mhurhangee/patent-ind-claim-en huggingface dataset:
Electronic module comprising a protective housing, the protective housing comprising: a shell which defines an inner compartment for accommodating an electrically functional component , a cooling element comprising a cover plate , a first side plate , and a second side plate , the first side plate and second side plate extending from the cover plate and facing each other, thereby forming an inside surface, an outside surface, and an edge of the cooling element, wherein at least a part of said inside surface of the cooling element covers the shell to form a cover of the inner compartment , at least one cut-out which is part of the cover plate for filling the inner compartment with an electrically insulating material, at least one first channel forming partly the cover plate , wherein the channel is formed as a bulge in the cover plate with one side of the channel being formed by the side plate of the cooling element and wherein the channel is configured so as to increase the volume of the inner compartment , and wherein the inner compartment of the electronic module is filled with an electrically insulating filling material characterized in that: the electronic module is configured so that when the filling material is cured a void is left in at least a part of said first channel . a shell which defines an inner compartment for accommodating an electrically functional component , a cooling element comprising a cover plate , a first side plate , and a second side plate , the first side plate and second side plate extending from the cover plate and facing each other, thereby forming an inside surface, an outside surface, and an edge of the cooling element, wherein at least a part of said inside surface of the cooling element covers the shell to form a cover of the inner compartment , at least one cut-out which is part of the cover plate for filling the inner compartment with an electrically insulating material, at least one first channel forming partly the cover plate , wherein the channel is formed as a bulge in the cover plate with one side of the channel being formed by the side plate of the cooling element and wherein the channel is configured so as to increase the volume of the inner compartment , and wherein the inner compartment of the electronic module is filled with an electrically insulating filling material characterized in that: the electronic module is configured so that when the filling material is cured a void is left in at least a part of said first channel .
A light source device comprising: a light source ; a light source control unit for controlling turning on/off of the light source; a cooling fan for cooling the light source; and a fan control unit for controlling a number of revolutions of the cooling fan based on turning on/off of the light source, wherein the fan control unit is configured to: control the number of revolutions to drive the cooling fan at a first number of revolutions when the light source is turned on, and characterized in that the fan control unit is further configured to control the number of revolutions to drive the cooling fan at a second number of revolutions lower than the first number of revolutions by waiting for a predetermined waiting time when the light source is turned off. a light source ; a light source control unit for controlling turning on/off of the light source; a cooling fan for cooling the light source; and a fan control unit for controlling a number of revolutions of the cooling fan based on turning on/off of the light source, wherein the fan control unit is configured to: control the number of revolutions to drive the cooling fan at a first number of revolutions when the light source is turned on, and characterized in that the fan control unit is further configured to control the number of revolutions to drive the cooling fan at a second number of revolutions lower than the first number of revolutions by waiting for a predetermined waiting time when the light source is turned off. control the number of revolutions to drive the cooling fan at a first number of revolutions when the light source is turned on, and characterized in that the fan control unit is further configured to control the number of revolutions to drive the cooling fan at a second number of revolutions lower than the first number of revolutions by waiting for a predetermined waiting time when the light source is turned off.
A prefilled and pre-sterilized syringe assembly , comprising: a plunger including a stopper made from a material including high barrier thermoplastic elastomers; a barrel having an open first end and an opposite second end , wherein the open first end is configured to receive the plunger , and wherein the barrel is formed of a plastic material that includes at least one of a cyclic olefin polymer (COP) and a cyclic olefin copolymer (COC); a tip cap removably attached to the second end , characterized in that a chamber is formed within the barrel between the stopper and the tip cap , the chamber containing a sterilization sensitive material, and wherein a first portion of the tip cap that comes into contact with the sterilization sensitive material is coated with and is constructed of butyl rubber, wherein a second portion of the tip cap that does not come into contact with the sterilization sensitive material is made of a different material, and wherein the plastic material has a high barrier property that cooperates with the first portion of the tip cap and the stopper to create a barrier between the sterilization sensitive material and gases produced for sterilization purposes such that after an EtO sterilization procedure, the sterilization sensitive material disposed within the chamber remains unchanged after being subjected to the EtO sterilization procedure. a plunger including a stopper made from a material including high barrier thermoplastic elastomers; a barrel having an open first end and an opposite second end , wherein the open first end is configured to receive the plunger , and wherein the barrel is formed of a plastic material that includes at least one of a cyclic olefin polymer (COP) and a cyclic olefin copolymer (COC); a tip cap removably attached to the second end , characterized in that a chamber is formed within the barrel between the stopper and the tip cap , the chamber containing a sterilization sensitive material, and wherein a first portion of the tip cap that comes into contact with the sterilization sensitive material is coated with and is constructed of butyl rubber, wherein a second portion of the tip cap that does not come into contact with the sterilization sensitive material is made of a different material, and wherein the plastic material has a high barrier property that cooperates with the first portion of the tip cap and the stopper to create a barrier between the sterilization sensitive material and gases produced for sterilization purposes such that after an EtO sterilization procedure, the sterilization sensitive material disposed within the chamber remains unchanged after being subjected to the EtO sterilization procedure.
