mhurhangee/patent-ind-claim-en huggingface dataset:
Espresso coffee machine , comprising: - a dispensing unit comprising a dispensing chamber in fluid connection with a filter configured to contain a tablet of pressed coffee powder, wherein the dispensing unit further comprises a pre-brewing chamber in fluid connection with the dispensing chamber , and wherein the pre-brewing chamber comprises a movable wall configured to allow a variation of the internal volume of the pre-brewing chamber as a function of a force exerted on the movable wall by a fluid fed to the pre-brewing chamber ; - a pump configured to feed hot water under pressure to the dispensing unit , where the fluid fed to the pre-brewing chamber is hot water; - a manual control configured to operate the pump ; - a dispensing valve configured to control the entry of hot water into the dispensing chamber ; and - a drain valve , configured to control the outlet of water from a drain of the dispensing unit ; characterized in that the same manual control configured to operate the pump is configured to also control the dispensing valve and the drain valve . - a dispensing unit comprising a dispensing chamber in fluid connection with a filter configured to contain a tablet of pressed coffee powder, wherein the dispensing unit further comprises a pre-brewing chamber in fluid connection with the dispensing chamber , and wherein the pre-brewing chamber comprises a movable wall configured to allow a variation of the internal volume of the pre-brewing chamber as a function of a force exerted on the movable wall by a fluid fed to the pre-brewing chamber ; - a pump configured to feed hot water under pressure to the dispensing unit , where the fluid fed to the pre-brewing chamber is hot water; - a manual control configured to operate the pump ; - a dispensing valve configured to control the entry of hot water into the dispensing chamber ; and - a drain valve , configured to control the outlet of water from a drain of the dispensing unit ;
A pallet station comprising a horizontal storage surface in the form of a shelf , wherein the shelf is received on support beams arranged between transversal beams , wherein support rails are attached to the shelf by means of hook elements , wherein the shelf has the form of a net, wherein each support rail comprises a main part with side parts at opposite sides of the main part , which side parts are placed perpendicular to the main part , wherein one horizontal flange is placed perpendicular to respective side part at the side of the side part opposite the side at the horizontal flange , and wherein the horizontal flanges of each support rail are placed in a common plane and directed towards each other and with a distance between each other, characterized in that each horizontal flange has at least one row of through openings , that each support rail is connected to the one or more nets by means of beam hooks and/or net hooks , that each beam hook comprises two leg parts , that each leg part has a bent end , and a hook part at the end of the leg parts opposite the bent ends , and that each leg part has a wave form.
A method for controlling a pump, in particular a centrifugal pump, during pumping of a liquid, comprising the following steps: fixing a setpoint value of a flow rate of the pump; measuring an inlet pressure of the liquid upstream of the pump and an outlet pressure of the liquid downstream of the pump; determining a setpoint value of a rotational speed of the pump from a performance map of the pump, wherein the fixed setpoint value of the flow rate and a difference between the outlet pressure and the inlet pressure are incorporated into the performance map as input values; and setting the rotational speed of the pump to the setpoint value of the rotational speed; wherein the fixing of the setpoint value of the flow rate comprises the following steps: determining a time average value of the difference between the outlet pressure and the inlet pressure; and fixing the setpoint value of the flow rate from the performance map of the pump, the time average value of the difference between the outlet pressure and the inlet pressure as well as a current rotational speed of the pump being incorporated into the performance map as input values. fixing a setpoint value of a flow rate of the pump; measuring an inlet pressure of the liquid upstream of the pump and an outlet pressure of the liquid downstream of the pump; determining a setpoint value of a rotational speed of the pump from a performance map of the pump, wherein the fixed setpoint value of the flow rate and a difference between the outlet pressure and the inlet pressure are incorporated into the performance map as input values; and setting the rotational speed of the pump to the setpoint value of the rotational speed; wherein the fixing of the setpoint value of the flow rate comprises the following steps: determining a time average value of the difference between the outlet pressure and the inlet pressure; and fixing the setpoint value of the flow rate from the performance map of the pump, the time average value of the difference between the outlet pressure and the inlet pressure as well as a current rotational speed of the pump being incorporated into the performance map as input values. determining a time average value of the difference between the outlet pressure and the inlet pressure; and fixing the setpoint value of the flow rate from the performance map of the pump, the time average value of the difference between the outlet pressure and the inlet pressure as well as a current rotational speed of the pump being incorporated into the performance map as input values.
