pressure of the subject using the received plethysmography information; determine a systolic blood pressure of the subject as an increase to the determined mean blood pressure by a first function of the determined indication of pulse pressure of the subject; determine a diastolic blood pressure of the subject as a decrease from the determined mean blood pressure by a second function of the determined indication of pulse pressure of the subject; and determine the first function as a function of a rise time of the plethysmography signal and a time between the S2 heart sound and a peak time of the plethysmography signal. a signal receiver circuit configured to receive second heart sound information of a subject and plethysmography information of the subject; and an assessment circuit configured to: determine a mean blood pressure of the subject using the received S2 information; determine an indication of pulse pressure of the subject using the received plethysmography information; determine a systolic blood pressure of the subject as an increase to the determined mean blood pressure by a first function of the determined indication of pulse pressure of the subject; determine a diastolic blood pressure of the subject as a decrease from the determined mean blood pressure by a second function of the determined indication of pulse pressure of the subject; and determine the first function as a function of a rise time of the plethysmography signal and a time between the S2 heart sound and a peak time of the plethysmography signal. determine a mean blood pressure of the subject using the received S2 information; determine an indication of pulse pressure of the subject using the received plethysmography information; determine a systolic blood pressure of the subject as an increase to the determined mean blood pressure by a first function of the determined indication of pulse pressure of the subject; determine a diastolic blood pressure of the subject as a decrease from the determined mean blood pressure by a second function of the determined indication of pulse pressure of the subject; and determine the first function as a function of a rise time of the plethysmography signal and a time between the S2 heart sound and a peak time of the plethysmography signal.
An electrochemical cell comprising: a fuel electrode comprising zinc as a metal fuel, a second electrode, an ionically conductive medium communicating the electrodes, wherein the ionically conductive medium is an aqueous electrolyte solution, the ionically conductive medium comprising at least two different additives, wherein at least one first additive is selected from the group consisting of:1-methyl-4-aza-1-azoniabicyclo [2,2,2] octane methyl carbonate; and 1,4,7,10-tetraazacyclododecane; and their derivatives; and, at least one second additive different from the first is selected from the group consisting of: tetraethylphosphonium tetrafluroborate; 1,4,7,10-tetraazacyclododecane; 1-benzyl-4-aza-1-azoniabicyclo [2,2,2] octane hydroxide; cis-glyoxal-cyclen; benzyletrimethylammonium OH- and their derivatives; the fuel electrode and the second electrode being operable in a discharge mode wherein the metal fuel is oxidized at the fuel electrode functioning as an anode, whereby electrons are generated for conduction from the fuel electrode to the second electrode via a load. a fuel electrode comprising zinc as a metal fuel, a second electrode, an ionically conductive medium communicating the electrodes, wherein the ionically conductive medium is an aqueous electrolyte solution, the ionically conductive medium comprising at least two different additives, wherein at least one first additive is selected from the group consisting of:1-methyl-4-aza-1-azoniabicyclo [2,2,2] octane methyl carbonate; and 1,4,7,10-tetraazacyclododecane; and their derivatives; and, at least one second additive different from the first is selected from the group consisting of: tetraethylphosphonium tetrafluroborate; 1,4,7,10-tetraazacyclododecane; 1-benzyl-4-aza-1-azoniabicyclo [2,2,2] octane hydroxide; cis-glyoxal-cyclen; benzyletrimethylammonium OH- and their derivatives;
A multi-layer stretch film comprising a core layer and two exterior layers sandwiching said core layer, wherein said core layer comprises calcium carbonate at a content of from 0.1 to 10 % by weight based on the total weight of the multi-layer stretch film and from 0.5 to 5 % by weight based on the total weight of the core layer, and wherein said core layer comprises linear low density polyethylene at a content of from 70 to 95 % by weight based on the total weight of the core layer, and wherein said exterior layers have a content of calcium carbonate of less than 0.1 % by weight based on the total weight of the multi-layer stretch film, wherein the multi-layer stretch film is an agricultural bale wrap film or silage film.
A method for processing an input low-resolution image to an output high-resolution image, comprising: partitioning the input LR image into patches; determining a local n -ary pattern (LnP) for each patch; applying to each LR-patch, based on the LnP of each patch, a respective regression function to generate overlapping HR patches, wherein the regression function is derived from pairs of corresponding LR and HR patches within clusters based on their LnP; and obtaining the output HR image by averaging intensities of pixels in the HR patches, wherein the steps are performed in a processor. partitioning the input LR image into patches; determining a local n -ary pattern (LnP) for each patch; applying to each LR-patch, based on the LnP of each patch, a respective regression function to generate overlapping HR patches, wherein the regression function is derived from pairs of corresponding LR and HR patches within clusters based on their LnP; and obtaining the output HR image by averaging intensities of pixels in the HR patches, wherein the steps are performed in a processor.
