mhurhangee/ep-ind-claims huggingface dataset:
Cosmetic emulsion comprising a) polyglyceryl-3 methylglucose distearate b) sodium polyacrylate homopolymer (INCI Sodium Polyacrylate) and c) crosslinked polyacrylic acid and/or salts thereof, characterized in that the preparation comprises ethylhexyl salicylate, wherein the ratio by weight of sodium polyacrylate homopolymer (INCI: Sodium Polyacrylate) to crosslinked polyacrylic acid and/or salts thereof is from 1:7 to 1:2. a) polyglyceryl-3 methylglucose distearate b) sodium polyacrylate homopolymer (INCI Sodium Polyacrylate) and c) crosslinked polyacrylic acid and/or salts thereof, characterized in that the preparation comprises ethylhexyl salicylate, wherein the ratio by weight of sodium polyacrylate homopolymer (INCI: Sodium Polyacrylate) to crosslinked polyacrylic acid and/or salts thereof is from 1:7 to 1:2.
A system for determining biological or physiological aspects relating to stiffness of at least one artery, the system comprising: a weighing scale including and integrating a first sensor and a second sensor; the first sensor configured and arranged to capture, from at least one foot of a user in an upright position while the user is standing on the weighing scale, a ballistocardiogram signal indicative of at least one of physical movement and mechanical output of the user's heart and of the mechanical movement of blood through an aorta of the user, and to provide an output characterizing the BCG signal; the second sensor configured and arranged to detect a photoplethysmogram or impedance cardiogram signal indicative of characteristics of the user at a distal artery location, the characteristics including a measurement of the volumetric change of an artery or organ of the user, and to provide an output characterizing the PPG or ICG signal; and a logic circuit that is configured and arranged to process the BCG signal and the PPG or ICG signal provided from the first sensor and from the second sensor by: using the BCG signal as a T1 timing and the PPG or ICG signal as a T2 timing, computing a pulse transit time based on a difference between the T2 timing and the T1 timing, wherein the PTT is indicative of the biological or physiological aspects relating to the arterial stiffness. a weighing scale including and integrating a first sensor and a second sensor; the first sensor configured and arranged to capture, from at least one foot of a user in an upright position while the user is standing on the weighing scale, a ballistocardiogram signal indicative of at least one of physical movement and mechanical output of the user's heart and of the mechanical movement of blood through an aorta of the user, and to provide an output characterizing the BCG signal; the second sensor configured and arranged to detect a photoplethysmogram or impedance cardiogram signal indicative of characteristics of the user at a distal artery location, the characteristics including a measurement of the volumetric change of an artery or organ of the user, and to provide an output characterizing the PPG or ICG signal; and a logic circuit that is configured and arranged to process the BCG signal and the PPG or ICG signal provided from the first sensor and from the second sensor by: using the BCG signal as a T1 timing and the PPG or ICG signal as a T2 timing, computing a pulse transit time based on a difference between the T2 timing and the T1 timing, wherein the PTT is indicative of the biological or physiological aspects relating to the arterial stiffness. using the BCG signal as a T1 timing and the PPG or ICG signal as a T2 timing, computing a pulse transit time based on a difference between the T2 timing and the T1 timing, wherein the PTT is indicative of the biological or physiological aspects relating to the arterial stiffness.
An electric tool (10, 40, 60) comprising: an output part (26, 53, 68) that comes into contact with a working target to process the working target; a motor (20, 43, 64) that drives the output part; a sensor that measures capacitance of a metal part comprising the output part; characterized by a metal case (22, 46, 66) accommodating the output part, wherein the sensor is electrically connected to the case, and the electric tool (10, 40, 60) detects a foreign object based on a change in the capacitance measured by the sensor. an output part (26, 53, 68) that comes into contact with a working target to process the working target; a motor (20, 43, 64) that drives the output part; a sensor that measures capacitance of a metal part comprising the output part; characterized by a metal case (22, 46, 66) accommodating the output part, wherein the sensor is electrically connected to the case, and the electric tool (10, 40, 60) detects a foreign object based on a change in the capacitance measured by the sensor.
