mhurhangee/patent-ind-claim-en huggingface dataset:
A marker light or warning light for a vehicle with at least one at least partially translucent housing body for accommodating at least one lighting means and at least one mounting surface arranged facing the vehicle in the state mounted on the vehicle , characterised in that the at least one translucent housing body is formed entirely of an elastically extensible material that can be deformed sufficiently both to conform to a curved surface of the outer skin of a vehicle and for mounting to the vehicle, and a) the mounting surface is formed elastically at least partially such that the mounting surface is conformable to a curved surface of the outer skin of a vehicle at least in the elastically formed area, and/or b) the mounting surface is formed elastically at least partially such that the mounting surface can be mounted on a curved surface of the outer skin of a vehicle by elastic extension and fixation in an elastically extended state by tensioning. characterised in that the at least one translucent housing body is formed entirely of an elastically extensible material that can be deformed sufficiently both to conform to a curved surface of the outer skin of a vehicle and for mounting to the vehicle, and a) the mounting surface is formed elastically at least partially such that the mounting surface is conformable to a curved surface of the outer skin of a vehicle at least in the elastically formed area, and/or b) the mounting surface is formed elastically at least partially such that the mounting surface can be mounted on a curved surface of the outer skin of a vehicle by elastic extension and fixation in an elastically extended state by tensioning. a) the mounting surface is formed elastically at least partially such that the mounting surface is conformable to a curved surface of the outer skin of a vehicle at least in the elastically formed area, and/or b) the mounting surface is formed elastically at least partially such that the mounting surface can be mounted on a curved surface of the outer skin of a vehicle by elastic extension and fixation in an elastically extended state by tensioning.
A blister pack having a blister cover and a blister card , the blister cover and the blister card enclosing a product chamber for accommodating a product , the blister cover having an edge which is in contact with the blister card and is connected to the blister card , a weakening line being provided in the blister card in order to make it easier to remove the product from the product chamber , the edge of the blister cover being in contact with the blister card by means of an inner contact surface and an outer contact surface and the weakening line being arranged between the inner contact surface and the outer contact surface or under the inner contact surface , characterized in that the contact of the inner contact surface with the blister card is free of sealing means and/or holding means.
An α-aminoamide derivative represented by [Chemical Formula 1] or a pharmaceutically acceptable salt thereof: wherein R is selected from hydrogen, methyl, isopropyl and isobutyl; and X is selected from p -trifluoromethyl, p -trifluoromethoxy, m -trifluoromethyl, m -trifluoromethoxy, p -chloro, m -chloro, p -methoxy and m -methoxy. R is selected from hydrogen, methyl, isopropyl and isobutyl; and X is selected from p -trifluoromethyl, p -trifluoromethoxy, m -trifluoromethyl, m -trifluoromethoxy, p -chloro, m -chloro, p -methoxy and m -methoxy.
A compound of formula I: or a pharmaceutically acceptable salt or solvate thereof, wherein: Z is Q is X is CH; Y is C-CF 3 ; R 1 is H, F, Cl, C 1 -C 4 alkyl substituted with 1, 2, 3, 4, 5, 6, 7, 8, or 9 fluorine atoms, or C1-C6 alkoxy substituted with 0, 1, 2, 3, 4, 5, 6, or 7 fluorine atoms; and R 51 and R 52 are each H. Z is Q is X is CH; Y is C-CF 3 ; R 1 is H, F, Cl, C 1 -C 4 alkyl substituted with 1, 2, 3, 4, 5, 6, 7, 8, or 9 fluorine atoms, or C1-C6 alkoxy substituted with 0, 1, 2, 3, 4, 5, 6, or 7 fluorine atoms; and R 51 and R 52 are each H.
A system for determining the structural characteristics of a machine tool comprising: a. an excitation device configured to induce a dynamic excitation on a tool used in the machine tool; b. a preloading device configured to generate a static force on the tool; and c. a sensing device for acquiring a set of data based on which the structural characteristics of the machine tool can be determined. d. wherein the system further comprises a controller configured to control the excitation device, to receive the set of data acquired by the sensing device and to determine the structural characteristics of the tool based on the received set of data. a. an excitation device configured to induce a dynamic excitation on a tool used in the machine tool; b. a preloading device configured to generate a static force on the tool; and c. a sensing device for acquiring a set of data based on which the structural characteristics of the machine tool can be determined. d. wherein the system further comprises a controller configured to control the excitation device, to receive the set of data acquired by the sensing device and to determine the structural characteristics of the tool based on the received set of data.
