mhurhangee/patent-ind-claim-en huggingface dataset:
A polymer comprising structural units according to formula (I), R 1 -X-(C=O)-NH-R 2 -NH-(C=O)-O-POA-R 3 -(O-POA-R 4 ) n wherein R 1 represents an organic group terminated by a hydrocarbyl group having 6 to 50 carbon atoms, X represents O or N-R 5 , wherein R 5 represents a hydrogen atom or a hydrocarbyl group having 1 to 30 carbon atoms, R 2 represents a hydrocarbyl group comprising an aromatic group and having 6 to 40 carbon atoms, POA represents a polyoxyalkylene group R 3 represents an organic group having 2 to 40 carbon atoms, n is an integer from 1 to 6 R 4 is independently selected from -(C=O)-NH-R 2 -NH-(C=O)-X-R 1 , -(C=O)-NH-R 1 , -R 6 , wherein R 6 represents a hydrogen atom or an aliphatic or aromatic group having 1 to 24 carbon atoms, and wherein the polymer has an average of at least 1.8 end groups R 1 per molecule, a number average molecular weight in the range of 2000 to 100000 g/mol (Daltons), and a polydispersity in the range of 1.0 to 5.0, wherein the quotient of the polydispersity divided by (n+1) is less than 1.0.
Pressure generator for a hydraulic vehicle brake system, having a helical gear mechanism which has a rotatable, axially fixed component having a thread and has an axially displaceable, rotationally fixed component having a mating thread, the mating thread of the latter component engaging with the thread of the rotatable component such that rotational driving of the rotatable component axially displaces the axially displaceable component , and having a piston-cylinder unit which has a cylinder and has a piston which is displaceable in the cylinder , wherein the piston or the cylinder is connected to the axially displaceable component of the helical gear mechanism such that rotational driving of the rotatable component of the helical gear mechanism displaces the piston of the piston-cylinder unit relative to the cylinder via the axially displaceable component of the helical gear mechanism , characterized in that the pressure generator has a planetary gear mechanism for rotational driving of the rotatable component of the helical gear mechanism , and in that the rotatable component of the helical gear mechanism forms a planet carrier of the planetary gear mechanism .
Peptide having the following structure: N-terminal C-terminal « penetrating sequence » « S » « docking domain » wherein « penetrating sequence » includes at least one amino acid sequence allowing the penetration of said peptide into a cell, selected from the sequences of a penetrating peptide of HIV-TAT, Penetratin, and the sequences 7/11R or X7/11R ; « S » corresponds to an optional sequence of the spacer type ; and « docking domain » includes the amino acid sequence corresponding to a docking sequence of a substrate of an ERK-type MAP kinase selected among the FXFP domains of the ERK-TYPE MAP kinase substrates. « penetrating sequence » includes at least one amino acid sequence allowing the penetration of said peptide into a cell, selected from the sequences of a penetrating peptide of HIV-TAT, Penetratin, and the sequences 7/11R or X7/11R ; « S » corresponds to an optional sequence of the spacer type ; and « docking domain » includes the amino acid sequence corresponding to a docking sequence of a substrate of an ERK-type MAP kinase selected among the FXFP domains of the ERK-TYPE MAP kinase substrates.
A railway vehicle body , the body comprising an openwork body shell comprising longitudinal tubes , linking tubes crossing the longitudinal tubes , and fittings connecting longitudinal tubes and linking tubes , the body further comprising claddings extending between the longitudinal tubes and the linking tubes , characterized in that the longitudinal tubes and the linking tubes comprise fusible yarns assembled one to another by heating.
A metallic can end having a reclosable opening, in particular for beverage cans and for containers for storing foodstuffs and other liquid, pasty, powdery or solid products, having a microgap or weakening line provided in the metallic end surface and peripheral about the opening, having a sealing frame composed of plastic material connected to the fixed end surface and surrounding the opening region, having a closure unit which is composed of plastic material, which is connected to the upwardly pivotable metallic end region disposed within the microgap or the weakening line, which is pivotably attached to the fixed end surface via a pivot bearing and which is preferably provided with a tear-open member which is upwardly pivotably connected to the closure unit diametrically opposite the pivot bearing , wherein the sealing frame and the closure unit cooperate in a sealing manner via sealing and latching ribs and associated reception grooves and the metallic end region disposed within the peripheral microgap or the weakening line is received and held in the opening region of the end , wherein the sealing and latching ribs form at least two sealing edges , preferably three sealing edges , with the reception grooves , characterized in that the sealing edges are configured such that on the opening of the can end , the radially innermost sealing edge still seals when the radially outer sealing edge or the radially outer sealing edges have just been released.