A method of recovering titanium dioxide and aluminium sulphate from a particulate material, said method comprising perovskite comprising: a. contacting the particulate material comprising perovskite with sulphuric acid and heating to form a sulphated mixture; b. filtering the sulphated mixture to produce a filter cake and a first permeate comprising sulphuric acid; c. contacting the filter cake with water to form a sulphated suspension comprising titanyl sulphate; d. filtering the sulphated suspension to produce a permeate comprising at least titanyl sulphate, and a retentate comprising insoluble residue comprising calcium sulphate; e. contacting the permeate comprising at least titanyl sulphate with water to produce a hydrolysis liquor; f. hydrolysing the titanyl sulphate; g. separating titanium dioxide hydrate from the hydrolysis liquor to produce a permeate comprising aluminium sulphate, and a retentate comprising titanium dioxide hydrate; and h. precipitating aluminium sulphate from the permeate; wherein step h. may be carried out after step d or after step g. a. contacting the particulate material comprising perovskite with sulphuric acid and heating to form a sulphated mixture; b. filtering the sulphated mixture to produce a filter cake and a first permeate comprising sulphuric acid; c. contacting the filter cake with water to form a sulphated suspension comprising titanyl sulphate; d. filtering the sulphated suspension to produce a permeate comprising at least titanyl sulphate, and a retentate comprising insoluble residue comprising calcium sulphate; e. contacting the permeate comprising at least titanyl sulphate with water to produce a hydrolysis liquor; f. hydrolysing the titanyl sulphate; g. separating titanium dioxide hydrate from the hydrolysis liquor to produce a permeate comprising aluminium sulphate, and a retentate comprising titanium dioxide hydrate; and h. precipitating aluminium sulphate from the permeate;
An automatic braking method, comprising: entering an automatic braking process (S63) when a vehicle speed is less than a predetermined speed threshold value (S62) and a driver completely releases an accelerator pedal (S61), wherein the automatic braking process comprises: detecting (S1, S11, S12, S13) surrounding information by a sensing module; determining (S2) a target stop position based on the surrounding information, and determining (S3) a braking deceleration based on the target stop position; adjusting (S5, S51, S52) a motor and a braking system to slow down a vehicle at the braking deceleration and to stop the vehicle at the target stop position; and automatically activating (S53) an autohold system upon the vehicle stopping at the target stop position. detecting (S1, S11, S12, S13) surrounding information by a sensing module; determining (S2) a target stop position based on the surrounding information, and determining (S3) a braking deceleration based on the target stop position; adjusting (S5, S51, S52) a motor and a braking system to slow down a vehicle at the braking deceleration and to stop the vehicle at the target stop position; and automatically activating (S53) an autohold system upon the vehicle stopping at the target stop position.
A bidet, comprising: a drier disposed in an inside of a frame and blowing air, wherein the drier includes a blower generating air flow, a drying duct connected to the blower and providing a passage through which air generated by the blower flows, and a guide member disposed on a side of the drying duct and guiding the air to a discharge port or the inside of the frame , wherein the frame comprises a humidity sensor and a control unit , characterized in that, the humidity sensor is disposed in the inside of the frame, and the control unit transmits a signal of the humidity sensor to the guide member , disposed in the inside of the frame , wherein the humidity sensor measures humidity in the inside of the frame and transmits the measured humidity value to the control unit as an electrical signal, in a case in which the humidity value measured is higher than a predetermined humidity value. a drier disposed in an inside of a frame and blowing air, wherein the drier includes a blower generating air flow, a drying duct connected to the blower and providing a passage through which air generated by the blower flows, and a guide member disposed on a side of the drying duct and guiding the air to a discharge port or the inside of the frame , wherein the frame comprises a humidity sensor and a control unit , characterized in that, the humidity sensor is disposed in the inside of the frame, and the control unit transmits a signal of the humidity sensor to the guide member , disposed in the inside of the frame , wherein the humidity sensor measures humidity in the inside of the frame and transmits the measured humidity value to the control unit as an electrical signal, in a case in which the humidity value measured is higher than a predetermined humidity value.