A liquid immunogenic composition prepared by reconstituting a lyophilized immunogenic composition comprising: (a) an isolated Staphylococcus aureus clumping factor A (ClfA) polypeptide, wherein the ClfA polypeptide comprises an N1, N2 and N3 domain, (b) an isolated Staphylococcus aureus MntC polypeptide, (c) a Capsular Polysaccharide Type 5 (CP5)-CRM 197 conjugate, (d) a Capsular Polysaccharide Type 8 (CP8)-CRM 197 conjugate, (e) a buffer having a pKa of 6.0 ± 0.6, and (f) a bulking agent, with an aqueous diluent, wherein said liquid immunogenic composition has a final pH of 6.0 ± 0.5.
An electrophoresis method of applying an electric field across at least two capillaries, comprising; applying a first pulse-field waveform at a first frequency across said capillaries for a first period of time; applying at least a second, different shape pulse-field waveform at a second frequency across said capillaries for a second period of time; thereafter repeating said first and at least second pulse-field waveform at least twice, wherein said first and second pulse-field waveforms are selected from the group of square, triangle, sine, and sawtooth waveforms, or any combination or blend of waveforms. applying a first pulse-field waveform at a first frequency across said capillaries for a first period of time; applying at least a second, different shape pulse-field waveform at a second frequency across said capillaries for a second period of time; thereafter repeating said first and at least second pulse-field waveform at least twice, wherein said first and second pulse-field waveforms are selected from the group of square, triangle, sine, and sawtooth waveforms, or any combination or blend of waveforms.
A method for constructing a robotic arm comprising a plurality of links and a rope assembly , wherein the links further include a plurality of brackets , the method comprising: providing the rope assembly having a rope with a plurality of rope bearings threaded thereon, wherein the rope is capable of controlling the movement of the robotic arm by increasing and/or decreasing tension on the rope; and attaching the plurality of rope bearings of the rope assembly to the plurality of links of the robotic arm , wherein attaching the plurality of rope bearings of the rope assembly to the plurality of links of the robotic arm comprises removably coupling the plurality of rope bearings of the rope assembly to the plurality of links of the robotic arm , via the plurality of brackets of the links . providing the rope assembly having a rope with a plurality of rope bearings threaded thereon, wherein the rope is capable of controlling the movement of the robotic arm by increasing and/or decreasing tension on the rope; and attaching the plurality of rope bearings of the rope assembly to the plurality of links of the robotic arm , wherein attaching the plurality of rope bearings of the rope assembly to the plurality of links of the robotic arm comprises removably coupling the plurality of rope bearings of the rope assembly to the plurality of links of the robotic arm , via the plurality of brackets of the links .
A hollow glass body, comprising: a cylindrical main body portion having a first inside diameter , a first end opening and a second end opening on opposite ends of the hollow glass body , wherein the second end opening delimits the cylindrical main body portion and the hollow glass body has a second inside diameter at the second end opening, wherein the second inside diameter is smaller than the first inside diameter , and wherein - a difference between the first inside diameter and the second inside diameter is at most 100 μm, and/or - the difference between the first inside diameter and the second inside diameter divided by the first inside diameter is smaller than 0.01, and/or - the difference between the first inside diameter and the second inside diameter divided by a wall thickness of the cylindrical main body portion is smaller than 0.2. a cylindrical main body portion having a first inside diameter , a first end opening and a second end opening on opposite ends of the hollow glass body , wherein the second end opening delimits the cylindrical main body portion and the hollow glass body has a second inside diameter at the second end opening, wherein the second inside diameter is smaller than the first inside diameter , and wherein - a difference between the first inside diameter and the second inside diameter is at most 100 μm, and/or - the difference between the first inside diameter and the second inside diameter divided by the first inside diameter is smaller than 0.01, and/or - the difference between the first inside diameter and the second inside diameter divided by a wall thickness of the cylindrical main body portion is smaller than 0.2. - a difference between the first inside diameter and the second inside diameter is at most 100 μm, and/or - the difference between the first inside diameter and the second inside diameter divided by the first inside diameter is smaller than 0.01, and/or - the difference between the first inside diameter and the second inside diameter divided by a wall thickness of the cylindrical main body portion is smaller than 0.2.
