mhurhangee/ep-ind-claims huggingface dataset:
A dispenser for dispensing sheet material, comprising: a body having four side walls (32,34,36,38), a base for resting on a support surface, and an opening in a top of said body; a lid connected to at least two (32,34) of said side walls near said top of said body and covering said opening, said lid having a slot therein to enable sheet material to be dispensed therefrom; and a platform for supporting a plurality of sheet material from below, said platform being movable from a first lowermost position when said dispenser is filled with sheet material to a second uppermost position adjacent said lid when said dispenser is more nearly empty of sheet material, said platform has a plurality of grooves corresponding to a plurality of ribs so that said platform is slidable within said body along and guided by said ribs, the dispenser being characterised in that first two opposing ones (32,34) of said side walls have said plurality of ribs protruding therefrom, said ribs extending from adjacent said top to adjacent said base, and in that said platform has a tongue on each of opposing ends thereof, and second two opposing ones (36,38) of said side walls have a corresponding stop to check upward movement of said platform beyond said top of said body. a body having four side walls (32,34,36,38), a base for resting on a support surface, and an opening in a top of said body; a lid connected to at least two (32,34) of said side walls near said top of said body and covering said opening, said lid having a slot therein to enable sheet material to be dispensed therefrom; and a platform for supporting a plurality of sheet material from below, said platform being movable from a first lowermost position when said dispenser is filled with sheet material to a second uppermost position adjacent said lid when said dispenser is more nearly empty of sheet material,
A circuit, comprising: an encoder configured to receive data and a data mask signal and to generate encoded data, wherein the encoder is configured to: (i) if the data mask signal indicates that the data transmitted from the circuit to another circuit is to be ignored by said another circuit, generate a predetermined bit pattern as encoded data and a modified data mask signal being in a first state; (ii) if the data mask signal indicates that the data transmitted from the circuit to said another circuit is to be used by said another circuit, encode a first subset of the data with data bus inversion wherein the encoder is further configured to generate a modified data mask signal being in a second state; and a transmitter configured to transmit the encoded data and the modified data mask signal over a communication link. an encoder configured to receive data and a data mask signal and to generate encoded data, wherein the encoder is configured to: (i) if the data mask signal indicates that the data transmitted from the circuit to another circuit is to be ignored by said another circuit, generate a predetermined bit pattern as encoded data and a modified data mask signal being in a first state; (ii) if the data mask signal indicates that the data transmitted from the circuit to said another circuit is to be used by said another circuit, encode a first subset of the data with data bus inversion wherein the encoder is further configured to generate a modified data mask signal being in a second state; and (i) if the data mask signal indicates that the data transmitted from the circuit to another circuit is to be ignored by said another circuit, generate a predetermined bit pattern as encoded data and a modified data mask signal being in a first state; (ii) if the data mask signal indicates that the data transmitted from the circuit to said another circuit is to be used by said another circuit, encode a first subset of the data with data bus inversion wherein the encoder is further configured to generate a modified data mask signal being in a second state; and a transmitter configured to transmit the encoded data and the modified data mask signal over a communication link.
Hidden window hinge for caravans and/or motorhomes, that is comprised of a profiled carrier, a fixed part a movable part, that is sliding in the fixed part and an inner pane that is installed on movable part of the hinge wherein the carrier comprises a part that fits on the caravan and/or motorhome wall, a part, where the fixed part of the hinge is installed and a part that is intended for installation of rubber sealing for the window, wherein part and part of the carrier are moved towards inside of the carrier compared to part characterized in that the hinge further comprises an outer pane that is bonded with inner pane over a step thereof wherein the height of the step is conducted in the way, that outer pane that is bonded with inner pane lies leveled with part of the carrier and hides the fixed part and the movable part of the hinge.
