mhurhangee/patent-ind-claim-en huggingface dataset:
A blister package for a contact lens, the blister package comprising: a contact lens ; a body , the body having a body top surface and comprising a handle and a well connected to the handle , the well having a perimeter and an inner sidewall defining a bottom surface; a flexible top contacting the body top surface around the perimeter of, and closing, the well , the flexible top having an inner surface and a peel tab and being peelable away from the body to open the well ; and characterised by a lens cradle attached to the inner surface of the flexible top , comprising a lens support bowl , and having an opening along a side thereof between an edge of the lens support bowl and the inner surface of the flexible top , wherein the lens support bowl is shaped and sized to fit within the well , is disposed between the body and the flexible top , and has an inner bowl surface, wherein a cradle volume is defined between the inner bowl surface and the inner surface of the flexible top and accommodates a portion of the contact lens , and the lens cradle and flexible top are configured such that, by pulling the flexible top away from the body top surface , the lens cradle is lifted away from the bottom surface of the well . a contact lens ; a body , the body having a body top surface and comprising a handle and a well connected to the handle , the well having a perimeter and an inner sidewall defining a bottom surface; a flexible top contacting the body top surface around the perimeter of, and closing, the well , the flexible top having an inner surface and a peel tab and being peelable away from the body to open the well ; and characterised by a lens cradle attached to the inner surface of the flexible top , comprising a lens support bowl , and having an opening along a side thereof between an edge of the lens support bowl and the inner surface of the flexible top , wherein the lens support bowl is shaped and sized to fit within the well , is disposed between the body and the flexible top , and has an inner bowl surface, wherein a cradle volume is defined between the inner bowl surface and the inner surface of the flexible top and accommodates a portion of the contact lens , and the lens cradle and flexible top are configured such that, by pulling the flexible top away from the body top surface , the lens cradle is lifted away from the bottom surface of the well .
Lock system comprising a lock fitted with a cylinder insert , a mounting support and a driving device for unlocking and locking the lock enabling access to protected areas, wherein the driving device is intended to cooperate with a rotary control element placed in the body of the cylinder insert of the lock and the mounting support comprises means for connecting it to the driving device , wherein the mounting support is essentially in the form of a flat plate and is provided with a recess , the recess having a bottom (101"), with walls of the recess, when the mounting support has been attached to the body of the cylinder insert , surrounding, at least partially, the body of the insert such that the inner surface of the walls of the recess follows at least part of the outer surface of the end piece of the body of the cylinder insert and a pass-through opening is formed in the bottom (101") of the recess such that the axis of the rotary control element of the cylinder insert passes through the area of the pass-through opening , characterised in that a longitudinal circumferential projection is formed on the inner surface of the wall of the recess , i.e. on part of its surface, with one end of the projection seated in the material of the mounting support and the other end being free, wherein a threaded opening is made in the mounting support , with a set screw seated in the opening, and with the set screw , when screwed down, pushing against the circumferential projection between the ends of the circumferential projection , towards the body of the cylinder insert .
A method for detecting and responding to an engine disturbance, the method comprising: monitoring a rate of change of a combustor pressure of an engine ; detecting an engine disturbance when the rate of change of the combustor pressure falls below an event detection threshold ; initiating an engine recovery sequence in response to detecting the engine disturbance; confirming a surge event when the rate of change of the combustor pressure increases above a surge confirmation threshold within a flameout confirmation time period after having crossed the event detection threshold ; applying a surge recovery sequence in response to confirming the surge event; confirming a flameout event when the flameout confirmation time period expires and the rate of change of the combustor pressure remains below the surge confirmation threshold after having crossed the event detection threshold ; and applying a flameout recovery sequence in response to confirming the flameout event. monitoring a rate of change of a combustor pressure of an engine ; detecting an engine disturbance when the rate of change of the combustor pressure falls below an event detection threshold ; initiating an engine recovery sequence in response to detecting the engine disturbance; confirming a surge event when the rate of change of the combustor pressure increases above a surge confirmation threshold within a flameout confirmation time period after having crossed the event detection threshold ; applying a surge recovery sequence in response to confirming the surge event; confirming a flameout event when the flameout confirmation time period expires and the rate of change of the combustor pressure remains below the surge confirmation threshold after having crossed the event detection threshold ; and applying a flameout recovery sequence in response to confirming the flameout event.
