mhurhangee/patent-ind-claim-en huggingface dataset:
A cyclone unit for separating liquid and particles from a flow through the cyclone unit, the cyclone unit having a cyclone axis of rotation, wherein the cyclone unit comprises: an outer housing having an outer side wall , a first end and a second end positioned along the cyclone axis ; a main flow inlet to the outer housing comprising an opening in the outer housing; a main flow outlet from the outer housing closer to the first end than the main flow inlet, characterised in that the transition between the main flow inlet and the outer housing has, at least for a portion of the opening on the first end side of the main flow inlet, a radius of curvature of at least 0.5mm in a plane perpendicular to the local tangent to the main flow inlet. an outer housing having an outer side wall , a first end and a second end positioned along the cyclone axis ; a main flow inlet to the outer housing comprising an opening in the outer housing; a main flow outlet from the outer housing closer to the first end than the main flow inlet, characterised in that the transition between the main flow inlet and the outer housing has, at least for a portion of the opening on the first end side of the main flow inlet, a radius of curvature of at least 0.5mm in a plane perpendicular to the local tangent to the main flow inlet.
An insert for being embedded in a silicone hydrogel contact lens, comprising a crosslinked polymeric material, which comprises: repeating units of said at least one vinyl-functional polysiloxane that comprises at least two vinyl groups each directly attached to one silicon atom and at least 15% by mole (preferably at least 30% by mole, more preferably at least 60% by mole, even more preferably at least 90% by mole) of siloxane units each having at least one phenyl substituent; repeating units of at least one aryl acrylic monomer; and repeating units of at least one vinylic crosslinking agent, wherein the sum of the amounts of components and of the crosslinked polymeric material is at least about 70% by weight relative to the total weight of the crosslinked polymeric material, wherein the crosslinked polymeric material in dry state has a glass transition temperature of greater than about 28°C, wherein the crosslinked polymeric material in fully hydrated state has a water content of less than about 5% by weight, an oxygen permeability of at least about 40 barrers, and a refractive index of at least about 1.47, wherein the glass transition temperature, the water content in fully hydrated state, the oxygen permeability and the refractive index are measured as described in Example 1. repeating units of said at least one vinyl-functional polysiloxane that comprises at least two vinyl groups each directly attached to one silicon atom and at least 15% by mole (preferably at least 30% by mole, more preferably at least 60% by mole, even more preferably at least 90% by mole) of siloxane units each having at least one phenyl substituent; repeating units of at least one aryl acrylic monomer; and repeating units of at least one vinylic crosslinking agent,
An ultrasound imaging system , comprising: a probe , including: a transducer array with at least one transducer element ; a console , including: a controller configured for controlling the at least one transducer element; and an echo processor; a display monitor ; and a touch screen user interface , including: a touch panel with a first major surface and a first recess in the first major surface; and at least one touch sensitive control disposed in the first recess, characterized in that the first recess, comprises: a touch sensitive flat, planar surface configured for sensing a first gesture thereon which activates the touch sensitive flat, planar surface, and for sensing a subsequent gesture thereon that invokes a predetermined action of the at least one touch sensitive control. a probe , including: a transducer array with at least one transducer element ; a console , including: a controller configured for controlling the at least one transducer element; and an echo processor; a display monitor ; and a touch screen user interface , including: a touch panel with a first major surface and a first recess in the first major surface; and at least one touch sensitive control disposed in the first recess,
An apparatus for updating a current pattern for rapid charging, the apparatus comprising: a resistance calculation unit configured to calculate an internal resistance of a battery module; a storage unit configured to store a current pattern for rapid charging of the battery module; and a calculation unit configured to update the current pattern according to a state of the internal resistance of the battery module, wherein the calculation unit is configured to calculate a resistance increase rate based on the internal resistance calculated by the resistance calculation unit , calculate an adjustment coefficient based on the calculated resistance increase rate, and update the current pattern using the calculated adjustment coefficient and the stored current pattern if an update requirement of the current pattern is satisfied, wherein the apparatus is configured to perform a capacity-limited method in which the rapid charging of the battery module is performed until a preset charging capacity is reached, wherein in the capacity-limited method a charging current gradually decreases depending on an SOC of the battery module, wherein the calculation unit is configured to update the current pattern with a current pattern in which a value of a new SOC generated by multiplying a value of an SOC set as a time point for changing a magnitude of current in the current pattern stored in the storage unit by the adjustment coefficient is a time point for changing the magnitude of the current. a resistance calculation unit configured to calculate an internal resistance of a battery module; a storage unit configured to store a current pattern for rapid charging of the battery module; and a calculation unit configured to update the current pattern according to a state of the internal resistance of the battery module, wherein the calculation unit is configured to calculate a resistance increase rate based on the internal resistance calculated by the resistance calculation unit , calculate an adjustment coefficient based on the calculated resistance increase rate, and update the current pattern using the calculated adjustment coefficient and the stored current pattern if an update requirement of the current pattern is satisfied, wherein the apparatus is configured to perform a capacity-limited method in which the rapid charging of the battery module is performed until a preset charging capacity is reached, wherein in the capacity-limited method a charging current gradually decreases depending on an SOC of the battery module, wherein the calculation unit is configured to update the current pattern with a current pattern in which a value of a new SOC generated by multiplying a value of an SOC set as a time point for changing a magnitude of current in the current pattern stored in the storage unit by the adjustment coefficient is a time point for changing the magnitude of the current.
