mhurhangee/ep-ind-claims huggingface dataset:
Windshield wiper device (2; 28, 30; 74; 78) for a vehicle, in particular a motor vehicle, comprising: - an elongate upper part which is designed to be at least partially flexible, - an elongate lower part which is designed to be at least partially flexible, - multiple connecting elements for connecting the upper part and the lower part, wherein the connecting elements are spaced apart from one another along a longitudinal extent of the wiper blade, wherein the connecting elements are designed to permit a movement of the upper part and of the lower part relative to one another with a movement component along a longitudinal extent of the wiper blade, wherein the connecting elements are connected by way of rotary joints to the lower part and to the upper part, and wherein the upper part and the lower part are connected to an attachment piece, wherein all of the elements from the following group can be individually exchanged: the upper part, the lower part, a connecting element of the multiple connecting elements, and the attachment piece. - an elongate upper part which is designed to be at least partially flexible, - an elongate lower part which is designed to be at least partially flexible, - multiple connecting elements for connecting the upper part and the lower part, wherein the connecting elements are spaced apart from one another along a longitudinal extent of the wiper blade, wherein the connecting elements are designed to permit a movement of the upper part and of the lower part relative to one another with a movement component along a longitudinal extent of the wiper blade, wherein the connecting elements are connected by way of rotary joints to the lower part and to the upper part, and wherein the upper part and the lower part are connected to an attachment piece, wherein all of the elements from the following group can be individually exchanged: the upper part, the lower part, a connecting element of the multiple connecting elements, and the attachment piece.
A drive mechanism for a toothed ring including a power machine, a transmission and a gear fitted with a bearing to a bearing support and meshing with the toothed ring, characterized in that the bearing support is supported in its place to a base structure by two support arms (7, 8) and a third pivot point, so that the virtual extensions of the support arms intersect with a line passing through the center point of the tooth contact between the toothed ring and the gear, and the third pivot point, that the third pivot point is formed by a ball-and-socket joint, and that at least one end of the support arms (7, 8) includes a joint, the joint being a ball-and-socket joint or a joint that turns relative to a single axis.
Method for detecting one or more analytes by surface enhanced Raman spectroscopy (SERS) using a SERS marker conjugate comprising a metallic nanoparticle and an organometallic material comprising or consisting essentially of a metal carbonyl compound, the organometallic material being attached to a surface of the metallic nanoparticle by metal bonding between the metallic nanoparticle and metal atom comprised in the organometallic material, the method comprising a) contacting the one or more analytes with at least one analyte binding molecule attached to the SERS marker conjugate; and b) detecting a surface enhanced Raman signal from the SERS marker conjugate. a) contacting the one or more analytes with at least one analyte binding molecule attached to the SERS marker conjugate; and b) detecting a surface enhanced Raman signal from the SERS marker conjugate.
An apparatus comprising: a deposition chamber; a first crucible (200;250;300); an energy source configured to selectively apply and direct energy within the deposition chamber, including toward the first crucible (200;250;300), for generating corresponding vapor plumes (71A;71B;71C;120;130;140;222;272A;272B;322); and a workpiece fixture comprising: a plurality of workpiece holders configured to retain at least one workpiece selectively within the deposition chamber; and tooling including at least one wall separating at least a first of the plurality of workpiece holders from a second of the plurality of workpiece holders, characterised in that: the first crucible (200;250;300) includes a plurality of walls (206;256;306) defining an upper recess (210;260;310) and a first lower recess (212;262;312), at least the upper recess (210;260;310) open to an interior of the deposition chamber; and in that the apparatus further comprises: a vacuum pump; and a vacuum port, wherein the pump is configured to increase or decrease vacuum force through the vacuum port so as to tailor the chamber pressure to achieve desired dispersal of a particular vapor plume (71A... 322) and thereby control an overlap of adjacent vapor plumes (71A... 322). a deposition chamber; a first crucible (200;250;300); an energy source configured to selectively apply and direct energy within the deposition chamber, including toward the first crucible (200;250;300), for generating corresponding vapor plumes (71A;71B;71C;120;130;140;222;272A;272B;322); and a workpiece fixture comprising: a plurality of workpiece holders configured to retain at least one workpiece selectively within the deposition chamber; and tooling including at least one wall separating at least a first of the plurality of workpiece holders from a second of the plurality of workpiece holders, a plurality of workpiece holders configured to retain at least one workpiece selectively within the deposition chamber; and tooling including at least one wall separating at least a first of the plurality of workpiece holders from a second of the plurality of workpiece holders, the first crucible (200;250;300) includes a plurality of walls (206;256;306) defining an upper recess (210;260;310) and a first lower recess (212;262;312), at least the upper recess (210;260;310) open to an interior of the deposition chamber; and in that the apparatus further comprises: a vacuum pump; and a vacuum port, wherein the pump is configured to increase or decrease vacuum force through the vacuum port so as to tailor the chamber pressure to achieve desired dispersal of a particular vapor plume (71A... 322) and thereby control an overlap of adjacent vapor plumes (71A... 322). a vacuum pump; and a vacuum port, wherein the pump is configured to increase or decrease vacuum force through the vacuum port so as to tailor the chamber pressure to achieve desired dispersal of a particular vapor plume (71A... 322) and thereby control an overlap of adjacent vapor plumes (71A... 322).