A method of fabricating a waveguide, comprising the steps of preparing two waveguide precursor pieces, each waveguide precursor piece comprising a single-crystal substrate made of an oxide substrate material and having a coating face with a substrate crystallographic direction lying in the coating face, and an epitaxial coating layer of an oxide coating material on the coating face of the substrate, wherein the oxide substrate material and the oxide coating material are different, wherein the oxide substrate material comprises yttrium as a substrate-material cation and the oxide coating material comprises a coating-material cation selected from the group consisting of ytterbium, thulium, erbium, and holmium; placing the two substrates together with their coating layers in contact and with their substrate crystallographic directions parallel, to form a precursor structure; and heating the precursor structure to an elevated temperature, so that the coating layers bond together, and the coating materials and the substrate materials interdiffuse to form the waveguide having an interdiffused region, and thereafter cooling the waveguide to room temperature.
A method of making a coated article comprising a graphene-inclusive film on a substrate, the method comprising: disposing a metal-inclusive catalyst layer on the substrate; exposing the substrate with the metal-inclusive catalyst layer thereon to a carbon-inclusive precursor gas and a strain-inducing gas at a temperature of no more than 900 degrees C, the strain-inducing gas inducing strain in the metal-inclusive catalyst layer; and forming and/or allowing formation of graphene both over and contacting the metal-inclusive catalyst layer, and between the substrate and the catalyst metal-inclusive catalyst layer, in making the coated article, and wherein the substrate with the catalyst layer thereon is exposed to at least the strain-inducing gas and/or a carbon source gas, in one or more stages, wherein a first stage comprises providing at least the strain-inducing gas in order to induce strain in the catalyst layer, and a second stage comprises providing at least the strain-inducing gas at a second flow rate and the carbon source gas at a third flow rate, the first and second stages being provided in that order. disposing a metal-inclusive catalyst layer on the substrate; exposing the substrate with the metal-inclusive catalyst layer thereon to a carbon-inclusive precursor gas and a strain-inducing gas at a temperature of no more than 900 degrees C, the strain-inducing gas inducing strain in the metal-inclusive catalyst layer; and forming and/or allowing formation of graphene both over and contacting the metal-inclusive catalyst layer, and between the substrate and the catalyst metal-inclusive catalyst layer, in making the coated article, and wherein the substrate with the catalyst layer thereon is exposed to at least the strain-inducing gas and/or a carbon source gas, in one or more stages, wherein a first stage comprises providing at least the strain-inducing gas in order to induce strain in the catalyst layer, and a second stage comprises providing at least the strain-inducing gas at a second flow rate and the carbon source gas at a third flow rate, the first and second stages being provided in that order.
Lamp comprising: - a light head for receiving a light source and - a holding element, wherein the light head is mounted on the holding element such that it can pivot about a pivot axis by means of a pivot bearing, wherein the pivot bearing comprises a first connecting part on the holding element and a second connecting part on the light head, wherein at least one of the connecting parts (8, 10) comprises a first latching element which, viewed in the direction of the pivot axis, is pretensioned toward the other connecting part (10, 8) and cooperates with a corresponding second latching element of the other connecting part (10, 8) to connect the light head and the holding element in such a manner that they are releasable in an assembly direction substantially transverse to the pivot axis and can pivot about the pivot axis, characterized in that, viewed in its assembly direction, the light head comprises a stop in front of the second connecting part in order to arrest the first connecting part in a connecting position of the connecting parts (8, 10) during assembly of the light head and the holding element. - a light head for receiving a light source and - a holding element, wherein the light head is mounted on the holding element such that it can pivot about a pivot axis by means of a pivot bearing, wherein the pivot bearing comprises a first connecting part on the holding element and a second connecting part on the light head, wherein at least one of the connecting parts (8, 10) comprises a first latching element which, viewed in the direction of the pivot axis, is pretensioned toward the other connecting part (10, 8) and cooperates with a corresponding second latching element of the other connecting part (10, 8) to connect the light head and the holding element in such a manner that they are releasable in an assembly direction substantially transverse to the pivot axis and can pivot about the pivot axis, characterized in that, viewed in its assembly direction, the light head comprises a stop in front of the second connecting part in order to arrest the first connecting part in a connecting position of the connecting parts (8, 10) during assembly of the light head and the holding element. wherein the pivot bearing comprises a first connecting part on the holding element and a second connecting part on the light head, wherein at least one of the connecting parts (8, 10) comprises a first latching element which, viewed in the direction of the pivot axis, is pretensioned toward the other connecting part (10, 8) and cooperates with a corresponding second latching element of the other connecting part (10, 8) to connect the light head and the holding element in such a manner that they are releasable in an assembly direction substantially transverse to the pivot axis and can pivot about the pivot axis, characterized in that, viewed in its assembly direction, the light head comprises a stop in front of the second connecting part in order to arrest the first connecting part in a connecting position of the connecting parts (8, 10) during assembly of the light head and the holding element.