Device for storing articles, having an upper part and a base part , wherein - the base part has a base screw and a housing , which is arranged above the base screw and is fixed thereto, - the upper part has an upper shell , which is more or less closed at the top and has a more or less round opening at the bottom, the diameter of said opening being greater than the diameter of the housing , characterized in that - a rotatably mounted axial element is present within the housing and has an opening with a first diameter (d), - a rod is guided through the opening , is mounted in a rotatable manner in said opening and has a termination element at its first end, wherein - the termination element is configured, and arranged, such that, in a direction perpendicular to the rod , it has an extent (DE) which is greater than the diameter (d) of the opening . - the base part has a base screw and a housing , which is arranged above the base screw and is fixed thereto, - the upper part has an upper shell , which is more or less closed at the top and has a more or less round opening at the bottom, the diameter of said opening being greater than the diameter of the housing , - a rotatably mounted axial element is present within the housing and has an opening with a first diameter (d), - a rod is guided through the opening , is mounted in a rotatable manner in said opening and has a termination element at its first end, wherein - the termination element is configured, and arranged, such that, in a direction perpendicular to the rod , it has an extent (DE) which is greater than the diameter (d) of the opening .
A method for determining at least one pore-related parameter of a porous material , the method comprising: supplying a volatile liquid layer comprising a first amount of volatile liquid into a chamber ; placing a porous material comprising one or more tubular porous materials , each of the one or more tubular porous materials comprising a lumen and each of the one or more tubular porous materials having opposite ends of the lumen sealed, within the chamber , the porous material saturated with a second amount of the volatile liquid and spaced apart from and over the volatile liquid layer ; determining an evaporation rate of the second amount of the volatile fluid from pores of the porous material , evaporation progressing from a largest pore of the pores to a smallest pore of the pores, over a period of time by measuring an effective mass of the chamber comprising a mass of the chamber , a mass of the volatile liquid layer comprising the first amount of the volatile liquid, and a mass of the porous material comprising the second amount of the volatile liquid over the period of time; and determining at least one pore-related parameter of the porous material based on the evaporation rate; wherein the pore-related parameter is any one selected from a group consisting of a porosity, a pore size, a pore-size distribution, and an internal pore fouling of the porous material . supplying a volatile liquid layer comprising a first amount of volatile liquid into a chamber ; placing a porous material comprising one or more tubular porous materials , each of the one or more tubular porous materials comprising a lumen and each of the one or more tubular porous materials having opposite ends of the lumen sealed, within the chamber , the porous material saturated with a second amount of the volatile liquid and spaced apart from and over the volatile liquid layer ; determining an evaporation rate of the second amount of the volatile fluid from pores of the porous material , evaporation progressing from a largest pore of the pores to a smallest pore of the pores, over a period of time by measuring an effective mass of the chamber comprising a mass of the chamber , a mass of the volatile liquid layer comprising the first amount of the volatile liquid, and a mass of the porous material comprising the second amount of the volatile liquid over the period of time; and determining at least one pore-related parameter of the porous material based on the evaporation rate; wherein the pore-related parameter is any one selected from a group consisting of a porosity, a pore size, a pore-size distribution, and an internal pore fouling of the porous material .