Electric machine comprising a stator, this stator comprising a set of magnetic laminations which is made up of at least one first subset and of at least one second subset adjacent to the first the laminations of the first and second subsets having parts which become superposed, each comprising at least one closed channel formed within the laminations, these channels communicating with one another at the transition between the subsets, the parts of the laminations that become superposed being nonidentical so as to create a perturbation in the flow within the channels at the transition between the channels of the first and second subsets, electric machine wherein the laminations are produced in such a way that, at the transition between two subsets, at least one partition separating two adjacent channels of one subset becomes superposed nonexactly with a corresponding partition of the other subset so as to create a discontinuity at the interface between the subsets, in a channel adjacent to the partitions which are superposed, and wherein each lamination has angular extensions through which the said channels pass, at least two channels being separated within each angular extension by oriented radially partitions .
A system for separating a target gas from a liquid, said system comprising: a housing defining a chamber, and a composite membrane separating said chamber into a permeate side and a retentate side, said housing having an inlet and an outlet opening to said retentate side of said chamber, and a gas port opening to said permeate side of said chamber, said composite membrane being capable of separating the target gas from the liquid, and including a fabric comprising a non-woven array of intermingled carbon nanotubes having a diameter in the range 1 to 100 nanometers and a length in the range 0.001 to 10mm, wherein said composite membrane includes a polymer incorporated with said fabric to an extent sufficient to form a nonporous, gas permeable composite with said fabric; wherein said composite membrane exhibits a permeance of at least 7.5x10 -8 cm/s ∗ kPa (0.1 GPU) to the target gas, wherein the permeance is measured by the method described herein; and wherein the nonporous permeable composite membrane is substantially free from open pathways extending continuously from one side of the composite to the other side, and free from luminal pathways defined by the carbon nanotubes which extend through the composite membrane.
A method for manufacturing a display substrate, comprising: a step of forming an optical grating, wherein the step of forming the optical grating comprises:forming an intermediate layer on an outer surface of a transparent base substrate ; wherein the intermediate layer comprises stripe patterns arranged at intervals; and forming a display film layer on an inner surface of the transparent base substrate where the intermediate layer is formed; characterized in that the method further comprises: applying an opaque material onto a surface of the stripe patterns of the intermediate layer or between the stripe patterns of the intermediate layer on the transparent base substrate , to form light-shielding stripes and light-transmitting stripes which are alternately arranged, wherein the opaque material is carbon powder . a step of forming an optical grating, wherein the step of forming the optical grating comprises:forming an intermediate layer on an outer surface of a transparent base substrate ; wherein the intermediate layer comprises stripe patterns arranged at intervals; and forming a display film layer on an inner surface of the transparent base substrate where the intermediate layer is formed; characterized in that the method further comprises: applying an opaque material onto a surface of the stripe patterns of the intermediate layer or between the stripe patterns of the intermediate layer on the transparent base substrate , to form light-shielding stripes and light-transmitting stripes which are alternately arranged, wherein the opaque material is carbon powder .
A polishing composition comprising a synthetic water-soluble polymer M L-end and a synthetic water-soluble polymer M C-end , the synthetic water-soluble polymer M L-end having a hydrophobic region at least at one end of its main chain, the hydrophobic region having at least one hydrophobic group derived from a polymerization initiator, and the synthetic water-soluble polymer M C-end having a main chain formed with a non-cationic region as its main structural part and a cationic region located at least at one end of the main chain, the cationic region having at least one cationic group.
A nonwoven material having a first surface and a second surface , said nonwoven material comprising a plurality of fibers , wherein said material is characterized in that it comprises a generally planar first region and a plurality of discrete integral second regions that comprise deformations forming protrusions extending outward from the first surface of said nonwoven material and openings in the second surface of said nonwoven material , said protrusions being formed from said fibers , wherein said protrusions comprise a base proximate the first surface of said nonwoven material , an opposed distal end extending outward in the Z-direction from the base , and side walls between said base and said distal end of said protrusion , and a cap comprising at least a portion of the side walls and the distal end of the protrusion , wherein said side walls have interior surfaces, and the interior surfaces of the side walls define a base opening at the base of the protrusion , wherein said cap portion has a portion with a maximum interior width, and the base opening has a width, the width of the base opening before and after compression being greater than 1 mm, wherein the maximum interior width of the cap portion of the protrusions is wider than the width of the base opening , wherein when compressive forces of 7 kPa are applied on said nonwoven material perpendicular to the plane of the first region in accordance with the Accelerated Compression Method #2, at least some of said protrusions have a depth in a range of from 0.25 mm to 5 mm, preferably from 0.25 mm to 1 mm, after compression and recovery; wherein the nonwoven comprises a spunbonded nonwoven comprising bicomponent fibers having one of the following configurations: a. a sheath and core configuration comprising a polyethylene sheath and a PET core; or b. a side-by- side configuration wherein one of the components of the fibers comprises polyethylene and the other component comprises PET. a. a sheath and core configuration comprising a polyethylene sheath and a PET core; or b. a side-by- side configuration wherein one of the components of the fibers comprises polyethylene and the other component comprises PET.