Method for controlling a hybrid drivetrain of a hybrid motor vehicle, where the hybrid drivetrain has a dual-clutch transmission having two sub-transmissions of which the transmission input shafts are in each case able to be operatively coupled for driving to a first drive unit by means of a friction clutch , wherein one of the two transmission input shafts is operatively coupled, or able to be operatively coupled, for driving to a second drive unit , wherein during a synchronization procedure for preparing a gear shift in the event of a malfunction of the second drive unit , the friction clutch which is assigned to that sub-transmission of which the transmission input shaft is operatively coupled, or able to be operatively coupled, for driving to the second drive unit is at least briefly placed in slip in such a way that the sub-transmission and the second drive unit by way of the first drive unit are set to a synchronization rotation speed, characterized in that a required rotation speed jump for setting the synchronization rotation speed is set substantially by half by the respective friction clutch if in the event of a required upshift in gear the rotation speed of the first drive unit is higher than the synchronization rotation speed to be set, or if in the event of a required downshift in gear the rotation speed of the first drive unit is lower than the synchronization rotation speed to be set.
A method for transmitting an uplink Demodulation Reference Signal, DMRS, by a user equipment, UE, operable in a wireless communication system, comprising: receiving, from a base station, Downlink Control Information, DCI, for Physical Uplink Shared Channel, PUSCH, scheduling; generating a DMRS sequence for the PUSCH; and mapping the DMRS sequence to a physical resource, wherein the DCI includes information for a pre-configured value related to the mapping of the DMRS sequence, wherein the DMRS sequence is mapped to a Resource Element, RE, having a frequency domain index based on the pre-configured value within a symbol for which a DMRS for the PUSCH is configured, wherein the pre-configured value is based on a remainder obtained by dividing the frequency domain index by a specific value. receiving, from a base station, Downlink Control Information, DCI, for Physical Uplink Shared Channel, PUSCH, scheduling; generating a DMRS sequence for the PUSCH; and mapping the DMRS sequence to a physical resource, wherein the DCI includes information for a pre-configured value related to the mapping of the DMRS sequence, wherein the DMRS sequence is mapped to a Resource Element, RE, having a frequency domain index based on the pre-configured value within a symbol for which a DMRS for the PUSCH is configured, wherein the pre-configured value is based on a remainder obtained by dividing the frequency domain index by a specific value.
A seat comprising: a seating surface ; a peripheral surface extending transversely from the seating surface; a base surface extending along a direction transversely from the entire peripheral surface ; and a plurality of blunt protrusions extending from the base surface , wherein the plurality of blunt protrusions are elongated protrusions elongated along the base surface , wherein each of said plurality of blunt protrusions has a length along the base surface , a width transverse to the base surface and a height extending from the base surface, wherein the height is in the range of 1 to 5 mm, the width is in the range of 2 to 7 mm, and wherein the length is in the range of 3 to 15 mm, wherein the length is greater than the width , and the width is greater than the height , wherein said blunt protrusions provide sufficient friction to prevent sliding movement of said seat relative to a supporting surface comprising at least one of a fabric, leather or plastic, when said seat is placed on said supporting surface. a seating surface ; a peripheral surface extending transversely from the seating surface; a base surface extending along a direction transversely from the entire peripheral surface ; and a plurality of blunt protrusions extending from the base surface , wherein the plurality of blunt protrusions are elongated protrusions elongated along the base surface , wherein each of said plurality of blunt protrusions has a length along the base surface , a width transverse to the base surface and a height extending from the base surface, wherein the height is in the range of 1 to 5 mm, the width is in the range of 2 to 7 mm, and wherein the length is in the range of 3 to 15 mm, wherein the length is greater than the width , and the width is greater than the height , wherein said blunt protrusions provide sufficient friction to prevent sliding movement of said seat relative to a supporting surface comprising at least one of a fabric, leather or plastic, when said seat is placed on said supporting surface.
A multi-functional olefin copolymer lubricant additive comprising a reaction product of an acylated olefin copolymer and an amino mono- or di-carboxylic acid, the reaction product optionally further reacted with a functionalization agent selected from an amine, ester, and alcohol, and wherein the amino mono- or di-carboxylic acid has the formula H 2 N-R 1 (R 2 )-COOH wherein R 1 is a Cl to C18 hydrocarbyl group; and R 2 is hydrogen, a linear or branched alkyl group, an aryl group, a hydroxyphenyl group, a heterocyclic amino group, a carboxyl group, an amido group, an amino group, a hydroxyl group, a thiol, a thioester, selenium, or combinations thereof; wherein the olefin copolymer is an oil soluble linear or branched ethylene copolymer or terpolymer having a number average molecular weight between 50,000 and 200,000, as measured by GPC using polystyrene as reference. R 1 is a Cl to C18 hydrocarbyl group; and R 2 is hydrogen, a linear or branched alkyl group, an aryl group, a hydroxyphenyl group, a heterocyclic amino group, a carboxyl group, an amido group, an amino group, a hydroxyl group, a thiol, a thioester, selenium, or combinations thereof; wherein the olefin copolymer is an oil soluble linear or branched ethylene copolymer or terpolymer having a number average molecular weight between 50,000 and 200,000, as measured by GPC using polystyrene as reference.