An ion writing unit comprising: a housing at least partially containing an ion generator ; and an array of electrode nozzles on one exposed exterior surface of the housing and aligned to receive and guide generated ions, wherein the ion writing unit is operable in at least a first mode in which said generated ions flow from the ion generator through selected nozzles at a first flow rate to cause image formation on an electrically biased passive e-paper spaced apart from the electrode nozzles; characterised in that the ion writing unit is convertibly operable between the first mode and a second mode in which, to neutralize secondary ions which have a charge opposite said generated ions and which are produced during image formation when the biasing mechanism is active, ions flow from the ion generator through at least some electrode nozzles at a second flow rate that does not cause image formation on the electrically biased passive e-paper , wherein the second mode is automatically engaged when the first mode is inactive. a housing at least partially containing an ion generator ; and an array of electrode nozzles on one exposed exterior surface of the housing and aligned to receive and guide generated ions, wherein the ion writing unit is operable in at least a first mode in which said generated ions flow from the ion generator through selected nozzles at a first flow rate to cause image formation on an electrically biased passive e-paper spaced apart from the electrode nozzles; characterised in that the ion writing unit is convertibly operable between the first mode and a second mode in which, to neutralize secondary ions which have a charge opposite said generated ions and which are produced during image formation when the biasing mechanism is active, ions flow from the ion generator through at least some electrode nozzles at a second flow rate that does not cause image formation on the electrically biased passive e-paper , wherein the second mode is automatically engaged when the first mode is inactive. the ion writing unit is convertibly operable between the first mode and a second mode in which, to neutralize secondary ions which have a charge opposite said generated ions and which are produced during image formation when the biasing mechanism is active, ions flow from the ion generator through at least some electrode nozzles at a second flow rate that does not cause image formation on the electrically biased passive e-paper , wherein the second mode is automatically engaged when the first mode is inactive.
An electrode segment for electrocardiographic and/or bioimpedance measurements comprising a measuring electrode , which comprises a connector element for connecting an electrical signal wire and a sensor element for collecting measurement signals from the patient's body, the measuring electrode being situated in a mounting layer covered with an adhesive layer , wherein the measuring electrode situated in the mounting layer is surrounded by a perforated area which is free from the adhesive layer , and the perforated area is in turn surrounded by a surface-continuous area which is covered with the adhesive layer , wherein the perforated area comprises radially arranged alternating void spaces and solid spaces .
Transparent substrate S for a glazing, made of glass, provided with a stack of thin layers deposited onto the glass and comprising an alternation of n metal functional layers A having reflection properties in the infrared and/or in solar radiation, the or each of the functional layers A being based on silver or on an alloy of silver, in particular with palladium or titanium, and of (n+1) coatings B, where n ≥ 1, said coatings B comprising a layer or a superposition of layers made of a dielectric, so that each functional layer A is placed between two coatings B, at least the (n + 1)th coating B comprising an oxygen barrier layer based on silicium nitride and/or aluminium nitrire, characterized in that: the or each of the functional layers A is (i) directly in contact with the dielectric coating B placed on top of it and (ii) in contact with the dielectric coating B placed beneath it via a layer C that absorbs at least in the visible, of the metallic, optionally nitride, type, the or each of said layer C being based on titanium, nickel, chrome, nobium, zirconium or a metal alloy containing at least one of these metals and having a thickness of less than 1 nm, in particular equal or less than 0.7 or 0.6 or 0.5 nm. (i) directly in contact with the dielectric coating B placed on top of it and (ii) in contact with the dielectric coating B placed beneath it via a layer C that absorbs at least in the visible, of the metallic, optionally nitride, type,
An etchant for selectively etching at least one selected from the group consisting of copper and a copper alloy in a semiconductor substrate that comprises: said at least one selected from the group consisting of copper and the copper alloy; at least one selected from the group consisting of nickel and a nickel alloy; and at least one selected from the group consisting of tin, a tin alloy, gold and a gold alloy, the etchant comprising: (A) 5 to 10.5% by mass of hydrogen peroxide relative to the total mass of the etchant; (B) 0.3 to 6% by mass of nitric acid relative to the total mass of the etchant; (C) at least one nitrogen-containing 5-membered ring compound selected from the group consisting of triazoles and tetrazoles, which may have at least one substituent selected from the group consisting of a C 1-6 alkyl group, an amino group, and a substituted amino group having at least one substituent selected from the group consisting of a C 1-6 alkyl group and a phenyl group; and (D) (d1) at least one pH adjuster selected from the group consisting of an alkali metal hydroxide, ammonia, an amine, and an ammonium salt, (d2) a phosphonic acid compound, or (d3) a combination of (d1) and (d2), wherein the etchant has a pH of 0.7 to 1.3. (A) 5 to 10.5% by mass of hydrogen peroxide relative to the total mass of the etchant; (B) 0.3 to 6% by mass of nitric acid relative to the total mass of the etchant; (C) at least one nitrogen-containing 5-membered ring compound selected from the group consisting of triazoles and tetrazoles, which may have at least one substituent selected from the group consisting of a C 1-6 alkyl group, an amino group, and a substituted amino group having at least one substituent selected from the group consisting of a C 1-6 alkyl group and a phenyl group; and (D) (d1) at least one pH adjuster selected from the group consisting of an alkali metal hydroxide, ammonia, an amine, and an ammonium salt, (d2) a phosphonic acid compound, or (d3) a combination of (d1) and (d2),