A method comprising the steps of: - providing a cup-shaped body (2; 102), said body (2; 102) having a side wall extending around an axis and a transverse wall (5; 105) arranged transversely to the axis for delimiting a concavity of the body, the transverse wall (5; 105) having an inner face (8; 108) facing the concavity and an outer face (9; 109) opposite the inner face (8; 108); - placing a dose of polymeric material onto the outer face (9; 109) of the transverse wall (5; 105); - compression moulding the dose in contact with the outer face (9; 109) by means of a male moulding element, thereby obtaining from the dose a shaped element attached to the transverse wall (5; 105), - wherein, during the step of compression moulding, the body (2; 102) is supported by a support element which engages with the inner face (8; 108) of the transverse wall (5; 105), - and wherein a locking element keeps the body (2; 102) in a fixed position in contact with the support element, while the dose is compression moulded, characterized in that the locking element comprises a locking protuberance shaped like a closed ring, the locking protuberance contacting the outer face (9; 109) in a zone surrounding the shaped element, thereby keeping the transverse wall (5; 105) pressed against the support element. - providing a cup-shaped body (2; 102), said body (2; 102) having a side wall extending around an axis and a transverse wall (5; 105) arranged transversely to the axis for delimiting a concavity of the body, the transverse wall (5; 105) having an inner face (8; 108) facing the concavity and an outer face (9; 109) opposite the inner face (8; 108); - placing a dose of polymeric material onto the outer face (9; 109) of the transverse wall (5; 105); - compression moulding the dose in contact with the outer face (9; 109) by means of a male moulding element, thereby obtaining from the dose a shaped element attached to the transverse wall (5; 105), - wherein, during the step of compression moulding, the body (2; 102) is supported by a support element which engages with the inner face (8; 108) of the transverse wall (5; 105), - and wherein a locking element keeps the body (2; 102) in a fixed position in contact with the support element, while the dose is compression moulded,
A binder particle aggregate for an electrochemical device electrode, comprising a plurality of binder particles that contain a polymer including 75.0 mol% or more and 99.5 mol% or less of a nitrile group-containing monomer unit, wherein a pore content ratio of the plurality of binder particles is 60 % or more, the pore content ratio being determined by observing the binder particle aggregate using an optical microscope, randomly selecting 100 binder particles, taking each circular or approximately circular site that is inside the outer edges of any binder particle, has a circumference 60 % or more of which is recognizable, and has a major axis-minor axis ratio of 0.3 or more and 1.0 or less and a diameter (maximum diameter) of 3 μm or more, to be a pore of the binder particle, and counting the number of pore-containing binder particles from among these 100 binder particles to determine the pore content ratio, and wherein a cumulative 50 % diameter (D50 diameter) in particle size distribution measurement by laser diffraction is 20 μm or more and 200 μm or less. a plurality of binder particles that contain a polymer including 75.0 mol% or more and 99.5 mol% or less of a nitrile group-containing monomer unit, wherein a pore content ratio of the plurality of binder particles is 60 % or more, the pore content ratio being determined by observing the binder particle aggregate using an optical microscope, randomly selecting 100 binder particles, taking each circular or approximately circular site that is inside the outer edges of any binder particle, has a circumference 60 % or more of which is recognizable, and has a major axis-minor axis ratio of 0.3 or more and 1.0 or less and a diameter (maximum diameter) of 3 μm or more, to be a pore of the binder particle, and counting the number of pore-containing binder particles from among these 100 binder particles to determine the pore content ratio, and wherein a cumulative 50 % diameter (D50 diameter) in particle size distribution measurement by laser diffraction is 20 μm or more and 200 μm or less.
Vehicle door lock having a locking mechanism (1, 2, 3) substantially consisting of a catch and a pawl (2, 3) as well as a lock case for mounting the locking mechanism (2, 3), wherein the pawl (2, 3) is embodied two-part having a first latching element and a second latching element that are connected with each other in a movable manner, wherein the first latching element is formed as a cover latch and the second latching element is formed as a basic latch, wherein only one of the latching elements is loaded during the locking process of the locking mechanism (1, 2, 3), specifically the basic latch, while the other latching element remains substantially at rest and both latching elements (2, 3) are loaded during the opening process, wherein the locking mechanism (1, 2, 3) is equipped with a storing element, wherein the storing element interacts with the cover latch in order to hold the pawl (2, 3) in an annulled position, wherein the storing element further provides that the storing element is moved out of its storing position by a guiding contour of the catch during opening further and thereby allowing both pawl parts (2, 3) to be put down on the guiding contour of the catch.