A pressure sensor, comprising a deformable membrane deflecting in response to pressure applied, a first stationary electrode and a second electrode coupled to the deformable membrane, for determining a change in a capacitance between the first and the second electrode (43, 44) in response to the pressure applied, wherein the first stationary electrode comprises a first layer and a second layer, wherein the first layer is deposited on a substrate of the pressure sensor, characterized in that: the second layer comprises a getter material for collecting gas molecules and wherein the second layer is deposited on the first layer so as to fully cover a top surface of the first layer and wherein the first layer comprises a layer of conducting material different to the getter material.
A refrigerator comprising: a cabinet body and a door that provides access to the cabinet body; an application (26, 28, 32) requiring a heat output; a flow pathway positioned at a source of heat, the flow pathway extending between the source of heat and the application (26, 28, 32), for supplying, as the application heat output, latent heat from the source of heat; and a heat exchanger positioned on an exterior surface of the cabinet body to harvest, as said source of heat, heat from the ambient air, characterised in that i) the refrigerator further comprises a pump in operable communication with the flow pathway for moving the latent heat through the flow pathway between the source of heat and the application (26, 28, 32); ii) the flow pathway is able to direct warmed fluid to the door and iii) the heat exchanger is a heat reservoir positioned on the top of the cabinet body. a cabinet body and a door that provides access to the cabinet body; an application (26, 28, 32) requiring a heat output; a flow pathway positioned at a source of heat, the flow pathway extending between the source of heat and the application (26, 28, 32), for supplying, as the application heat output, latent heat from the source of heat; and a heat exchanger positioned on an exterior surface of the cabinet body to harvest, as said source of heat, heat from the ambient air, i) the refrigerator further comprises a pump in operable communication with the flow pathway for moving the latent heat through the flow pathway between the source of heat and the application (26, 28, 32); ii) the flow pathway is able to direct warmed fluid to the door and iii) the heat exchanger is a heat reservoir positioned on the top of the cabinet body.
A dishwasher comprising • a door, • a washing housing with a washing chamber to which the door is hinged in a sealed and hinged manner, • a container with a deodorant or a chemical substance providing hygiene or a mixture of deodorant and chemical substance inside, • a spray distributor which has at least one spray head which is positioned in the washing housing and which is adjusted so as to distribute the deodorant or the chemical substance providing hygiene or the mixture of deodorant and chemical substance, existing inside the container to the washing chamber in spray form, and characterized in that it further comprises a casing to which the spray distributor is fixed and which is provided on the door's face facing the washing chamber. • a door, • a washing housing with a washing chamber to which the door is hinged in a sealed and hinged manner, • a container with a deodorant or a chemical substance providing hygiene or a mixture of deodorant and chemical substance inside, • a spray distributor which has at least one spray head which is positioned in the washing housing and which is adjusted so as to distribute the deodorant or the chemical substance providing hygiene or the mixture of deodorant and chemical substance, existing inside the container to the washing chamber in spray form, and characterized in that it further comprises a casing to which the spray distributor is fixed and which is provided on the door's face facing the washing chamber.
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 electronic drone controlling device (110, 160) comprising: one or more processors (134, 170); a memory (136, 172) coupled with the one or more processors; a translation module (140, 176) operable by the one or more processors to: receive sensor data from one or more sensor devices that depict a user drone training gesture of the one or more sensor devices along a training path (202, 302) in three dimensional space; determine a flight path based at least in part on the sensor data, wherein the flight path mimics the training path; and store the flight path in the memory for use to control operation of a drone; and a navigation module (142, 178) operable by the one or more processors to direct the drone to fly based at least in part on the stored flight path. one or more processors (134, 170); a memory (136, 172) coupled with the one or more processors; a translation module (140, 176) operable by the one or more processors to: receive sensor data from one or more sensor devices that depict a user drone training gesture of the one or more sensor devices along a training path (202, 302) in three dimensional space; determine a flight path based at least in part on the sensor data, wherein the flight path mimics the training path; and store the flight path in the memory for use to control operation of a drone; and receive sensor data from one or more sensor devices that depict a user drone training gesture of the one or more sensor devices along a training path (202, 302) in three dimensional space; determine a flight path based at least in part on the sensor data, wherein the flight path mimics the training path; and store the flight path in the memory for use to control operation of a drone; and a navigation module (142, 178) operable by the one or more processors to direct the drone to fly based at least in part on the stored flight path.