A laser projection system for projecting a template on a workpiece , comprising: a photogrammetry assembly and a laser projector , each configured to communicate with a computer ; said photogrammetry assembly including a first camera and a second camera spaced from said first camera for scanning said workpiece , and said laser projector configured to project a laser image to arbitrary locations and to said workpiece with said laser image being readable by said cameras ; said photogrammetry assembly being configured to scan light conveyed from the direction of said arbitrary locations on which said laser image is projected, to scan light conveyed from the direction of said workpiece , and to transmit a signal relating to said scanned arbitrary locations and said scanned workpiece to said computer ; said computer being programmed for calculating a geometric correlation between said photogrammetry assembly , said laser projector , and said workpiece based on said signal from said cameras relating to the scanned arbitrary locations and the scanned workpiece to verify none of these items have been moved; and for signaling said laser projector to project a template onto a desired location of said workpiece based on the calculated geometric correlation. a photogrammetry assembly and a laser projector , each configured to communicate with a computer ; said photogrammetry assembly including a first camera and a second camera spaced from said first camera for scanning said workpiece , and said laser projector configured to project a laser image to arbitrary locations and to said workpiece with said laser image being readable by said cameras ; said photogrammetry assembly being configured to scan light conveyed from the direction of said arbitrary locations on which said laser image is projected, to scan light conveyed from the direction of said workpiece , and to transmit a signal relating to said scanned arbitrary locations and said scanned workpiece to said computer ; said computer being programmed for calculating a geometric correlation between said photogrammetry assembly , said laser projector , and said workpiece based on said signal from said cameras relating to the scanned arbitrary locations and the scanned workpiece to verify none of these items have been moved; and for signaling said laser projector to project a template onto a desired location of said workpiece based on the calculated geometric correlation.
A method of generating and transmitting a reference signal and data in a user equipment, UE, participating in Device-to-Device, D2D, communication, D2D UE, the method comprising: generating a sequence related to a first band, wherein a size of the first band is 1/N of a full bandwidth, wherein N is a natural number larger than 1, and wherein the full bandwidth is related to a bandwidth usable for D2D or New Radio Access Technology, New RAT; generating a first Demodulation Reference Signal, DMRS, sequence related to the full bandwidth by repeating the generated sequence based on frequency resources within the first band sequentially and repeatedly by an amount of the full bandwidth; generating a truncated first DMRS sequence by truncating the first DMRS sequence, wherein the truncated first DMRS sequence is related to a second band allocated for the data; and transmitting the truncated DMRS sequence and the data through the second band, wherein a second DMRS sequence related to the full bandwidth is also identically generated by another D2D UE receiving the data, and a truncated second DMRS sequence, generated by truncating the second DMRS sequence, is used for correlation with the truncated first DMRS. generating a sequence related to a first band, wherein a size of the first band is 1/N of a full bandwidth, wherein N is a natural number larger than 1, and wherein the full bandwidth is related to a bandwidth usable for D2D or New Radio Access Technology, New RAT; generating a first Demodulation Reference Signal, DMRS, sequence related to the full bandwidth by repeating the generated sequence based on frequency resources within the first band sequentially and repeatedly by an amount of the full bandwidth; generating a truncated first DMRS sequence by truncating the first DMRS sequence, wherein the truncated first DMRS sequence is related to a second band allocated for the data; and transmitting the truncated DMRS sequence and the data through the second band, wherein a second DMRS sequence related to the full bandwidth is also identically generated by another D2D UE receiving the data, and a truncated second DMRS sequence, generated by truncating the second DMRS sequence, is used for correlation with the truncated first DMRS.
A float valve for supplying a tank of a toilet flusher designed to be embedded in a wall, including a supply system comprising an inlet and an outlet , the inlet being provided to be connected to an external water inlet pipe arriving above the tank , the float valve further comprising an automatic valve for controlling the water level supplied by this inlet and provided to be installed in the tank, said outlet being fastened and connected to said automatic valve ; the float valve being characterized in that the inlet and the outlet towards the automatic valve are substantially aligned and in that the supply system further includes, between the inlet and the outlet towards the automatic valve , a water intake provided to form in the tank an additional outlet which is substantially perpendicular to the alignment of the inlet and of the outlet towards the automatic valve .