A laundry apparatus comprising: a cabinet; a tub provided in the cabinet and having a cylindrical shape, with an opening formed in a front; a drum rotatably provided in the internal space of the tub and made of a conductor; and an induction unit provided on an outer circumferential surface of the tub for heating the drum by generating an electromagnetic field, wherein the induction unit comprises: a coil for generating an eddy current in the drum by generating a magnetic field, using an electric current supplied thereto; and a coil arranging portion provided on the outer circumferential surface of the tub and guiding the coil, characterized in that the coil arranging portion comprises: a coil arranging plate provided on the outer circumferential surface of the tub; and a fixing rib projecting from the coil arranging plate and arranged to form a track, along which one coil is wound. a cabinet; a tub provided in the cabinet and having a cylindrical shape, with an opening formed in a front; a drum rotatably provided in the internal space of the tub and made of a conductor; and an induction unit provided on an outer circumferential surface of the tub for heating the drum by generating an electromagnetic field, wherein the induction unit comprises: a coil for generating an eddy current in the drum by generating a magnetic field, using an electric current supplied thereto; and a coil arranging portion provided on the outer circumferential surface of the tub and guiding the coil, characterized in that the coil arranging portion comprises: a coil arranging plate provided on the outer circumferential surface of the tub; and a fixing rib projecting from the coil arranging plate and arranged to form a track, along which one coil is wound. a coil for generating an eddy current in the drum by generating a magnetic field, using an electric current supplied thereto; and a coil arranging portion provided on the outer circumferential surface of the tub and guiding the coil, characterized in that the coil arranging portion comprises: a coil arranging plate provided on the outer circumferential surface of the tub; and a fixing rib projecting from the coil arranging plate and arranged to form a track, along which one coil is wound. a coil arranging plate provided on the outer circumferential surface of the tub; and a fixing rib projecting from the coil arranging plate and arranged to form a track, along which one coil is wound.
A rotary compressor, comprising: a cylinder body; end plate members (50, 60) placed on both sides of the cylinder body; a roller and a blade (28, 128, 228) integrally fitted to the roller wherein a cylinder chamber defined by the cylinder body and the end plate members (50, 60) is internally partitioned into a low-pressure chamber and a high-pressure chamber by the roller and the blade (28, 128, 228); and a bush which seals both sides of the blade (28, 128, 228), characterised in that a width (W 1) of the bush in a roller axis direction is larger than an axial width (W 2) of the roller, and a gap in the roller axis direction between the roller and the end plate members (50, 60) is larger than a gap in the roller axis direction between the bush and the end plate members (50, 60). a cylinder body; end plate members (50, 60) placed on both sides of the cylinder body; a roller and a blade (28, 128, 228) integrally fitted to the roller wherein a cylinder chamber defined by the cylinder body and the end plate members (50, 60) is internally partitioned into a low-pressure chamber and a high-pressure chamber by the roller and the blade (28, 128, 228); and a bush which seals both sides of the blade (28, 128, 228), characterised in that
A kit of parts for flashing a roof element, such as a roof window, in a sloping roof with a roof covering comprising flat roofing panels, possibly of sheet metal, comprising an upper flashing member, two side flashing members and a bottom flashing member, said flashing members respectively having a generally L-shaped cross-section with a first leg (11, 21, 31) configured to be arranged against a side of the roof element and a second leg (12, 22, 32) configured to extend parallel to a plane of the roof covering, whereby the second legs (12, 22) of the upper flashing member and the side flashing members are configured to be at least in part positioned beneath the roof covering and the bottom flashing member comprises a second leg, possibly including a flexible skirt, configured to be at least in part positioned above the roof covering to seal between the roof element and the roof covering, and comprising a locking strip (5, 105, 205, 305, 405) configured to engage with a folded lower edge (43, 343) of a subsequently mounted roofing panel of the roof covering for fastening the edge of the roofing panel to a subjacent surface, characterized by said locking strip (5, 105, 205, 305, 405) being elongate with two mutually opposite, longitudinal side edges (51a, 51b) and having a single bend in a single direction between the two longitudinal side edges (51a, 51b), thereby providing a concave side of the locking strip, said concave side due to the bend defining an angle of approx. 173°-178°, and whereby one of the longitudinal side edges is raised from a mounting surface, such as the surface of the second leg of a flashing member or of a roofing panel (241, 341), when the locking strip (5, 105, 205, 305, 405) is positioned with the opposite, longitudinal side edge against said mounting surface, the concave side of the locking strip facing away from said mounting surface.
