mhurhangee/ep-ind-claims huggingface dataset:
Moving floor for a basin of a swimming pool capable of moving between a lower position in which it is located at the bottom of the basin in order to allow people to swim, and an upper position in which it covers the basin in order to constitute a protection against drowning of people moving about in the area around the swimming pool, the moving floor comprising: - compartments (7, 8, 9), each compartment (7, 8, 9) comprising a lower opening for continually allowing water to enter from the basin and a leaving of this water, and being further connected to an air supply, the compartments being spaced apart and independent from one another, and arranged so as to make the moving floor float when the compartments are filled with air to move the moving floor in the upper position, and sink when the compartments are filled with water in order to move the moving floor in the lower position, and - control means connected to the air supply for independently managing the quantity of air and water in the compartments (7, 8, 9) in order to tilt the moving floor as it is being moved between the upper position and the lower position, characterised in that the moving floor also comprises: - a bearing base structure composed of beams and/or girders (24, 26) assembled to each other, and - the compartments (7, 8, 9) being formed in the beams and/or girders (24, 26), each compartment (7, 8, 9) comprising an upper orifice for allowing air to leave. - compartments (7, 8, 9), each compartment (7, 8, 9) comprising a lower opening for continually allowing water to enter from the basin and a leaving of this water, and being further connected to an air supply, the compartments being spaced apart and independent from one another, and arranged so as to make the moving floor float when the compartments are filled with air to move the moving floor in the upper position, and sink when the compartments are filled with water in order to move the moving floor in the lower position, and - control means connected to the air supply for independently managing the quantity of air and water in the compartments (7, 8, 9) in order to tilt the moving floor as it is being moved between the upper position and the lower position, - a bearing base structure composed of beams and/or girders (24, 26) assembled to each other, and - the compartments (7, 8, 9) being formed in the beams and/or girders (24, 26), each compartment (7, 8, 9) comprising an upper orifice for allowing air to leave.
A method for balancing a group of consumers (V1, V2, V3, Vi) in a fluid transport system (5, 5') in which the consumers (V1, V2, V3, Vi) are each provided with a motorised regulating valve (V11, V22, V33, Vii) for regulating the flow through the consumer (V1, V2, V3, Vi), comprising: ascertaining a current total flow through the group of consumers (V1, V2, V3, Vi) by means of a common flow sensor, and characterized by: storing characteristic data for the consumers (V1, V2, V3, Vi) which determine a valve position (H i) of the corresponding regulating valve (V11, V22, V33, Vii) for target flows ( Ft i) through one consumer (V1, V2, V3, Vi) in each case at a constant pressure (Δ P 0) in the fluid transport system (5, 5'), determining a balancing factor based on the current total flow and a sum of the desired target flows through the consumers (V1, V2, V3, Vi), and performing a dynamic balancing of the consumers (V1, V2, V3, Vi) by setting the valve positions (H i) of the corresponding regulating valves (V11, V22, V33, Vii) based on the characteristic data and the target flows ( Ft i) scaled using the balancing factor. ascertaining a current total flow through the group of consumers (V1, V2, V3, Vi) by means of a common flow sensor, and characterized by: storing characteristic data for the consumers (V1, V2, V3, Vi) which determine a valve position (H i) of the corresponding regulating valve (V11, V22, V33, Vii) for target flows ( Ft i) through one consumer (V1, V2, V3, Vi) in each case at a constant pressure (Δ P 0) in the fluid transport system (5, 5'), determining a balancing factor based on the current total flow and a sum of the desired target flows through the consumers (V1, V2, V3, Vi), and performing a dynamic balancing of the consumers (V1, V2, V3, Vi) by setting the valve positions (H i) of the corresponding regulating valves (V11, V22, V33, Vii) based on the characteristic data and the target flows ( Ft i) scaled using the balancing factor. storing characteristic data for the consumers (V1, V2, V3, Vi) which determine a valve position (H i) of the corresponding regulating valve (V11, V22, V33, Vii) for target flows ( Ft i) through one consumer (V1, V2, V3, Vi) in each case at a constant pressure (Δ P 0) in the fluid transport system (5, 5'), determining a balancing factor based on the current total flow and a sum of the desired target flows through the consumers (V1, V2, V3, Vi), and performing a dynamic balancing of the consumers (V1, V2, V3, Vi) by setting the valve positions (H i) of the corresponding regulating valves (V11, V22, V33, Vii) based on the characteristic data and the target flows ( Ft i) scaled using the balancing factor.