A method of steering network traffic using dynamically generated configuration scripts, comprising: providing, by a first device intermediary between a client and a second device , to the client , a configuration script for connecting the client with a server , the configuration script specifying to establish one of a direct connection between the first device and the server and an indirect connection between the first device and the server via the second device ; receiving, by the first device from the client , a request to connect with the server , the request including a first address identified by the client in accordance with the configuration script based at least on a determination to establish one of the direct connection or the indirect connection ; determining, by the first device , a second address to connect with the server by applying a routing policy to the first address included in the request received from the client; and establishing, by the first device , one of the direct connection or the indirect connection between the client and the server using the second address to steer traffic between the client and the server . providing, by a first device intermediary between a client and a second device , to the client , a configuration script for connecting the client with a server , the configuration script specifying to establish one of a direct connection between the first device and the server and an indirect connection between the first device and the server via the second device ; receiving, by the first device from the client , a request to connect with the server , the request including a first address identified by the client in accordance with the configuration script based at least on a determination to establish one of the direct connection or the indirect connection ; determining, by the first device , a second address to connect with the server by applying a routing policy to the first address included in the request received from the client; and establishing, by the first device , one of the direct connection or the indirect connection between the client and the server using the second address to steer traffic between the client and the server .
A method for determining direction of an Earth Fault, EF, in a feeder of a high impedance grounded power system , the method being performed by an Intelligent Electronic Device, IED, the method comprising: obtaining (S102) a measure of a first order harmonic active current component derived from residual voltage and current of the feeder as valid for when the EF occurred in the feeder; obtaining (S104) a measure of a higher than first order harmonic reactive current component derived from residual voltage and current of the feeder as valid for when the EF occurred in the feeder; and determining (S106) the direction of the EF in the feeder based on a combination of the first order harmonic active current component and the higher than first order harmonic reactive current component, the method is characterised in that when determining the direction of the EF, the first order harmonic active current component is compared with a first pair of current threshold values defined by a positive value for forward direction and a different negative value for reverse direction, and the higher than first order harmonic reactive current component is compared with a second pair of threshold values. obtaining (S102) a measure of a first order harmonic active current component derived from residual voltage and current of the feeder as valid for when the EF occurred in the feeder; obtaining (S104) a measure of a higher than first order harmonic reactive current component derived from residual voltage and current of the feeder as valid for when the EF occurred in the feeder; and determining (S106) the direction of the EF in the feeder based on a combination of the first order harmonic active current component and the higher than first order harmonic reactive current component, the method is characterised in that when determining the direction of the EF, the first order harmonic active current component is compared with a first pair of current threshold values defined by a positive value for forward direction and a different negative value for reverse direction, and the higher than first order harmonic reactive current component is compared with a second pair of threshold values.
An excavation system comprising a support frame , a hydraulic circuit with a pump, and first and second excavation tools, one of said first and second excavation tools being a mechanical excavation tool having a hydraulic actuator and a mounting interface with at least one mechanical fastener member and at least one hydraulic coupling in fluid flow communication with said hydraulic actuator, the system being characterized in that the other one of said first and second excavation tools is a tool for excavation by electric pulses, comprising an electricity generator with a rotary shaft for generating electricity from rotation of the rotary shaft, a hydraulic motor coupled to said rotary shaft to drive rotation of the rotary shaft, and an electronic power module electrically connected to the electricity generator in order to be powered by the electricity generator so as to generate electric pulses of instantaneous power that is higher than an instantaneous power of the electricity generator , a plurality of electrodes including at least one electrode connected to said electronic power module , the electrodes being arranged on said front face, and a mounting interface with at least one mechanical fastener member and at least one hydraulic coupling in fluid flow communication with said hydraulic motor , and in that each of the mounting interfaces of the first and second excavation tools is suitable for releasably and alternatively mounting the corresponding excavation tool under the support frame of the excavation system, with the corresponding hydraulic coupling in fluid flow communication with said hydraulic circuit of the excavation assembly.