A device for selectively bleaching or dyeing a plurality of locks of hair by means of applying at least one liquid or pasty product, comprising a selector comb for selecting the locks to be bleached or dyed from a portion of hair, and a container provided with at least one compartment (50, 50a, 50b) that can internally house the liquid or pasty product, the selector comb being partially introduced inside the container and being having movable inside and along the same; the container having flattened structure which in a non-operating position of the device is arranged folded in half with respect to its total length, a portion equivalent to half the total length of the actual structure being introduced in the structure itself, the container in said non-operating position forming a body comprising at least one double wall formed by an outer wall and an inner wall, and a central space, demarcated by the inner wall, in which the selector comb is partially introduced, said body being provided with at least one compartment (50, 50a, 50b) formed by the space demarcated between the outer wall, the inner wall and the joint section of these walls at one of the ends of the body coinciding with the section of the fold of the flattened structure; the comb being coupled to the container such that in an operating position of the device, the movement of the comb takes place, the inner wall of the body is dragged by the selector comb towards the fold of the flattened structure, causing the movement and shortening of said inner wall with respect to the outer wall, and hence the unfolding of the flattened structure and the gradual introduction of an increasingly longer portion of the locks selected by the comb inside the container at the same time as the gradual opening and communication of the inside of the compartment (50, 50a, 50b) with the portion of the locks introduced inside the container, said portion being exposed to the liquid or pasty product, up to an end operating position in which the flattened structure is completely unfolded and provided with at least one wall of a length equivalent to the length of the outer wall plus the length of the inner wall in the non-operating position.
An apparatus (300, 400, 500) for obtaining ion energy distribution measurements in a plasma processing system comprising: a substrate (301, 401, 501); a plurality of ion energy sensors (303, 403, 503) each having associated control circuitry (304, 404, 504) disposed in the substrate (301, 401, 501); and a conductive enclosure (305, 405, 505) disposed in the substrate (301, 401, 501) and surrounding each ion energy sensor (303, 403, 503) and associated control circuitry (304, 404, 504) such that the substrate (301, 401, 501) at least partially surrounds the conductive enclosure. a substrate (301, 401, 501); a plurality of ion energy sensors (303, 403, 503) each having associated control circuitry (304, 404, 504) disposed in the substrate (301, 401, 501); and a conductive enclosure (305, 405, 505) disposed in the substrate (301, 401, 501) and surrounding each ion energy sensor (303, 403, 503) and associated control circuitry (304, 404, 504) such that the substrate (301, 401, 501) at least partially surrounds the conductive enclosure.
Container for liquid or paste products of the type generically consisting of a tank and of a closing capsule, a stem being associated with suitable retaining means with said capsule, said stem supporting an applicator, between said capsule and said stem a spring being arranged, said tank consisting of a cylindrical body, at the top of which a neck is provided, apt to allow the insertion of the stem and the tightening of the capsule to said tank, on the external periphery of said neck shaped relief guiding and retaining members for peg members internally projecting from said capsule being provided, characterised in that on said capsule there is provided a fastening portion with a cylindrical coupling ring containing a rotating ring carrying said peg members, apt to engage with said shaped relief guiding members provided on said neck.
Ion implantation machine comprising: - an enclosure (101, 301, 401) which is connected to a pumping device (102, 303), - a plasma source (115-121-122, 304-320, 330-340, 405-406), - a bias supply (113, 327), - a gas inlet (117, 302, 402) arranged on this enclosure, - a substrate support (104, 304) connected to the negative pole of this bias supply and arranged in said enclosure, characterized in that: - said substrate support (104, 304) consists of at least two parallel plates (105-106, 305-306-307-308-309), - a reference electrode consists of at least one blade (110, 321-322-323-324), this reference electrode being connected to the positive pole of said bias supply, - said blade being inserted between the two plates. - an enclosure (101, 301, 401) which is connected to a pumping device (102, 303), - a plasma source (115-121-122, 304-320, 330-340, 405-406), - a bias supply (113, 327), - a gas inlet (117, 302, 402) arranged on this enclosure, - a substrate support (104, 304) connected to the negative pole of this bias supply and arranged in said enclosure, - said substrate support (104, 304) consists of at least two parallel plates (105-106, 305-306-307-308-309), - a reference electrode consists of at least one blade (110, 321-322-323-324), this reference electrode being connected to the positive pole of said bias supply, - said blade being inserted between the two plates.