A floor panel assembly having a bottom surface and a top surface, the floor panel assembly comprising: a first stack of structural layers adjacent the bottom surface; a core layer, adjacent the first stack of structural layers, that absorbs shear stress; a second stack of structural layers between the core layer and the top surface; a heating layer between the core layer and the top surface; and a woven impact layer between the heating layer and the top surface, the impact layer comprising: a woven high temperature thermoplastic fiber matrix; and a resin infiltrating the woven fiber matrix, wherein the resin is an epoxy, phenolic, bismaleimide, or cyanate ester resin. a first stack of structural layers adjacent the bottom surface; a core layer, adjacent the first stack of structural layers, that absorbs shear stress; a second stack of structural layers between the core layer and the top surface; a heating layer between the core layer and the top surface; and a woven impact layer between the heating layer and the top surface, the impact layer comprising: a woven high temperature thermoplastic fiber matrix; and a resin infiltrating the woven fiber matrix, wherein the resin is an epoxy, phenolic, bismaleimide, or cyanate ester resin. a woven high temperature thermoplastic fiber matrix; and a resin infiltrating the woven fiber matrix, wherein the resin is an epoxy, phenolic, bismaleimide, or cyanate ester resin.
A method of detecting a liver injury, comprising: generating a microRNA profile from a biological sample, wherein the biological sample is plasma, serum, or liver tissue; identifying at least two differentially expressed microRNA sequences by comparing the microRNA profile to a reference; and detecting the liver injury based on the identity or the amounts of the at least two differentially expressed microRNA sequences; wherein the at least two differentially expressed microRNA sequences comprise miR-122, miR-486, and human orthologs thereof, wherein the amount of miR-122 to the amount of miR-486 is greater than 4.0, wherein the reference are the levels of expressed microRNA sequences in a healthy person or a reference sample. generating a microRNA profile from a biological sample, wherein the biological sample is plasma, serum, or liver tissue; identifying at least two differentially expressed microRNA sequences by comparing the microRNA profile to a reference; and detecting the liver injury based on the identity or the amounts of the at least two differentially expressed microRNA sequences; wherein the at least two differentially expressed microRNA sequences comprise miR-122, miR-486, and human orthologs thereof, wherein the amount of miR-122 to the amount of miR-486 is greater than 4.0, wherein the reference are the levels of expressed microRNA sequences in a healthy person or a reference sample.
A pressure detection apparatus comprising: a plurality of pressure sensors (S 1 to Sn) configured to detect respective inner pressures of a plurality of cavities of a metal mold of an injection molding machine; wherein an information processing apparatus is configured to receive the detected inner pressures, and determine quality of a product molded with each cavity based on a value related to variation of a peak pressure arrival time (t1, t2, t3, t4). a plurality of pressure sensors (S 1 to Sn) configured to detect respective inner pressures of a plurality of cavities of a metal mold of an injection molding machine; wherein an information processing apparatus is configured to receive the detected inner pressures, and determine quality of a product molded with each cavity based on a value related to variation of a peak pressure arrival time (t1, t2, t3, t4).
Electric starter circuit for an automotive vehicle comprising a starter (DCM, EC) and a device for stepping up the battery voltage, said starter (DCM, EC) comprising an electric motor and an electromagnetic contactor, said device for stepping up the battery voltage being intended to prevent a drop in the battery voltage (Vbat) following a current spike produced by the use of said starter (DCM, EC) in a power circuit, characterized in that said device for stepping up the battery voltage comprises a transformer (LPF1 to LPF4) having a primary winding circuit that is connected in series in said power circuit and is directly connected to a terminal (B+) of the battery of the vehicle and is close as possible thereto, and that comprises at least one secondary winding circuit connected as a short circuit and a magnetic yoke (CA1 to CA5, CA5') formed by stacking sheets of a ferrous material.
An information sending method, comprising: determining, by a terminal device, a first time length corresponding to first information, wherein the first information comprises information about a data transmission resource; and sending, by the terminal device, a scheduling request on a first resource, wherein a time length of the first resource is equal to the first time length, and the scheduling request is used to request the data transmission resource; characterized in that the terminal device starts to send the scheduling request on any symbol on time domain resources, wherein the time domain resources are continuous time units in a time period, and a resource used to send the scheduling request is configured by a network device, wherein the resource that is used to send the scheduling request and that is configured by the network device for the terminal device to use for sending the scheduling request includes a frequency domain or code domain resource and does not include a time domain resource. determining, by a terminal device, a first time length corresponding to first information, wherein the first information comprises information about a data transmission resource; and sending, by the terminal device, a scheduling request on a first resource, wherein a time length of the first resource is equal to the first time length, and the scheduling request is used to request the data transmission resource; characterized in that the terminal device starts to send the scheduling request on any symbol on time domain resources, wherein the time domain resources are continuous time units in a time period, and a resource used to send the scheduling request is configured by a network device, wherein the resource that is used to send the scheduling request and that is configured by the network device for the terminal device to use for sending the scheduling request includes a frequency domain or code domain resource and does not include a time domain resource.