Open fireplace in the form of a permanently open fire for installation in an installation location, having a flue gas exhaust hood for conveying away flue gas of the open fireplace, which flue gas exhaust hood is located above a fire chamber which has at least one open, first side through which fresh air can flow from the installation location into the fire chamber, characterised in that the flue gas exhaust hood is provided with a barrier surface by means of which the fire chamber is delimited at the top and by means of which a first gap having a width of between 3 cm and 10 cm is freed close to and along the open, first side of the fire chamber for conveying the flue gas from the fire chamber into the flue gas exhaust hood, such that an increased negative pressure is obtained for the flue gas close to and along that open, first side into the flue gas exhaust hood, and fresh air from the installation location is also to be drawn into the gap by that increased negative pressure close to the open, first side of the fire chamber.
A feedback method, applied to a first transmission node, comprising: receiving, by the first transmission node, a signal comprising a Transmission Block, TB, from a second transmission node, wherein the TB comprises K Code Blocks, CBs, and the K CBs are divided into P CB sets, K and P are positive integers, K≥3 and 2≤P≤K; obtaining, by the first transmission node, states of the P CB sets according to the signal comprising the TB; determining, by the first transmission node, at least one kind of feedback information in a preset feedback information set according to the states of the P CB sets, wherein the feedback information set at least comprises: correctness indication information and n kinds of incorrectness indication information, n is an integer more than or equal to 1; and sending, by the first transmission node, the determined feedback information to the second transmission node; wherein the feedback information set at least comprises two kinds of incorrectness indication information, and the incorrectness indication information is determined according to a number of incorrect or correct CB sets in the P CB sets or according to incorrectness rate or correctness rate of the CB sets; wherein the feedback information set further comprises CB error patterns of incorrect CB sets, or a CB error pattern of the TB. receiving, by the first transmission node, a signal comprising a Transmission Block, TB, from a second transmission node, wherein the TB comprises K Code Blocks, CBs, and the K CBs are divided into P CB sets, K and P are positive integers, K≥3 and 2≤P≤K; obtaining, by the first transmission node, states of the P CB sets according to the signal comprising the TB; determining, by the first transmission node, at least one kind of feedback information in a preset feedback information set according to the states of the P CB sets, wherein the feedback information set at least comprises: correctness indication information and n kinds of incorrectness indication information, n is an integer more than or equal to 1; and sending, by the first transmission node, the determined feedback information to the second transmission node; wherein the feedback information set at least comprises two kinds of incorrectness indication information, and the incorrectness indication information is determined according to a number of incorrect or correct CB sets in the P CB sets or according to incorrectness rate or correctness rate of the CB sets; wherein the feedback information set further comprises CB error patterns of incorrect CB sets, or a CB error pattern of the TB.