Thermal management device comprising: - a heat exchanger within which there circulates a first heat-transfer fluid and which is intended to have a second heat-transfer fluid passing through it, - at least one thermal storage means comprising a stack between: • a plurality of composite phase change materials , and • inserts interposed between the composite phase change materials and in thermal contact with the said composite phase change materials , the said stack being arranged at right angles to the direction in which the said flow of the second heat-transfer fluid flows, downstream of the heat exchanger, characterized in that the said thermal storage means comprises at least one rim that covers at least one edge face of at least one of the composite phase change materials , such an edge face being positioned facing the said heat exchanger . - a heat exchanger within which there circulates a first heat-transfer fluid and which is intended to have a second heat-transfer fluid passing through it, - at least one thermal storage means comprising a stack between: • a plurality of composite phase change materials , and • inserts interposed between the composite phase change materials and in thermal contact with the said composite phase change materials , the said stack being arranged at right angles to the direction in which the said flow of the second heat-transfer fluid flows, downstream of the heat exchanger, characterized in that the said thermal storage means comprises at least one rim that covers at least one edge face of at least one of the composite phase change materials , such an edge face being positioned facing the said heat exchanger . • a plurality of composite phase change materials , and • inserts interposed between the composite phase change materials and in thermal contact with the said composite phase change materials ,
A computing device comprising: a touch display module, TDM , including a TDM datastore storing a first identification number specific to the TDM ; and a system chassis including a system datastore storing system firmware and a second identification number , the system firmware to compare the first identification number to the second identification number, authorize a TDM calibration process if the first identification number differs from the second identification number, and reset the first identification number equal to the second identification number, wherein the system datastore further stores an operating system , wherein authorizing the TDM calibration process includes: unlocking TDM calibration data via the system firmware; and executing the TDM calibration process via the operating system during a subsequent boot of the operating system. a touch display module, TDM , including a TDM datastore storing a first identification number specific to the TDM ; and a system chassis including a system datastore storing system firmware and a second identification number , the system firmware to compare the first identification number to the second identification number, authorize a TDM calibration process if the first identification number differs from the second identification number, and reset the first identification number equal to the second identification number, wherein the system datastore further stores an operating system , wherein authorizing the TDM calibration process includes: unlocking TDM calibration data via the system firmware; and executing the TDM calibration process via the operating system during a subsequent boot of the operating system. unlocking TDM calibration data via the system firmware; and executing the TDM calibration process via the operating system during a subsequent boot of the operating system.
An atomization device , characterized by comprising: a body portion , comprising a shell and a heating assembly , wherein the heating assembly is detachably connected with the shell to heat a tobacco product to volatilize an ingredient of the tobacco product ; a cover , arranged to slidably sleeve an outer side of an end of the shell connected with the heating assembly ; and a protective holder , arranged to be slidably connected with the shell along a first direction and sleeve an outer side of the heating assembly . a body portion , comprising a shell and a heating assembly , wherein the heating assembly is detachably connected with the shell to heat a tobacco product to volatilize an ingredient of the tobacco product ; a cover , arranged to slidably sleeve an outer side of an end of the shell connected with the heating assembly ; and a protective holder , arranged to be slidably connected with the shell along a first direction and sleeve an outer side of the heating assembly .
An aerosol generating device comprising: at least one component accommodating space having an opening on an outer surface of the aerosol generating device and allowing a removable component to be accommodated therein through the opening; a controller configured to periodically generate a test signal; a detection signal generator configured to generate a flooding detection signal based on the test signal when a liquid is introduced through the opening; and a detection signal transmitter configured to receive a generated flooding detection signal and transmit the received flooding detection signal to the controller , wherein the controller is further configured to determine whether the aerosol generating device is flooded based on the flooding detection signal. at least one component accommodating space having an opening on an outer surface of the aerosol generating device and allowing a removable component to be accommodated therein through the opening; a controller configured to periodically generate a test signal; a detection signal generator configured to generate a flooding detection signal based on the test signal when a liquid is introduced through the opening; and a detection signal transmitter configured to receive a generated flooding detection signal and transmit the received flooding detection signal to the controller , wherein the controller is further configured to determine whether the aerosol generating device is flooded based on the flooding detection signal.
A method of connecting a wire to a feedthrough , the method comprising the steps of: providing a feedthrough comprising an insulator and an electrically conductive cermet pathway , wherein the cermet pathway comprises an electrically conductive metallic material, providing a wire made of an electrically conductive material, characterized in that an end of the wire is arranged in direct contact with the cermet pathway , and a joint microstructure is generated, the joint microstructure formed only of material of the cermet pathway and of material of the end of the wire . providing a feedthrough comprising an insulator and an electrically conductive cermet pathway , wherein the cermet pathway comprises an electrically conductive metallic material, providing a wire made of an electrically conductive material, characterized in that an end of the wire is arranged in direct contact with the cermet pathway , and a joint microstructure is generated, the joint microstructure formed only of material of the cermet pathway and of material of the end of the wire .