A porous zeolite shaped body of a zeolite, characterized in that said porous zeolite shaped body is made of a completely crystallized zeolite composed of tetrapropylammonium ion and silica sol in a mixing ratio (TPA/SiO 2) of 0.015 to 0.08 by mole.
A collar comprising: a set of collar teeth that are disposed opposite a collar hole that extends along an axis, wherein each collar tooth includes: a first end surface that extends away from the axis; a second end surface that extends away from the axis and is disposed opposite the first end surface; a first collar side surface that is concave from the first end surface to the second end surface; and a second collar side surface that is concave from the first end surface to the second end surface, wherein the second collar side surface is disposed opposite the first collar side surface, and characterised in that a gap between adjacent collar teeth is bisected by a gap bisecting plane, the collar has a concave cross section in the gap bisecting plane, a root is disposed between adjacent collar teeth, and a root midpoint radius (R M) where the gap bisecting plane intersects a transverse collar tooth plane is less than a root end radius (R E) where the gap bisecting plane intersects the first end surface. a first end surface that extends away from the axis; a second end surface that extends away from the axis and is disposed opposite the first end surface; a first collar side surface that is concave from the first end surface to the second end surface; and a second collar side surface that is concave from the first end surface to the second end surface, wherein the second collar side surface is disposed opposite the first collar side surface, and characterised in that a gap between adjacent collar teeth is bisected by a gap bisecting plane, the collar has a concave cross section in the gap bisecting plane, a root is disposed between adjacent collar teeth, and a root midpoint radius (R M) where the gap bisecting plane intersects a transverse collar tooth plane is less than a root end radius (R E) where the gap bisecting plane intersects the first end surface.
A liquid supply unit (100a, 100b, 100aA, 100bA, 100aB, 100bB, 330) attachable to a liquid ejection device having an electrode assembly, a liquid introduction conduit and a rotating mechanism including a first pressed part and a second pressed part, the rotating mechanism adapted to rotate about a supporting point of rotation, the liquid supply unit comprising: a first wall having a liquid supply port (110, 110a-c) configured to supply a liquid into the liquid introduction conduit; a second wall opposed to the first wall; a third wall intersecting with the first wall and the second wall; a fourth wall opposed to the third wall and intersecting with the first wall and the second wall; an inclined surface provided on the fourth wall and inclined so as to face a direction from the second wall toward the first wall; a plurality of contact portions arranged in an array direction and adapted to be electrically connectable with the electrode assembly, the contact portions provided on the inclined surface; a first pressure element (125, 125A, 125B) for pressing the first pressed part in the course of attachment of the liquid supply unit to the liquid ejection device; and a second pressure element (126, 126A, 126B) for pressing the second pressed part in the course of attachment of the liquid supply unit to the liquid ejection device, characterized in that the inclined surface is located between the first pressure element (125. 125A. 125B) and the second pressure element (126, 126A, 126B) in the array direction, the first pressure element (125, 125A, 125B) and the second pressure element (126, 126A, 126B) are more protruded than the inclined surface in a direction from the third wall toward the fourth wall. a first wall having a liquid supply port (110, 110a-c) configured to supply a liquid into the liquid introduction conduit; a second wall opposed to the first wall; a third wall intersecting with the first wall and the second wall; a fourth wall opposed to the third wall and intersecting with the first wall and the second wall; an inclined surface provided on the fourth wall and inclined so as to face a direction from the second wall toward the first wall; a plurality of contact portions arranged in an array direction and adapted to be electrically connectable with the electrode assembly, the contact portions provided on the inclined surface; a first pressure element (125, 125A, 125B) for pressing the first pressed part in the course of attachment of the liquid supply unit to the liquid ejection device; and a second pressure element (126, 126A, 126B) for pressing the second pressed part in the course of attachment of the liquid supply unit to the liquid ejection device, characterized in that the inclined surface is located between the first pressure element (125. 125A. 125B) and the second pressure element (126, 126A, 126B) in the array direction, the first pressure element (125, 125A, 125B) and the second pressure element (126, 126A, 126B) are more protruded than the inclined surface in a direction from the third wall toward the fourth wall.
A method for communication in a long-term evolution, LTE, system, the method comprising: processing an indicator; transmitting, by a first access node, the indicator to a second access node over an interface between the first access node and the second access node, wherein the indicator provides information on a transmission of a control channel by the first access node; and transmitting by the first access node, the control channel in an enhanced physical downlink control channel, E-PDCCH, region, wherein the control channel is frequency-division-multiplexed with data transmission, wherein the E-PDCCH region is legacy Physical Downlink Shared Channel, PDSCH, region in which the E-PDCCH is transmitted, wherein the indicator includes one relative narrowband transmission power, RNTP, threshold defined for the E-PDCCH, and wherein the set of possible values for said threshold is defined as {-∞, -8, -7, -6, -5, -4, -3, -2, -1, 0, +1, +2, +3, +4, +5, +6} dB.