A balloon catheter (100; 3000; 3100; 3230; 3330; 3430; 3530) for obtaining pressure values related to gastric motility, - the balloon catheter suitable for delivery of one or more inflatable balloons to a stomach of a person via a nose of said person; - the balloon catheter comprising: a catheter, a first inflatable balloon (1; B1) and optionally a second inflatable balloon, fixedly attached to said catheter; - wherein an external diameter of the balloon catheter, when each of said balloons is deflated, is such that the balloon catheter can pass through a hole having a diameter of about 7.7 mm (23 French), - said catheter containing at least a first lumen which is fluidly coupled to the inside of the first balloon (1; B1) via at least one first opening (4; 3231; 3331; 3431; 3531) in the surface of the catheter; characterized in that: - the one or more balloons (1; B1, B2) are adapted to have an overall non-spherical shape, and for having: ∗ an outer diameter in the range from 4.0 to 7.0 cm and an effective length from 7.0 cm to 18.0 cm, or ∗ an outer diameter in the range from 4.0 to 7.0 cm and a total inner volume in the range from 90 ml to 330 ml, when each of said balloons is inflated by a pressure of 0.20 psi (or 1.379 kPa) in an environment of 20°C and 1013 mbar absent a counter-pressure; - and wherein each of said balloons (1; B1, B2) is made of a polyurethane material having a durometer in the range from 70 to 100 shore A, or a plastic material having a durometer in the range from 25 to 100 shore D, or a plastic material having a durometer in the range from 50 to 120 rockwell R. - the balloon catheter suitable for delivery of one or more inflatable balloons to a stomach of a person via a nose of said person; - the balloon catheter comprising: a catheter, a first inflatable balloon (1; B1) and optionally a second inflatable balloon, fixedly attached to said catheter; - wherein an external diameter of the balloon catheter, when each of said balloons is deflated, is such that the balloon catheter can pass through a hole having a diameter of about 7.7 mm (23 French), - said catheter containing at least a first lumen which is fluidly coupled to the inside of the first balloon (1; B1) via at least one first opening (4; 3231; 3331; 3431; 3531) in the surface of the catheter; - the one or more balloons (1; B1, B2) are adapted to have an overall non-spherical shape, and for having: ∗ an outer diameter in the range from 4.0 to 7.0 cm and an effective length from 7.0 cm to 18.0 cm, or ∗ an outer diameter in the range from 4.0 to 7.0 cm and a total inner volume in the range from 90 ml to 330 ml, ∗ an outer diameter in the range from 4.0 to 7.0 cm and an effective length from 7.0 cm to 18.0 cm, or ∗ an outer diameter in the range from 4.0 to 7.0 cm and a total inner volume in the range from 90 ml to 330 ml, - and wherein each of said balloons (1; B1, B2) is made of a polyurethane material having a durometer in the range from 70 to 100 shore A, or a plastic material having a durometer in the range from 25 to 100 shore D, or a plastic material having a durometer in the range from 50 to 120 rockwell R.
A device for suspending parts, comprising: - a U-shaped part with perforations comprising: ▪ suspension elements, ▪ a front hanging body joined to the U-shaped element, - a shaft having a circumferential flange as a stop and anti-rotation means, - characterized in that it comprises a sleeve that moves on the shaft, having free passages for receiving the suspension elements and having a hollow recess for coupling the central hanging body, - supporting means, - a magnetizing part connected to the sleeve to enable the sleeve to move on the shaft, - a locking component, with the front hanging body being coupled on the shaft so as to coincide with the recess of the sleeve to enable the sleeve to move on the shaft. - a U-shaped part with perforations comprising: ▪ suspension elements, ▪ a front hanging body joined to the U-shaped element, ▪ suspension elements, ▪ a front hanging body joined to the U-shaped element, - a shaft having a circumferential flange as a stop and anti-rotation means, - characterized in that it comprises a sleeve that moves on the shaft, having free passages for receiving the suspension elements and having a hollow recess for coupling the central hanging body, - supporting means, - a magnetizing part connected to the sleeve to enable the sleeve to move on the shaft, - a locking component,
A data receiving method performed by a terminal device, comprising: receiving first downlink control information, DCI, sent by a network device, wherein the first DCI comprises a quantity of layers for transmitting first data through a physical downlink shared channel, PDSCH, by the network device and under a first condition, the quantity of layers of the first data is less than or equal to N1; and under a second condition, the quantity of layers of the first data is less than or equal to N2 and exceeds N1, N1 is less than N2, N2 is a maximum quantity of layers, for transmitting data through the PDSCH, supported by the terminal device, and N1 is a positive integer, wherein the first condition is any one of the following conditions: same-slot scheduling, a scheduling latency being less than a preset value, channel quality or a signal-to-noise ratio being less than a preset value, DCI not including scheduling information and wherein the second condition is any one of the following conditions: cross-slot scheduling, a scheduling latency being greater than a preset value, channel quality or a signal-to-noise ratio being greater than a preset value, DCI including scheduling information; receiving the first data sent by the network device, and demodulating the first data based on the quantity of layers comprised in the first DCI. receiving first downlink control information, DCI, sent by a network device, wherein the first DCI comprises a quantity of layers for transmitting first data through a physical downlink shared channel, PDSCH, by the network device and under a first condition, the quantity of layers of the first data is less than or equal to N1; and under a second condition, the quantity of layers of the first data is less than or equal to N2 and exceeds N1, N1 is less than N2, N2 is a maximum quantity of layers, for transmitting data through the PDSCH, supported by the terminal device, and N1 is a positive integer, wherein the first condition is any one of the following conditions: same-slot scheduling, a scheduling latency being less than a preset value, channel quality or a signal-to-noise ratio being less than a preset value, DCI not including scheduling information and wherein the second condition is any one of the following conditions: cross-slot scheduling, a scheduling latency being greater than a preset value, channel quality or a signal-to-noise ratio being greater than a preset value, DCI including scheduling information; receiving the first data sent by the network device, and demodulating the first data based on the quantity of layers comprised in the first DCI.