A pump assembly for use in an internal combustion engine, the pump assembly comprising: a pump housing (32a, 32b) provided with a bore within which a pumping plunger is reciprocal along a plunger axis, a pump chamber defined at one end of the bore within which fuel is pressurised to a relatively high level as the pumping plunger reciprocates within the bore, in use, and an inlet valve (40, 40a, 40b) housed within the pump housing (32a, 32b) and in communication with the pump chamber to control the flow of fuel into the pump chamber; a clamp member for applying a clamping load to the pump housing (32a, 32b) on at least one primary contact surface that engages the pump housing (32a, 32b) axially above the bore, and at least one secondary contact surface that engages the pump housing (32a, 32b) radially outwards from the bore; and wherein, the or each primary contact surface is defined on a projection of the clamp member so that, the clamping load has at least a component aligned with the plunger axis, through a surface of the pump housing (32a, 32b) located axially above the bore so that, the clamp member generates a compressive stress in the pump housing (32a, 32b) in close proximity to the plunger bore so as to counter tensile stress within the pump housing (32a, 32b) due to pressurised fuel within the pump chamber; and at least one securing member for securing the clamp member to the pump housing (32a, 32b), wherein the at least one securing member is positioned radially outwards from the bore and extends through or below a plane through the pump chamber and perpendicular to the plunger axis. a pump housing (32a, 32b) provided with a bore within which a pumping plunger is reciprocal along a plunger axis, a pump chamber defined at one end of the bore within which fuel is pressurised to a relatively high level as the pumping plunger reciprocates within the bore, in use, and an inlet valve (40, 40a, 40b) housed within the pump housing (32a, 32b) and in communication with the pump chamber to control the flow of fuel into the pump chamber; a clamp member for applying a clamping load to the pump housing (32a, 32b) on at least one primary contact surface that engages the pump housing (32a, 32b) axially above the bore, and at least one secondary contact surface that engages the pump housing (32a, 32b) radially outwards from the bore; and wherein, the or each primary contact surface is defined on a projection of the clamp member so that, the clamping load has at least a component aligned with the plunger axis, through a surface of the pump housing (32a, 32b) located axially above the bore so that, the clamp member generates a compressive stress in the pump housing (32a, 32b) in close proximity to the plunger bore so as to counter tensile stress within the pump housing (32a, 32b) due to pressurised fuel within the pump chamber; and at least one securing member for securing the clamp member to the pump housing (32a, 32b), wherein the at least one securing member is positioned radially outwards from the bore and extends through or below a plane through the pump chamber and perpendicular to the plunger axis.
A child's bicycle seat for mounting on a carrier or frame, having a seat shell, two foot rests and a central console which connects the two foot rests and the seat shell, characterized in that the central console is provided with a drink holder.
Pyrotechnic switch, comprising: - a casing, - at least one electrical conductor passing through the casing, - a piston housed in the casing, the piston - casing assembly being arranged to cut the electrical conductor at least at three separate locations, so as to form at least two free conducting strands (21, 22), which are separate from the rest of the electrical conductor, - a pyrotechnic actuator arranged to force the piston to cut the electrical conductor, characterized in that the piston - casing assembly is arranged to - cut the electrical conductor such that each free strand (21, 22) has at least one undeformed base portion with either no or two folded wings (22B, 22C) arranged on either side of the base portion and to - create at least one free strand with two folded wings (22B, 22C), - create at least one free strand without folded wings. - a casing, - at least one electrical conductor passing through the casing, - a piston housed in the casing, the piston - casing assembly being arranged to cut the electrical conductor at least at three separate locations, so as to form at least two free conducting strands (21, 22), which are separate from the rest of the electrical conductor, - a pyrotechnic actuator arranged to force the piston to cut the electrical conductor, characterized in that the piston - casing assembly is arranged to - cut the electrical conductor such that each free strand (21, 22) has at least one undeformed base portion with either no or two folded wings (22B, 22C) arranged on either side of the base portion and to - create at least one free strand with two folded wings (22B, 22C), - create at least one free strand without folded wings.
A pipe comprising polyethylene and greater than 0.5 wt.% zinc oxide having a time to failure as determined in accordance with ASTM F2263-07 that is at least 25% greater than an otherwise similar pipe prepared in the absence of zinc oxide, wherein the polymer is bimodal.
A power control method of an electronic cigarette, the power control method being configured for controlling an output power of a power device to a heating element, wherein the power control method of the electronic cigarette comprises the following steps: determining a target power; setting an intermediate power according to the target power, the intermediate power being less than the target power; controlling the power device to output a power to the heating element, and enabling the output power of the power device to directly reach the intermediate power at a first stage; characterized in that said method further comprises the following steps: adjusting the output power of the power device to gradually reach the target power at a second stage, a duration of the first stage being less than a duration of the second stage; and controlling the power device to constantly output the target power to the heating element at a third stage. determining a target power; setting an intermediate power according to the target power, the intermediate power being less than the target power; controlling the power device to output a power to the heating element, and enabling the output power of the power device to directly reach the intermediate power at a first stage; characterized in that said method further comprises the following steps: adjusting the output power of the power device to gradually reach the target power at a second stage, a duration of the first stage being less than a duration of the second stage; and controlling the power device to constantly output the target power to the heating element at a third stage. adjusting the output power of the power device to gradually reach the target power at a second stage, a duration of the first stage being less than a duration of the second stage; and controlling the power device to constantly output the target power to the heating element at a third stage.