A dosage unit of a formulation for use in treating ocular and/or intraocular inflammation in a subject in need thereof, wherein the formulation is suitable for ophthalmological administration and comprises self-assembling peptides or self-assembling peptidomimetics, and the formulation is administered onto or into the eye of the subject in an amount effective for the treatment of ocular and/or intraocular inflammation; wherein the self-assembling peptides or self-assembling peptidomimetics have a sequence of amino acid residues conforming to one or more of Formulas I-XII: Xaa neu − Xaa + x Xaa neu − Xaa − y n Xaa neu − Xaa − x Xaa neu − Xaa + y n Xaa + − Xaa neu x Xaa − − Xaa neu y n Xaa − − Xaa neu x Xaa + − Xaa neu y n Xaa neu Xaa neu − Xaa + x Xaa neu − Xaa − y n Xaa neu Xaa neu − Xaa − x Xaa neu − Xaa + y n Xaa + − Xaa neu x Xaa − − Xaa neu y n Xaa neu Xaa − − Xaa neu x Xaa + − Xaa neu y n Xaa neu Xaa neu − Xaa + x Xaa neu − Xaa − y n Xaa neu Xaa neu − Xaa − x Xaa neu − Xaa + y n Xaa neu Xaa neu Xaa + − Xaa neu x Xaa − − Xaa neu y n Xaa neu Xaa − − Xaa neu x Xaa + − Xaa neu y n wherein Xaa neu represents an amino acid residue having a neutral charge; Xaa + represents an amino acid residue having a positive charge; Xaa - represents an amino acid residue having a negative charge; x and y are integers having a value of 1, 2, 3, or 4, independently; and n is an integer having a value of 1-5; wherein between about 70% and 100% of the self-assembling peptides or self-assembling peptidomimetics are of the same size and have the same amino acid sequence, and wherein the dosage unit is effective to prevent or mitigate ocular and/or intraocular inflammation when administered onto and/or into the eye of the subject. wherein the self-assembling peptides or self-assembling peptidomimetics have a sequence of amino acid residues conforming to one or more of Formulas I-XII: Xaa neu − Xaa + x Xaa neu − Xaa − y n Xaa neu − Xaa − x Xaa neu − Xaa + y n Xaa + − Xaa neu x Xaa − − Xaa neu y n Xaa − − Xaa neu x Xaa + − Xaa neu y n Xaa neu Xaa neu − Xaa + x Xaa neu − Xaa − y n Xaa neu Xaa neu − Xaa − x Xaa neu − Xaa + y n Xaa + − Xaa neu x Xaa − − Xaa neu y n Xaa neu Xaa − − Xaa neu x Xaa + − Xaa neu y n Xaa neu Xaa neu − Xaa + x Xaa neu − Xaa − y n Xaa neu Xaa neu − Xaa − x Xaa neu − Xaa + y n Xaa neu Xaa neu Xaa + − Xaa neu x Xaa − − Xaa neu y n Xaa neu Xaa − − Xaa neu x Xaa + − Xaa neu y n wherein Xaa neu represents an amino acid residue having a neutral charge; Xaa + represents an amino acid residue having a positive charge; Xaa - represents an amino acid residue having a negative charge; x and y are integers having a value of 1, 2, 3, or 4, independently; and n is an integer having a value of 1-5; wherein between about 70% and 100% of the self-assembling peptides or self-assembling peptidomimetics are of the same size and have the same amino acid sequence, and wherein the dosage unit is effective to prevent or mitigate ocular and/or intraocular inflammation when administered onto and/or into the eye of the subject.
A method for performing synchronization in a receiver of an analog code division spreading system, the method comprising: Outputting at least one sampling point alignment signal to apply one or more determined first time delays to encoder code signals, the encoder code signals carrying encoder codes used by an encoder for generating an orthogonal code-encoded analog signal, the one or more first time delays being determined to align the encoder code signals with a sampling point of an analog-to-digital converter (ADC), the ADC being used to obtain digital samples of the orthogonal code-encoded analog signal at the sampling point; Outputting at least one decoder code alignment signal to apply one or more determined second time delays to decoder code signals, the decoder code signals carrying decoder codes used by a decoder for decoding the digital samples, the one or more second time delays being determined to align the decoder code signals with the digital samples; and Outputting at least one orthogonal code alignment signal to apply one or more determined third time delays to the decoder code signals and the encoder code signals, the one or more third time delays being determined to maintain mutual orthogonality among the decoder code signals and to maintain mutual orthogonality among the encoder code signals. Outputting at least one sampling point alignment signal to apply one or more determined first time delays to encoder code signals, the encoder code signals carrying encoder codes used by an encoder for generating an orthogonal code-encoded analog signal, the one or more first time delays being determined to align the encoder code signals with a sampling point of an analog-to-digital converter (ADC), the ADC being used to obtain digital samples of the orthogonal code-encoded analog signal at the sampling point; Outputting at least one decoder code alignment signal to apply one or more determined second time delays to decoder code signals, the decoder code signals carrying decoder codes used by a decoder for decoding the digital samples, the one or more second time delays being determined to align the decoder code signals with the digital samples; and Outputting at least one orthogonal code alignment signal to apply one or more determined third time delays to the decoder code signals and the encoder code signals, the one or more third time delays being determined to maintain mutual orthogonality among the decoder code signals and to maintain mutual orthogonality among the encoder code signals.