A connector adapted for coupling with a fluid storage and dispensing package (100, 200) including a collapsible liner (112, 206), characterized in that the connector comprises a probe including an opening arranged for placement within an upper portion of an interior volume of the liner (112, 206) for extraction of process material from the upper portion of the interior volume of the liner (112, 206), the probe is adapted to deliver process material to a process system, and the probe is arranged to receive gas from the interior volume of the liner (112, 206) and deliver the gas to a vent.
An isolation gasket for use between joined pieces in a flow line that is operative for fluid passage therethrough, comprising: an metal plate having opposing side surfaces and an opening formed therein to allow fluid passage therethrough; a primary seal coupled to the isolation gasket; a layer of dielectric material disposed on at least one of said opposing side surfaces; a groove, having a depth, formed on at least one of said opposing side surfaces which penetrates through said layer of dielectric material and into said metal plate and which extends completely around said opening; a secondary seal comprising an annular body seal element formed at least in part of metal disposed in said groove; and a compression limiter, having a thickness that corresponds with the depth, acting on the secondary seal; the compression limiter acting to maintain a thickness of the isolation gasket in the event of high temperatures causing the loss of dielectric material and the primary seal to fail and preventing the secondary seal from being over compressed. an metal plate having opposing side surfaces and an opening formed therein to allow fluid passage therethrough; a primary seal coupled to the isolation gasket; a layer of dielectric material disposed on at least one of said opposing side surfaces; a groove, having a depth, formed on at least one of said opposing side surfaces which penetrates through said layer of dielectric material and into said metal plate and which extends completely around said opening; a secondary seal comprising an annular body seal element formed at least in part of metal disposed in said groove; and a compression limiter, having a thickness that corresponds with the depth, acting on the secondary seal; the compression limiter acting to maintain a thickness of the isolation gasket in the event of high temperatures causing the loss of dielectric material and the primary seal to fail and preventing the secondary seal from being over compressed.
A method for guidance of driver behaviour during driving of motor vehicles comprising the step of determining the consequences of an upshift sequence, comprising the further steps of: - determining whether effecting an upshift sequence is appropriate from the operability perspective; - if an upshift sequence is not appropriate, determining a prevailing engine speed, characterised by: - if said prevailing engine speed is above a first predetermined level, presenting the driver with a suggestion to lower said engine speed. - determining whether effecting an upshift sequence is appropriate from the operability perspective; - if an upshift sequence is not appropriate, determining a prevailing engine speed, characterised by: - if said prevailing engine speed is above a first predetermined level, presenting the driver with a suggestion to lower said engine speed.
A method for controlling a vapour compression system comprising a compressor unit comprising one or more compressors (3, 12), a heat rejecting heat exchanger, a receiver, an expansion device and an evaporator arranged in a refrigerant path, the expansion device being arranged to control a supply of refrigerant to the evaporator, the method comprising the steps of: - obtaining a pressure value indicating a pressure prevailing inside the receiver, - comparing the obtained pressure value to a first threshold pressure value, and - in the case that the obtained pressure value is below the first threshold pressure value, controlling the compressor(s) (3, 12) of the compressor unit in order to reduce a suction pressure of the vapour compression system. - obtaining a pressure value indicating a pressure prevailing inside the receiver, - comparing the obtained pressure value to a first threshold pressure value, and - in the case that the obtained pressure value is below the first threshold pressure value, controlling the compressor(s) (3, 12) of the compressor unit in order to reduce a suction pressure of the vapour compression system.