A film-covered transparent base plate (1; 21; 31; 41) comprising: a transparent base plate ; and a light-absorbing film provided on one principal surface of the transparent base plate , the light-absorbing film including a dielectric phase made of a material having a band gap of not less than 2.0 eV and not more than 2.7 eV and a metallic phase , wherein the material is a metal oxide and, in an Ellingham diagram, a standard Gibbs energy of a metal element being a constituent of the metal oxide is smaller than a standard Gibbs energy of a metal element being a constituent of the metallic phase . a transparent base plate ; and a light-absorbing film provided on one principal surface of the transparent base plate , the light-absorbing film including a dielectric phase made of a material having a band gap of not less than 2.0 eV and not more than 2.7 eV and a metallic phase , wherein the material is a metal oxide and, in an Ellingham diagram, a standard Gibbs energy of a metal element being a constituent of the metal oxide is smaller than a standard Gibbs energy of a metal element being a constituent of the metallic phase .
A volatile content analysis instrument comprising: a cavity , a balance in said cavity, an infrared source , and a microwave source that produces and directs microwave radiation into said cavity; said balance having at least a balance pan in said cavity; an infrared temperature detector positioned to target a sample on said balance pan; said infrared source being positioned to direct infrared radiation into said cavity concurrently with microwave radiation directed from said microwave source; characterised in that the volatile content analysis instrument further comprises: a cooling fan ; a lens comprising a reflective collimator positioned between said infrared source and said balance pan for focusing infrared radiation towards said balance pan; said lens having dimensions that preclude the microwave frequencies produced by said microwave source from leaving said cavity; wherein the infrared source is configured to direct infrared radiation into said cavity at infrared frequencies other than the microwave frequencies produced by said microwave source and other than the frequencies measured by said temperature detector. a cavity , a balance in said cavity, an infrared source , and a microwave source that produces and directs microwave radiation into said cavity; said balance having at least a balance pan in said cavity; an infrared temperature detector positioned to target a sample on said balance pan; said infrared source being positioned to direct infrared radiation into said cavity concurrently with microwave radiation directed from said microwave source; characterised in that the volatile content analysis instrument further comprises: a cooling fan ; a lens comprising a reflective collimator positioned between said infrared source and said balance pan for focusing infrared radiation towards said balance pan; said lens having dimensions that preclude the microwave frequencies produced by said microwave source from leaving said cavity; wherein the infrared source is configured to direct infrared radiation into said cavity at infrared frequencies other than the microwave frequencies produced by said microwave source and other than the frequencies measured by said temperature detector. a cooling fan ; a lens comprising a reflective collimator positioned between said infrared source and said balance pan for focusing infrared radiation towards said balance pan; said lens having dimensions that preclude the microwave frequencies produced by said microwave source from leaving said cavity; wherein the infrared source is configured to direct infrared radiation into said cavity at infrared frequencies other than the microwave frequencies produced by said microwave source and other than the frequencies measured by said temperature detector.
A kettle comprising: a hollow body having a bottom wall and a side wall extending upwardly from the bottom wall to a rim , with the side wall surrounding a cavity to receive water to be heated, the bottom wall having an inner surface facing the cavity , the inner surface having an area; an elastic rubber mount ; a housing fixed to the hollow body ; and a heating element in thermal communication with the bottom wall to thereby heat the water, wherein the elastic rubber mount wraps around an edge of the heating element such that the heating element does not contact the housing ; wherein the elastic rubber mount is located between the side wall and the housing , and surrounds the bottom wall 16); and wherein the elastic rubber mount comprises a sound-isolating layer, and the housing further comprises a sound-absorbing layer located below the sound-isolating layer; wherein the hollow body rests on the elastic rubber mount ; and wherein the heating element occupies a horizontal area that is at least 30% of the area of the inner surface . a hollow body having a bottom wall and a side wall extending upwardly from the bottom wall to a rim , with the side wall surrounding a cavity to receive water to be heated, the bottom wall having an inner surface facing the cavity , the inner surface having an area; an elastic rubber mount ; a housing fixed to the hollow body ; and a heating element in thermal communication with the bottom wall to thereby heat the water, wherein the elastic rubber mount wraps around an edge of the heating element such that the heating element does not contact the housing ; wherein the elastic rubber mount is located between the side wall and the housing , and surrounds the bottom wall 16); and wherein the elastic rubber mount comprises a sound-isolating layer, and the housing further comprises a sound-absorbing layer located below the sound-isolating layer; wherein the hollow body rests on the elastic rubber mount ; and wherein the heating element occupies a horizontal area that is at least 30% of the area of the inner surface .