A machine to process section bars , in particular made of aluminium, light alloys, PVC or the like, comprising at least one holding device (17; 45; 57), to hold at least one section bar ; at least one operating head (22, 28, 29; 43, 44; 51); and actuator means to move the holding device (17; 45; 57) and the operating head (22, 28, 29; 43, 44; 51) with respect to one another, to allow the operating head (22, 28, 29; 43, 44; 51) to process the section bar ; and characterized in that it further comprises a blowing device (35; 38; 39; 46; 52) to blow a gas under pressure along the, in particular into the, section bar or along a, in particular into a, piece (S) of section bar starting from a first free end thereof (2a; S1) so as to remove swarf, and a suction device (36; 40; 47; 53) to suck the gas under pressure in the area of a second free end (2b; S2) of the section bar , or piece (S) of section bar , opposite the first free end (2a; S1); the operating head (22, 28, 29; 43, 44; 51) being movable along the section bar ; the blowing device (35; 38; 39; 46; 52) and/or the suction device (36; 40; 47; 53) being movable along the section bar , together with the operating head (22, 28, 29; 43, 44; 51) or independently of the operating head (22, 28, 29; 43, 44; 51) .
A negative electrode for nickel-metal hydride batteries, the negative electrode comprising: a negative electrode core body formed of metal; and a negative electrode mixture layer that contains at least a hydrogen storage alloy and yttrium fluoride and is carried on the negative electrode core body, wherein particles of the yttrium fluoride are formed so that an average particle size (D50) thereof is equal to 1 μm or more and 7 μm or less, measured by a laser diffraction/scattering type particle size distribution measuring apparatus, wherein particles of the hydrogen storage alloy are formed so that a volume average particle size (MV) thereof is equal to 15 μm or more and 90 μm or less, measured by a laser diffraction/scattering type particle size distribution measuring apparatus. a negative electrode core body formed of metal; and a negative electrode mixture layer that contains at least a hydrogen storage alloy and yttrium fluoride and is carried on the negative electrode core body, wherein particles of the yttrium fluoride are formed so that an average particle size (D50) thereof is equal to 1 μm or more and 7 μm or less, measured by a laser diffraction/scattering type particle size distribution measuring apparatus, wherein particles of the hydrogen storage alloy are formed so that a volume average particle size (MV) thereof is equal to 15 μm or more and 90 μm or less, measured by a laser diffraction/scattering type particle size distribution measuring apparatus.
A gas turbine engine , comprising: an airfoil having a tip wall that joins outer spanwise ends of a suction sidewall and a pressure sidewall ; and an air seal radially outward of said tip wall and positioned to minimize leakage at said tip wall , characterised in that the airfoil further comprises: a tip rib extending chordwise along at least a portion of a pressure side of the tip wall ; a tip shelf at a junction of the pressure sidewall and the tip wall ; and a plurality of curved tip leakage control channels recessed into an outer surface of said tip wall , wherein each of said plurality of curved tip leakage control channels is adjacent one of a plurality of tip leakage control vanes integrally formed on said tip wall contiguous with a suction side surface of the tip rib . an airfoil having a tip wall that joins outer spanwise ends of a suction sidewall and a pressure sidewall ; and an air seal radially outward of said tip wall and positioned to minimize leakage at said tip wall , a tip rib extending chordwise along at least a portion of a pressure side of the tip wall ; a tip shelf at a junction of the pressure sidewall and the tip wall ; and a plurality of curved tip leakage control channels recessed into an outer surface of said tip wall , wherein each of said plurality of curved tip leakage control channels is adjacent one of a plurality of tip leakage control vanes integrally formed on said tip wall contiguous with a suction side surface of the tip rib .