A motion simulator comprising: a stationary frame; a movable frame movably connected to the stationary frame; an operating chamber formed on a lower side of one end of the movable frame; a first driving means for pivoting the movable frame; and a second driving means arranged between the operating chamber and the movable frame, for rotating and pivoting the operating chamber independently with respect to the movable frame; wherein the first driving means comprises a heave actuator connected to the other end of the movable frame and to the stationary frame, for reciprocally pivoting the movable frame with its reciprocal movement, and wherein the second driving means comprises: a plurality of roll/pitch actuators connecting the movable frame and the operating chamber, and a universal joint connected between the operating chamber and the movable frame, for limiting an unintended movement of the operating chamber with respect to the movable frame. a stationary frame; a movable frame movably connected to the stationary frame; an operating chamber formed on a lower side of one end of the movable frame; a first driving means for pivoting the movable frame; and a second driving means arranged between the operating chamber and the movable frame, for rotating and pivoting the operating chamber independently with respect to the movable frame; wherein the first driving means comprises a heave actuator connected to the other end of the movable frame and to the stationary frame, for reciprocally pivoting the movable frame with its reciprocal movement, and wherein the second driving means comprises: a plurality of roll/pitch actuators connecting the movable frame and the operating chamber, and a universal joint connected between the operating chamber and the movable frame, for limiting an unintended movement of the operating chamber with respect to the movable frame. a plurality of roll/pitch actuators connecting the movable frame and the operating chamber, and a universal joint connected between the operating chamber and the movable frame, for limiting an unintended movement of the operating chamber with respect to the movable frame.
Bicycle gearshift comprising a kinematic mechanism in the form of a four-bar linkage with a base body and a mobile body connected together through a pair of connecting rods (13,15) articulated to said base body and to said mobile body at four pin elements (16,17,18,19), each pair of opposite pin elements (16,19 and 17,18) of said four pin elements (16,17,18,19) defining a diagonal of said four-bar linkage-kinematic mechanism, and a first attachment group of said base body to a bicycle frame, said mobile body being connected to a chain guide at a second attachment group, said four-bar linkage-kinematic mechanism being associated with gearshift actuation means suitable for deforming said four-bar linkage-kinematic mechanism so as to determine a displacement of said mobile body with respect to said base body and consequently a primary displacement of said chain guide in the axial direction with respect to the axis of a cogset, characterised in that said first attachment group comprises a kinematic mechanism for changing the relative angular position between said base body of said four-bar linkage-kinematic mechanism and said frame as a function of said primary displacement of said chain guide.
A method for determining the low-temperature properties of a paraffin-containing fuel, in which the fuel is conducted from a storage chamber through a measuring cell provided with a sieve, the measuring cell is cooled by means of a cooling device, the temperature of the fuel in the measuring cell is measured, and a fluid pressure representing the flow resistance occurring on the sieve is measured, and the temperature occurring at a defined fluid pressure set point is determined and output as a result of the method, characterized in that, for the pressure measurement, a defined sample amount of the fuel is abruptly delivered from the storage chamber in order to obtain a pressure pulse.
A Doherty amplifier comprising: a main-power-amplifier having a main-amp-output-terminal; a peaking-power-amplifier having a peaking-amp-output-terminal; a Doherty-output-terminal connected to a combining node through a matching network; a wide-band Doherty combiner comprising: a main-output-impedance-inverter connected between the main-amp-output-terminal and the combining node;; and a transformer, connected between the peaking-amp-output-terminal and the combining node, and configured to provide impedance transformation, wherein the transformer being an autotransformer comprising a first-end-terminal, a second-end-terminal and an intermediate-terminal, wherein: the first-end-terminal is galvanically connected to the combining node; the intermediate-terminal is galvanically connected to the peaking-amp-output-terminal; and the second-end-terminal is connected to a reference terminal. a main-power-amplifier having a main-amp-output-terminal; a peaking-power-amplifier having a peaking-amp-output-terminal; a Doherty-output-terminal connected to a combining node through a matching network; a wide-band Doherty combiner comprising: a main-output-impedance-inverter connected between the main-amp-output-terminal and the combining node;; and a transformer, connected between the peaking-amp-output-terminal and the combining node, and configured to provide impedance transformation, a main-output-impedance-inverter connected between the main-amp-output-terminal and the combining node;; and a transformer, connected between the peaking-amp-output-terminal and the combining node, and configured to provide impedance transformation, wherein the transformer being an autotransformer comprising a first-end-terminal, a second-end-terminal and an intermediate-terminal, wherein: the first-end-terminal is galvanically connected to the combining node; the intermediate-terminal is galvanically connected to the peaking-amp-output-terminal; and the second-end-terminal is connected to a reference terminal. the first-end-terminal is galvanically connected to the combining node; the intermediate-terminal is galvanically connected to the peaking-amp-output-terminal; and the second-end-terminal is connected to a reference terminal.