A mixer feeder comprising a mobile chassis , a tub provided on the chassis and at least one auger provided for rotation about a respective vertical axis of rotation in the tub, wherein, seen in top view, the tub has opposing semi-circular ends, and wherein, seen in vertical cross-section, the wall of the tub extends at least substantially upright from the bottom of the tub, characterised in that the tub wall curves inward at the upper side of the tub, seen in top view, over the entire circumference of the tub at the upper side thereof, sloping up and then extending downward forming an upside-down gutter for reducing the risk of material subjected to the operation of the augers unintentionally moving out of the tub, the downwardly extending portion and the upward sloping portion joining each other via a bend .
A bed with means for washing a patient who lies on the bed, without removing the patient from the bed, characterised in that the bed comprises a plurality of inflatable cushions fixedly mounted on a base, and means for washing the patient wherein the means for washing the patient include a brush and trough assembly comprising a rotating brush mounted above a trough movable along the patient's back, and means for partially deflating part of the plurality of inflatable cushions 11 which are located below the trough 31, such that the majority of the cushions 11 support the patient's body 2, while several cushions give way to the trough with the rotating brush.
A device for applying a transferable substance in stick form, with a substance carrier and a protective sheath for the substance carrier , wherein the substance carrier can be shifted relative to the protective sheath in order to shift a free end region of the substance into a free, projecting position, and further with a protective cap for covering the free end region of the substance in a non-use state, wherein further the protective sheath and protective cap are accommodated in a casing part , the protective cap and protective sheath can be shifted in a displacement direction (r) in the casing part , the casing part has passage openings (6 and 7) at its opposite ends as viewed in the displacement direction (r), and the protective cap is connected with the casing part so that it can move in the displacement direction (r), but is captive, characterized in that the protective sheath has a peripheral enlargement over a portion of its length for a frictional interaction with an inner surface of the casing part .
A cassette for the preparation of an imaging agent comprising the formula: comprising: (i) a vessel containing an imaging agent precursor comprising the formula: (ii) a conduit for adding a source of 18 F; and (iii) a vessel containing a bicarbonate salt. (i) a vessel containing an imaging agent precursor comprising the formula: (ii) a conduit for adding a source of 18 F; and (iii) a vessel containing a bicarbonate salt.
Side-channel blower or aspirator , comprising at least one impeller equipped with a plurality of blades and a casing , in which said impeller is enclosed and within which an annular conduit (C) is defined in which said blades rotate, wherein the blades each comprises at least one portion which is curved along a longitudinal extensions of the blade , defining a concavity facing the advancement direction of the blades within said conduit; wherein the impeller comprises a central body axial symmetric to which said blades are joined at respective joining zones, the side-channel blower or aspirator characterized in that each blade being completely contained within one of the two semi-spaces defined by an ideal diametral plane which joins the axis of the central body to the joining zone between the blade and the central body and each blade having a second curvature along its transversal extension.
A zoom lens consists of, in order from an object side to an image side: a first lens unit (G1) having positive refractive power configured not to move for zooming, and at least a part of which configured to move for focusing; a second lens unit (G2) having negative refractive power and configured to move for zooming; a third lens unit (G3) having positive refractive power and configured to move for zooming; a fourth lens unit (G4) having negative refractive power and configured to move for zooming; an aperture stop (SP); and a fifth lens unit (G5) having positive refractive power configured not to move for zooming, wherein fM denotes a focal length expressed by an expression fM = fW × √ Z; where fW denotes a focal length of the zoom lens at a wide angle end, Z denotes a zoom ratio of the zoom lens, and characterized in that Z≥17, and a conditional expression 1.1 < L 2 max / L 2 W ≤ 6.66 is satisfied where L2W denotes an interval between the second lens unit (G2) and the third lens unit (G3) at the wide angle end, and L2max denotes a maximum interval between the second lens unit and the third lens unit in a zoom range from the wide angle end to a zoom state corresponding to fM. a first lens unit (G1) having positive refractive power configured not to move for zooming, and at least a part of which configured to move for focusing; a second lens unit (G2) having negative refractive power and configured to move for zooming; a third lens unit (G3) having positive refractive power and configured to move for zooming; a fourth lens unit (G4) having negative refractive power and configured to move for zooming; an aperture stop (SP); and a fifth lens unit (G5) having positive refractive power configured not to move for zooming, wherein fM denotes a focal length expressed by an expression fM = fW × √ Z; where fW denotes a focal length of the zoom lens at a wide angle end, Z denotes a zoom ratio of the zoom lens, and characterized in that Z≥17, and a conditional expression 1.1 < L 2 max / L 2 W ≤ 6.66 is satisfied where L2W denotes an interval between the second lens unit (G2) and the third lens unit (G3) at the wide angle end, and L2max denotes a maximum interval between the second lens unit and the third lens unit in a zoom range from the wide angle end to a zoom state corresponding to fM.