A gas appliance control device, in particular for appliances that comprise at least one gas tap having a safety valve that includes an electromagnet that can be supplied via a thermo-electric generator, wherein the device comprises at least one control module having a supporting structure (21, 23), which can be associated to a gas tap, in particular within a body (2, 3) of a gas appliance, the supporting structure (21, 23) defining a housing contained within which is at least one first part of a circuit arrangement (25, PSD), wherein: - the control module comprises command means (22; 27) operable by a user for activating at least one timing function and/or a function of ignition of a gas burner, and - the first part of the circuit arrangement (25, PSD) comprises control means (MC, Ql), first electrical-interconnection means (25c, 25d+, 25d-, 47), and detection means (44, 45) configured for detecting actuation of the command means (22, 27) and supplying corresponding signals to the control means (MC, Ql), wherein the first electrical-interconnection means comprise first connector means, configured for connection to an electromagnet of a safety valve of a gas tap, and second connectors means (25d+; 25d-), configured for connection to a thermo-electric generator of said gas tap, wherein the circuit arrangement (25, PSD) further comprises control and/or command means (PSD, IS, FD, LE, BC, ISC) and/or an auxiliary module, among which a flame-detecting circuit, characterized in that the flame-detecting circuit comprises: - means (MC, Q1) for causing brief openings of a circuit between the first connector means and the second connector means; and - means (MC, C5) for detecting possible variations of voltage or over-voltages in said circuit between the first connector means and the second connector means following upon said brief openings. - the control module comprises command means (22; 27) operable by a user for activating at least one timing function and/or a function of ignition of a gas burner, and - the first part of the circuit arrangement (25, PSD) comprises control means (MC, Ql), first electrical-interconnection means (25c, 25d+, 25d-, 47), and detection means (44, 45) configured for detecting actuation of the command means (22, 27) and supplying corresponding signals to the control means (MC, Ql), - means (MC, Q1) for causing brief openings of a circuit between the first connector means and the second connector means; and - means (MC, C5) for detecting possible variations of voltage or over-voltages in said circuit between the first connector means and the second connector means following upon said brief openings.
An absorbent liquid which absorbs at least one of CO 2 and H 2 S in a gas, comprising components of: (a) a secondary linear monoamine, the secondary linear monoamine being selected from the group consisting of N-(methylamino)ethanol, N-(ethylamino)ethanol, N-(propylamino)ethanol and N-(butylamino)ethanol; a sterically hindered primary monoamine; and (c) a secondary cyclic diamine, wherein a concentration of each of the components is less than 30% by weight, and the concentration of each of (a) a secondary linear monoamine and a sterically hindered primary monoamine is more than 10% by weight, wherein a total concentration of (a) the secondary linear monoamine, the sterically hindered primary monoamine, and (c) the secondary cyclic diamine is 70% by weight or less, and wherein the concentration of (c) the secondary cyclic diamine is less than the concentration of (a) the secondary linear monoamine and is less than the concentration of the sterically hindered primary monoamine in weight percent relative to the absorbent liquid, and wherein the concentration of the sterically hindered primary monoamine is the same as or less than the concentration of (a) the secondary linear monoamine in weight percent relative to the absorbent liquid. (a) a secondary linear monoamine, the secondary linear monoamine being selected from the group consisting of N-(methylamino)ethanol, N-(ethylamino)ethanol, N-(propylamino)ethanol and N-(butylamino)ethanol; a sterically hindered primary monoamine; and (c) a secondary cyclic diamine, wherein a concentration of each of the components is less than 30% by weight, and the concentration of each of (a) a secondary linear monoamine and a sterically hindered primary monoamine is more than 10% by weight, wherein a total concentration of (a) the secondary linear monoamine, the sterically hindered primary monoamine, and (c) the secondary cyclic diamine is 70% by weight or less, and wherein the concentration of (c) the secondary cyclic diamine is less than the concentration of (a) the secondary linear monoamine and is less than the concentration of the sterically hindered primary monoamine in weight percent relative to the absorbent liquid, and wherein the concentration of the sterically hindered primary monoamine is the same as or less than the concentration of (a) the secondary linear monoamine in weight percent relative to the absorbent liquid.