Method for installing a software module in a device, wherein an operating system and a device-independent software environment are operated on a processor in the device, wherein the installation of the software module is achieved in the operating system via the software environment, wherein the software environment uses an installation interface to an installation manager in the operating system for installation of the software module, and that the installation manager then performs installation of the software module, characterized in that the installation interface is used to transfer at least one installation command that has the software module and at least one installation command.
A bend manager for optical fiber units, comprising: - a base having an upper surface and a lower surface, - at least one arc-shaped portion having a radius not lower than an optical fiber minimum bend radius, - substantially rectilinear portions ( 140a, 140b) each one extending from a corresponding end of the at least one arc-shaped portion, - at least one indentation being formed in the lower surface of the base at a substantially central point of the arc-shaped portion, said indentation being adapted to match a convex angle corner of a wall, characterized by comprising: - a plurality of retaining elements ( 115, 120) protruding from the upper surface, said plurality of retaining elements ( 115, 120) defining a channel for accommodating an optical conduit, wherein the retaining elements ( 115, 120) of said plurality are provided in sequence on a first longitudinal side and on a second longitudinal side of the upper surface, said first and second longitudinal sides being opposite to each other, wherein the retaining elements on the first longitudinal side are staggered with respect to the retaining elements on the second longitudinal side. - a base having an upper surface and a lower surface, - at least one arc-shaped portion having a radius not lower than an optical fiber minimum bend radius, - substantially rectilinear portions ( 140a, 140b) each one extending from a corresponding end of the at least one arc-shaped portion, - at least one indentation being formed in the lower surface of the base at a substantially central point of the arc-shaped portion, said indentation being adapted to match a convex angle corner of a wall, - a plurality of retaining elements ( 115, 120) protruding from the upper surface, said plurality of retaining elements ( 115, 120) defining a channel for accommodating an optical conduit, wherein the retaining elements ( 115, 120) of said plurality are provided in sequence on a first longitudinal side and on a second longitudinal side of the upper surface, said first and second longitudinal sides being opposite to each other, wherein the retaining elements on the first longitudinal side are staggered with respect to the retaining elements on the second longitudinal side.
Lifting and rotating unit comprising a primary part and a rotor concentrically surrounding the primary part and being rotatable around a rotation axis, wherein a further primary part is provided concentrically surrounding the rotor, wherein one primary part is formed as a rotary primary part and one primary part is formed as a longitudinal primary part, and wherein the rotor is arranged movable in a longitudinal direction along the rotation axis and is formed in such a way that it is caused to rotate around the rotation axis when the rotary primary part is energized and that it is caused to move longitudinally along the rotation axis when the longitudinal primary part is energized, wherein the rotor comprises rotor segments (28, 30) extending parallel or slanting with respect to the rotor axis, wherein adjacent rotor segments (28, 30) have different magnetic polarizations, characterized in that between each two adjacent rotor segments (28, 30) a permanently magnetized magnetic bar is provided, that the rotor segments (28, 30) comprise elevated operative sections (34, 36) on their side facing the longitudinal primary part which have the same polarization as the respective rotor segments (28, 30), that the operative sections (34, 36) are arranged in a staggered manner in a circumferential direction from adjacent rotor segments (28, 30) having different magnetic polarizations, wherein a gap is provided in the circumferential direction between two operative sections (34, 36), and that a gap in the longitudinal direction is provided between two operative sections (34, 36) of the same polarization.
Device for reducing vibrations in a hydraulic actuating system, particularly a hydraulic clutch actuating system for motor vehicles, comprising a housing in which a pressure chamber is formed, the pressure chamber being fluid-connectible by way of at least one connection (16, 18) with the hydraulic actuating system and being bounded by a resilient membrane (20, 20') which has a pressure-loadable surface (22, 22') facing the pressure chamber and a surface (24, 24') remote from the pressure chamber, wherein the latter is provided with a profiling (26, 26') by way of which the membrane (20, 20') when loaded with pressure is capable of support on a fixed wall section of the housing and which has at least one web section (30, 30') with at least one web (32, 32') having a web foot (34, 34') distant from the wall section, a web end (36, 36') adjacent to the wall section and a defined web cross-section, characterized in that the or each web (32, 32') is formed asymmetrically with respect to a notional plane extending normal to the pressure-loadable surface (22, 22') of the membrane (20, 20') through the web foot (34, 34') and perpendicularly to the web cross-section so that the or each web (32, 32') when the membrane (20, 20') is subjected to predetermined pressure loading buckles in a predetermined direction without hindrance and with support of the web end (36, 36') on the wall section.