A method for operating a gas turbine engine , the method comprising: obtaining, at a control system associated with the gas turbine engine , a measured engine core speed and an actual power demand for the gas turbine engine during operation thereof; determining an expected engine core speed (NG expected ) based on the actual power demand from a predicted relationship between engine core speed and engine output power; and comparing the measured engine core speed to the expected engine core speed (NG expected ), characterised in that the method further comprises: detecting a torque-related fault when the measured engine core speed differs from the expected engine core speed (NG expected ) by more than a threshold; and accommodating the torque-related fault when detected, wherein the threshold defines maximum and minimum limits for the engine core speed. obtaining, at a control system associated with the gas turbine engine , a measured engine core speed and an actual power demand for the gas turbine engine during operation thereof; determining an expected engine core speed (NG expected ) based on the actual power demand from a predicted relationship between engine core speed and engine output power; and comparing the measured engine core speed to the expected engine core speed (NG expected ), detecting a torque-related fault when the measured engine core speed differs from the expected engine core speed (NG expected ) by more than a threshold; and accommodating the torque-related fault when detected, wherein the threshold defines maximum and minimum limits for the engine core speed.
A drive module (11',12',11",12") for a well tractor, comprising: a drive module housing defining a cavity therein, and a drive arm that is hydraulically actuated and pivoting into and out of the cavity , the drive arm comprising an arm housing and a drive wheel arranged thereto, wherein the drive wheel is driven by a motor mounted outside the drive arm housing and arranged along and parallel with the drive arm in resting position, and wherein the drive wheel is drivingly connected to the motor via a drive line arrangement comprising a belt or chain drive arrangement comprising two chains or belts (24',24") connected in series, and an angular gear or gearing arrangement mounted outside the drive arm housing. a drive module housing defining a cavity therein, and a drive arm that is hydraulically actuated and pivoting into and out of the cavity , the drive arm comprising an arm housing and a drive wheel arranged thereto, wherein the drive wheel is driven by a motor mounted outside the drive arm housing and arranged along and parallel with the drive arm in resting position, and wherein the drive wheel is drivingly connected to the motor via a drive line arrangement comprising a belt or chain drive arrangement comprising two chains or belts (24',24") connected in series, and an angular gear or gearing arrangement mounted outside the drive arm housing. wherein the drive wheel is driven by a motor mounted outside the drive arm housing and arranged along and parallel with the drive arm in resting position, and wherein the drive wheel is drivingly connected to the motor via a drive line arrangement comprising a belt or chain drive arrangement comprising two chains or belts (24',24") connected in series, and an angular gear or gearing arrangement mounted outside the drive arm housing.
Timepiece movement comprising: • one or more mechanical energy sources , • at least two regulator assemblies , each regulator assembly comprising an escapement (5, 6; 13, 14), an escapement wheel and a regulating organ ; said movement additionally comprising ▪ a torque-sharing device comprising at least as many elastic organs as regulator assemblies with at least one input connected to the mechanical energy source or sources, allowing the transmission of the energy produced by the mechanical energy source or sources to the regulator assemblies , said torque-sharing device not comprising a differential; ▪ each regulator assembly being driven by the respective elastic organ , each respective elastic organ being provided in a respective kinematic chain before said respective escapement wheel . • one or more mechanical energy sources , • at least two regulator assemblies , each regulator assembly comprising an escapement (5, 6; 13, 14), an escapement wheel and a regulating organ ; ▪ a torque-sharing device comprising at least as many elastic organs as regulator assemblies with at least one input connected to the mechanical energy source or sources, allowing the transmission of the energy produced by the mechanical energy source or sources to the regulator assemblies , said torque-sharing device not comprising a differential; ▪ each regulator assembly being driven by the respective elastic organ , each respective elastic organ being provided in a respective kinematic chain before said respective escapement wheel .