A method of identifying the operation of an electrical appliance comprising an induction motor, the method comprising: identifying the operation of the electrical appliance comprising an induction motor when a path traced by real power values against corresponding reactive power values over a time period of interest comprises one or more substantially circular arcs; wherein the real power values are related to the total real power supplied to a plurality of electrical appliances as a function of time and the reactive power values are related to the total reactive power supplied to the plurality of electrical appliances as a function of time. identifying the operation of the electrical appliance comprising an induction motor when a path traced by real power values against corresponding reactive power values over a time period of interest comprises one or more substantially circular arcs; wherein the real power values are related to the total real power supplied to a plurality of electrical appliances as a function of time and the reactive power values are related to the total reactive power supplied to the plurality of electrical appliances as a function of time.
A method of altering chemical properties of an in-process resin when in use in a 3D printing apparatus, the method comprising: monitoring the in-process resin using an imaging spectrometer; comparing the in-process resin and a model using one or more spectrums (121, 122, 123) from the imaging spectrometer; determining a range of peak ratios to which to dilute the in-process resin with a diluting resin; and diluting the in-process resin with the diluting resin. monitoring the in-process resin using an imaging spectrometer; comparing the in-process resin and a model using one or more spectrums (121, 122, 123) from the imaging spectrometer; determining a range of peak ratios to which to dilute the in-process resin with a diluting resin; and diluting the in-process resin with the diluting resin.
An air data sensor comprising: an acoustic transmitter configured to output an acoustic signal into an airflow; a plurality of acoustic transducers configured to receive the acoustic signal output by the acoustic transmitter; characterized by a light source configured to output a light beam into the airflow; and a light receiver configured to receive scattered light from the light beam, and an air data module operatively connected to the light receiver, the light source, and the acoustic transducers and configured to receive light data from the light receiver to determine one or more second air data parameters of the airflow and to receive acoustic data from the plurality of acoustic transducers to determine one or more first air data parameters of the airflow, wherein the air data module is configured to determine at least one of a local static pressure measurement and a static air temperature and to augment the acoustic data with the light data. an acoustic transmitter configured to output an acoustic signal into an airflow; a plurality of acoustic transducers configured to receive the acoustic signal output by the acoustic transmitter; characterized by a light source configured to output a light beam into the airflow; and a light receiver configured to receive scattered light from the light beam, and an air data module operatively connected to the light receiver, the light source, and the acoustic transducers and configured to receive light data from the light receiver to determine one or more second air data parameters of the airflow and to receive acoustic data from the plurality of acoustic transducers to determine one or more first air data parameters of the airflow, wherein the air data module is configured to determine at least one of a local static pressure measurement and a static air temperature and to augment the acoustic data with the light data.
A dual pump fuel supply system for delivering fuel to a fuel metering unit of a gas turbine engine having a maximum fuel demand, the fuel supply system comprising: a fixed delivery main fuel pump having an input and an output in fluid communication with the fuel metering unit; and a fixed delivery actuation pump having an input and an output; a flow sharing system interconnecting the main pump and the actuation pump, the flow sharing system having a first configuration wherein the flow output of the main pump is isolated from the flow output of the actuation pump, wherein only the output flow from the main supply pump is in communication with the fuel metering unit, and a second configuration wherein the flow output of the main pump is combined with the flow output of the actuation pump, wherein the combined outputs are supplied to the fuel metering unit of the engine, wherein the flow sharing system is configured to keep the sizing of the two pumps to the minimum, wherein the actuation pump is sized to provide a larger portion of the total engine flow demand during maximum flow conditions than that of the main pump; and wherein the dual fuel supply system further comprises a pressure regulator assembly; and wherein the actuation pump s connected to pressure regulator assembly via a bypass line in fluid communication with an outlet of the actuation pump to control the pressure drop across the input and output of the actuation pump. a fixed delivery main fuel pump having an input and an output in fluid communication with the fuel metering unit; and a fixed delivery actuation pump having an input and an output; a flow sharing system interconnecting the main pump and the actuation pump, the flow sharing system having a first configuration wherein the flow output of the main pump is isolated from the flow output of the actuation pump, wherein only the output flow from the main supply pump is in communication with the fuel metering unit, and a second configuration wherein the flow output of the main pump is combined with the flow output of the actuation pump, wherein the combined outputs are supplied to the fuel metering unit of the engine, wherein the flow sharing system is configured to keep the sizing of the two pumps to the minimum, wherein the actuation pump is sized to provide a larger portion of the total engine flow demand during maximum flow conditions than that of the main pump; and wherein the dual fuel supply system further comprises a pressure regulator assembly; and wherein the actuation pump s connected to pressure regulator assembly via a bypass line in fluid communication with an outlet of the actuation pump to control the pressure drop across the input and output of the actuation pump.