A control system for operating a heater , the control system comprising:a controller configured to: determine an operational power level based on a measured performance characteristic of the heater , a power set-point, and a power control algorithm, determine a bake-out power level based on a measured leakagecurrent at the heater , a leakage current threshold, and a moisture control algorithm, and select a power level to be applied to the heater , wherein the selected power level is the lower power level from among the operational power level and the bake-out power level. determine an operational power level based on a measured performance characteristic of the heater , a power set-point, and a power control algorithm, determine a bake-out power level based on a measured leakagecurrent at the heater , a leakage current threshold, and a moisture control algorithm, and select a power level to be applied to the heater , wherein the selected power level is the lower power level from among the operational power level and the bake-out power level.
An olive branch extract for use in a method of blocking ultraviolet radiation to a target which comprises administering the olive branch extract to skin such that the extract absorbs and blocks ultraviolet radiation.
Interface for a floor treatment device comprising a base device and an attachment device which can be connected to the base device , the interface having an interface outer part and an interface inner part which is designed to correspond in shape to the interface outer part , the interface inner part having a suction channel and a contact carrier which is arranged outside the suction channel and has a plurality of electrical contacts , and the interface outer part having a plurality of corresponding electrical contacts, characterised in that the interface outer part and the interface inner part furthermore each have at least two shape coding element pairs , a first shape coding element pair of the interface outer part being designed to correspond in position and shape to a first shape coding element pair of the interface inner part , and a second shape coding element pair of the interface outer part being designed to correspond in position and shape to a second shape coding element pair of the interface inner part , each shape coding element pair having two shape coding elements in each case that are identical in shape and are formed separately from one another.
A method of gathering information on a vessel arrangement having a central space between first, second, third and fourth vessels , the method comprising: inserting an interior sensor mounting assembly into the central space ; positioning a first sensor of the interior sensor mounting assembly proximate the first vessel ; positioning a second sensor of the interior sensor mounting assembly proximate the second vessel ; moving the first sensor in a first direction into contact with the first vessel ; and moving the second sensor in a second direction into contact with the second vessel . inserting an interior sensor mounting assembly into the central space ; positioning a first sensor of the interior sensor mounting assembly proximate the first vessel ; positioning a second sensor of the interior sensor mounting assembly proximate the second vessel ; moving the first sensor in a first direction into contact with the first vessel ; and moving the second sensor in a second direction into contact with the second vessel .
Fuel injection method for an internal combustion engine with direct injection with compression ignition comprising at least one cylinder , a cylinder head bearing fuel injection means , a piston sliding in this cylinder, a combustion chamber delimited on one side by the top face of the piston comprising a teat that is set up towards the cylinder head and disposed at the centre of a concave bowl with at least two mixing zones (Z1, Z2), said injection means spraying fuel by at least two sheets of fuel jets of different sheet angles (A1, A2), a bottom sheet of jet axis C1 for the zone (Z1) and a top sheet of jet axis C2 for the zone (Z2), characterized in that it consists in injecting into the fuel chamber the fuel jets of one of the sheets in a radial direction (C1) forming a non-zero angle (b2) with the radial direction (C2) of the fuel jets of the other of the sheets, said angle being substantially equal to the half-angle between two jets of one and the same sheet, and in admitting the oxidizer in a swirl motion with a swirl number less than or equal to 1.5, the swirl number being equal to the ratio between the speed of rotation of the vortex motion of the oxidizer and that of the crankshaft of the internal combustion engine.
A display apparatus, comprising: a display module including a display panel configured to display an image; a vibration plate connected to the display module ; and a vibration module configured to vibrate the vibration plate , and a buffer member disposed on the vibration plate near to the vibration module , wherein a height of the buffer member with respect to a top surface of the vibration plate is higher than a height of the vibration module with respect to the top surface of the vibration plate ; wherein the display panel is configured to vibrate based on a vibration of the vibration plate to output sound to a front direction of the display panel, and wherein a top surface of the buffer member is located between a top surface of the vibration module and a rear surface of the display module . a display module including a display panel configured to display an image; a vibration plate connected to the display module ; and a vibration module configured to vibrate the vibration plate , and a buffer member disposed on the vibration plate near to the vibration module , wherein a height of the buffer member with respect to a top surface of the vibration plate is higher than a height of the vibration module with respect to the top surface of the vibration plate ; wherein the display panel is configured to vibrate based on a vibration of the vibration plate to output sound to a front direction of the display panel, and wherein a top surface of the buffer member is located between a top surface of the vibration module and a rear surface of the display module .