A device comprising: a waveguide comprising a first section of transparent material; several light sources disposed proximate a bottom surface of the waveguide , said several light source being positioned with intervals across the bottom of the waveguide; and a surface to be illuminated proximate a top surface of the waveguide , wherein at least one of the several light sources comprises: a mount upon which a semiconductor light emitting diode is situated; sidewalls that extend from the mount to the waveguide and form a cavity between the semiconductor light emitting diode and the waveguide ; wherein the cavity is reflective along the sidewalls; and a a dichroic filter disposed between the waveguide and the cavity , the device being characterised in that the semiconductor light emitting diode comprises a photonic crystal configured such that the >50% of energy of the visible light emitted by the semiconductor light emitting diode is emitted at angles >45° relative to a normal to a top surface of the semiconductor light emitting diode , and in that a second section of transparent material is disposed within the cavity and the cavity is reflective along the second section of transparent material. a waveguide comprising a first section of transparent material; several light sources disposed proximate a bottom surface of the waveguide , said several light source being positioned with intervals across the bottom of the waveguide; and a surface to be illuminated proximate a top surface of the waveguide , wherein at least one of the several light sources comprises: a mount upon which a semiconductor light emitting diode is situated; sidewalls that extend from the mount to the waveguide and form a cavity between the semiconductor light emitting diode and the waveguide ; wherein the cavity is reflective along the sidewalls; and a a dichroic filter disposed between the waveguide and the cavity , the device being characterised in that the semiconductor light emitting diode comprises a photonic crystal configured such that the >50% of energy of the visible light emitted by the semiconductor light emitting diode is emitted at angles >45° relative to a normal to a top surface of the semiconductor light emitting diode , and in that a second section of transparent material is disposed within the cavity and the cavity is reflective along the second section of transparent material.
Method of storing hydrogen by treating a second ionic liquid which comprises a cation and an anion comprising borate with borohydride, to obtain a first ionic liquid comprising releasable hydrogen, characterized in that (i) the first and the second ionic liquid both are water miscible, wherein an ionic liquid is considered water miscible ionic liquid if a saturated aqueous solution of said ionic liquid at room temperature is formed with 5% to 50% by weight of water, (ii) the first ionic liquid is separated, particularly is salted out, from solution in water by adding a phase separation inducer, wherein the phase separation inducer is a coordinating organic or inorganic salt, and (iii) the second ionic liquid is obtained by releasing the hydrogen out of the first ionic liquid under use of water in the presence a catalyst, providing the first ionic liquid in a homogenous solution in water; and optionally (iv) the first ionic liquid further comprises inorganic borohydride, in particular NaBH 4 , KBH 4 and/or LiBH 4 , to an extent that the first ionic liquid remains water miscible and the second ionic liquid after the release of hydrogen remains water miscible. (i) the first and the second ionic liquid both are water miscible, wherein an ionic liquid is considered water miscible ionic liquid if a saturated aqueous solution of said ionic liquid at room temperature is formed with 5% to 50% by weight of water, (ii) the first ionic liquid is separated, particularly is salted out, from solution in water by adding a phase separation inducer, wherein the phase separation inducer is a coordinating organic or inorganic salt, and (iii) the second ionic liquid is obtained by releasing the hydrogen out of the first ionic liquid under use of water in the presence a catalyst, providing the first ionic liquid in a homogenous solution in water; and optionally (iv) the first ionic liquid further comprises inorganic borohydride, in particular NaBH 4 , KBH 4 and/or LiBH 4 , to an extent that the first ionic liquid remains water miscible and the second ionic liquid after the release of hydrogen remains water miscible.
A method for performing a plurality of measurements in the air gap between a stator and a rotor of a generator for a wind turbine , the rotor being rotatable with respect to the stator about a rotational axis (Y), the method including the steps of: mounting a plurality of distance measuring sensors on at least one surface of the stator and/or the rotor , said surface facing the air gap , each distance measuring sensor being distanced from the other distance measuring sensor(s) along the rotational axis (Y), rotating the rotor about the rotational axis (Y), while rotating the rotor , measuring a plurality of distances between each of said distance measuring sensors and respective facing points across the air gap , deriving from said plurality of distances one or more value(s) of one or more parameter(s) associated with the air gap and/or the stator and/or rotor , characterized in that at least a portion of plurality of distance measuring sensors are fixed to a longitudinal support , said longitudinal support being fixed on a surface of the stator and/or the rotor , said surface facing the air gap , during said step of mounting. mounting a plurality of distance measuring sensors on at least one surface of the stator and/or the rotor , said surface facing the air gap , each distance measuring sensor being distanced from the other distance measuring sensor(s) along the rotational axis (Y), rotating the rotor about the rotational axis (Y), while rotating the rotor , measuring a plurality of distances between each of said distance measuring sensors and respective facing points across the air gap , deriving from said plurality of distances one or more value(s) of one or more parameter(s) associated with the air gap and/or the stator and/or rotor , characterized in that at least a portion of plurality of distance measuring sensors are fixed to a longitudinal support , said longitudinal support being fixed on a surface of the stator and/or the rotor , said surface facing the air gap , during said step of mounting.