An ultrasound system comprising: an ultrasound transceiver configured to transmit ultrasound signals to an object including a sample volume and receive echo signals from the sample volume and at least one phantom gate from which a flow noise signal is detected; a processor configured to generate an ultrasound image based on the received echo signals; and a display configured to display the generated ultrasound image , wherein the processor detects the flow noise signal at the at least one phantom gate by using the echo signals and controls the display to display a visual indicator representing the detected flow noise signal, characterised in that if the flow noise signal is detected at the phantom gate , the system automatically controls the phantom gate to occur at a different location by automatically increasing or decreasing a pulse repetition frequency (PRF) of the transmitted ultrasound signals without receiving a separate input from a user, or if the flow noise signal is detected at the phantom gate , the system automatically changes positions of an aperture and a pulsed Doppler line used for acquiring Doppler information at the sample volume without receiving the separate input from the user. an ultrasound transceiver configured to transmit ultrasound signals to an object including a sample volume and receive echo signals from the sample volume and at least one phantom gate from which a flow noise signal is detected; a processor configured to generate an ultrasound image based on the received echo signals; and a display configured to display the generated ultrasound image , wherein the processor detects the flow noise signal at the at least one phantom gate by using the echo signals and controls the display to display a visual indicator representing the detected flow noise signal, characterised in that if the flow noise signal is detected at the phantom gate , the system automatically controls the phantom gate to occur at a different location by automatically increasing or decreasing a pulse repetition frequency (PRF) of the transmitted ultrasound signals without receiving a separate input from a user, or if the flow noise signal is detected at the phantom gate , the system automatically changes positions of an aperture and a pulsed Doppler line used for acquiring Doppler information at the sample volume without receiving the separate input from the user. if the flow noise signal is detected at the phantom gate , the system automatically controls the phantom gate to occur at a different location by automatically increasing or decreasing a pulse repetition frequency (PRF) of the transmitted ultrasound signals without receiving a separate input from a user, or if the flow noise signal is detected at the phantom gate , the system automatically changes positions of an aperture and a pulsed Doppler line used for acquiring Doppler information at the sample volume without receiving the separate input from the user.
A data processing method, implemented in an energy manager responsible for regulating the electricity consumption of a set of electrical equipment (12.1, 12.2) using regulating setpoints, said method comprising the following steps: - receiving at least one message coming from at least one sensor (11.1, 11.2), said message comprising a piece of information detected by said sensor and said message identifying a type of said sensor; - updating a regulating setpoint as a function of the detected information and the identified sensor type; - transmitting said updated regulating setpoint to at least one piece of electrical equipment of the set of electrical equipment; characterized in that , upon receiving a first message and a second message respectively coming from a first sensor (11.1) and a second sensor (11.2), comprising contradictory detected information, the method further comprises selecting one of the messages based on the type of the first sensor and the type of the second sensor, the regulating setpoint being updated as a function of the information detected by the selected sensor. - receiving at least one message coming from at least one sensor (11.1, 11.2), said message comprising a piece of information detected by said sensor and said message identifying a type of said sensor; - updating a regulating setpoint as a function of the detected information and the identified sensor type; - transmitting said updated regulating setpoint to at least one piece of electrical equipment of the set of electrical equipment;
A below grade, blind side, waterproofing sheet membrane with adhesive and moderate reflectivity granular particle layer to fully bond to concrete/shotcrete, comprising: (a) at least one sheet membrane having a first membrane surface, and a second membrane surface; (b) at least one first adhesive layer having a first adhesive surface, and a second adhesive surface, and wherein said second adhesive surface is in secure contact with at least a portion of said first membrane surface; and (c) at least one layer of at least one moderate reflectivity granular particle layer, having a first particle layer surface, and a second particle layer surface, and wherein said second particle layer surface is in secure contact with at least a portion of said first adhesive surface, and wherein reflectivity of said at least one layer of at least one moderate reflectivity granular particle layer is between 35 percent reflectivity to below 55 percent reflectivity on a standard reflectivity scale, wherein the reflectivity is measured in percentage reflectance by a 45/0 degree reflectometer. (a) at least one sheet membrane having a first membrane surface, and a second membrane surface; (b) at least one first adhesive layer having a first adhesive surface, and a second adhesive surface, and wherein said second adhesive surface is in secure contact with at least a portion of said first membrane surface; and (c) at least one layer of at least one moderate reflectivity granular particle layer, having a first particle layer surface, and a second particle layer surface, and wherein said second particle layer surface is in secure contact with at least a portion of said first adhesive surface, and wherein reflectivity of said at least one layer of at least one moderate reflectivity granular particle layer is between 35 percent reflectivity to below 55 percent reflectivity on a standard reflectivity scale, wherein the reflectivity is measured in percentage reflectance by a 45/0 degree reflectometer.