Apparatus comprising: a smokable material heater ; a smokable material, wherein the smokable material is located around a longitudinal surface of the smokable material heater ; and a smokable material heating chamber for receiving the smokable material; characterised in that the smokable material heater is configured to heat a first region of the smokable material to a volatizing temperature sufficient to volatize a component of the smokable material and to concurrently heat a second region of the smokable material to a temperature lower than said volatizing temperature but which is sufficient to prevent condensation of the volatized component of the smokable material wherein smokable material the heater comprises a plurality of heating regions including a first heating region arranged to heat the first region of smokable material and a second heating region arranged to concurrently heat the second region of smokable material. a smokable material heater ; a smokable material, wherein the smokable material is located around a longitudinal surface of the smokable material heater ; and a smokable material heating chamber for receiving the smokable material; characterised in that the smokable material heater is configured to heat a first region of the smokable material to a volatizing temperature sufficient to volatize a component of the smokable material and to concurrently heat a second region of the smokable material to a temperature lower than said volatizing temperature but which is sufficient to prevent condensation of the volatized component of the smokable material wherein smokable material the heater comprises a plurality of heating regions including a first heating region arranged to heat the first region of smokable material and a second heating region arranged to concurrently heat the second region of smokable material.
A thrust increasing device comprising: a fuel injector which ejects fuel toward a jet flow; an ignition device disposed downstream from the fuel injector ; a cylindrical duct which surrounds a combustion region; a flame holder disposed in the duct ; and a swirling flow generating part (10d1, 10d2) which maintains a flow of the jet flow in an axial direction of the duct in an outer region of the duct in a radial direction inside the duct and converts the jet flow to a swirling flow centered on an axis of the duct in an inner region of the duct in the radial direction inside the duct , characterized in that the swirling flow generating part (10d1, 10d2) is made up of a plurality of radial gutters (10d1, 10d2) which are arranged around the axis of the duct in an annular shape and each of which injects air toward a place displaced from the axis of the duct by the same distance when viewed in the axial direction of the duct . a fuel injector which ejects fuel toward a jet flow; an ignition device disposed downstream from the fuel injector ; a cylindrical duct which surrounds a combustion region; a flame holder disposed in the duct ; and a swirling flow generating part (10d1, 10d2) which maintains a flow of the jet flow in an axial direction of the duct in an outer region of the duct in a radial direction inside the duct and converts the jet flow to a swirling flow centered on an axis of the duct in an inner region of the duct in the radial direction inside the duct , characterized in that the swirling flow generating part (10d1, 10d2) is made up of a plurality of radial gutters (10d1, 10d2) which are arranged around the axis of the duct in an annular shape and each of which injects air toward a place displaced from the axis of the duct by the same distance when viewed in the axial direction of the duct .
A method for generating an image of tissue comprising a contrast agent, the method comprising: acquiring a first set of images of the tissue at one or more angles relative to the tissue, wherein the first set of images comprises at least one low energy single energy image and at least one high energy single energy image said images taken at the same angles relative to the tissue; combining the at least one low energy single energy image and the at least one high energy single energy image to obtain at least one recombined image; determining coordinates of a region of interest in the tissue from the at least one recombined image or any set of images comprising the at least one recombined image; acquiring a second set of images of the tissue, wherein the second set of images comprises at least one single energy image; and producing at least one contrast-enhanced image by at least one of (i) combining the at least one single energy image from the second set of images with the at least one low energy single energy image from the first set of images, if the at least one single energy image from the second set of images is a high energy image, and (ii) combining the at least one single energy image of the second set of images with the at least one high energy single energy image from the first set of images, if the at least one single energy image from the second set of images is a low energy image. acquiring a first set of images of the tissue at one or more angles relative to the tissue, wherein the first set of images comprises at least one low energy single energy image and at least one high energy single energy image said images taken at the same angles relative to the tissue; combining the at least one low energy single energy image and the at least one high energy single energy image to obtain at least one recombined image; determining coordinates of a region of interest in the tissue from the at least one recombined image or any set of images comprising the at least one recombined image; acquiring a second set of images of the tissue, wherein the second set of images comprises at least one single energy image; and producing at least one contrast-enhanced image by at least one of (i) combining the at least one single energy image from the second set of images with the at least one low energy single energy image from the first set of images, if the at least one single energy image from the second set of images is a high energy image, and (ii) combining the at least one single energy image of the second set of images with the at least one high energy single energy image from the first set of images, if the at least one single energy image from the second set of images is a low energy image.