mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetic filter for a central heating and/or cooling system, the magnetic filter comprising: a chamber in the form of a cylindrical pipe having an inlet and an outlet at either end of the pipe; a framework fixed to the outside of the pipe, the framework including a bar running along the outside of the pipe, parallel to the pipe; and multiple pairs of elongate curved magnetic assemblies , each pair surrounding the separation chamber and the multiple pairs being disposed along the bar , each magnetic assembly being pivotally mounted to the bar on a pivot disposed near to one end of the magnetic assembly , each of the magnetic assemblies being individually movable such that a major length of each elongate magnetic assembly is movable from a position close to the chamber to a position spaced from the chamber by pivoting the magnetic assembly on the pivot. a chamber in the form of a cylindrical pipe having an inlet and an outlet at either end of the pipe; a framework fixed to the outside of the pipe, the framework including a bar running along the outside of the pipe, parallel to the pipe; and multiple pairs of elongate curved magnetic assemblies , each pair surrounding the separation chamber and the multiple pairs being disposed along the bar , each magnetic assembly being pivotally mounted to the bar on a pivot disposed near to one end of the magnetic assembly , each of the magnetic assemblies being individually movable such that a major length of each elongate magnetic assembly is movable from a position close to the chamber to a position spaced from the chamber by pivoting the magnetic assembly on the pivot.
An interlayer film for laminated glass, comprising a plastic layer with a Young's modulus of higher than or equal to 1 GPa , a first resin layer directly layered on a first surface of the plastic layer, and a second resin layer directly layered on a second surface opposite to the first surface of the plastic layer, the first resin layer, the plastic layer and the second resin layer being subjected to thermocompression bonding by a roll-to-roll process under conditions of a heating temperature of higher than or equal to 65°C and lower than or equal to 150°C, a pressure at the time of compression bonding of greater than or equal to 0.05 MPa and less than or equal to 0.5 MPa and a tensile force at the time of transportation of less than or equal to 100 N, the plastic layer containing polyethylene terephthalate, the first resin layer containing a polyvinyl acetal resin and a plasticizer and the second resin layer containing a polyvinyl acetal resin and a plasticizer, the content of the plasticizer in the first layer being greater than or equal to 15 parts by weight and less than or equal to 75 parts by weight relative to 100 parts by weight of the polyvinyl acetal resin in the first layer and the content of the plasticizer in the second layer being greater than or equal to 15 parts by weight and less than or equal to 75 parts by weight relative to 100 parts by weight of the polyvinyl acetal resin in the second layer, the second resin layer containing an ultraviolet ray screening agent, having the Young's modulus of the plastic layer higher than the Young's modulus of the first resin layer and having an adhesive force between the plastic layer and the first resin layer measured in accordance with JIS K6854-2 of greater than or equal to 1 N/50 mm and less than or equal to 20 N/50 mm, and having the Young's modulus of the plastic layer higher than the Young's modulus of the second resin layer and having an adhesive force between the plastic layer and the second resin layer measured in accordance with JIS K6854-2 of greater than or equal to 1 N/50 mm and less than or equal to 20 N/50 mm, wherein, the Young's modulus is measured according to the method in the description.
Device for filling packages , in particular with foodstuffs, in a plurality of parallel processing lines, wherein each processing line has a mandrel wheel for forming the packages , with a heating unit for at least partially heating end regions to be sealed of packaging sleeves arranged on different mandrel wheels with hot air, with a sealing unit for liquid-tight closing and sealing of the end regions of the heated packaging sleeves arranged on different mandrel wheels and with a filling device for filling the packaging sleeves closed at least on one side, wherein the heating unit has a plurality of heating apparatuses for at least partially heating ends regions to be sealed of packaging sleeves arranged on different mandrel wheels with hot air, wherein the heating unit has an air supply apparatus for supplying air to be heated to the heating apparatuses , wherein the heating apparatuses each have an electric heating element for generating hot air and a nozzle unit for blowing the end region of the packaging sleeve with the hot ait generated in the heating apparatus , wherein the heating apparatuses are each separately connected via at least one holder to the air supply apparatus and are each separately held via the at least one holder on the air supply apparatus and in that the at least one holders each have at least two separate channels connected to a collection line of the air supply apparatus providing air to be heated in order to supply air to be heated into the heating apparatus .
A light emitting module adapted to produce white output light having an emission peak in the wavelength range from 400 to 440 nm, comprising: - at least one first light emitting element adapted to emit light having an emission peak in a first wavelength range from 440 to 460 nm; - at least one wavelength converting material arranged to receive light emitted by said first light emitting element, and being capable of emitting light having an emission peak in the green to red wavelength range; and - at least one second light emitting element adapted to emit light having an emission peak in a second wavelength range from 400 to 440 nm, wherein said light emitting module is adapted to produce a ratio B of the integral spectral power distribution E(λ) of the wavelength range from 435 to 465 nm to the integral spectral power distribution of the total spectrum emitted by the light emitting module defined by ∫ 435 465 E λ d ⁢ λ ∫ 380 780 E λ d ⁢ λ = B , wherein 0 < B < 0.15. - at least one first light emitting element adapted to emit light having an emission peak in a first wavelength range from 440 to 460 nm; - at least one wavelength converting material arranged to receive light emitted by said first light emitting element, and being capable of emitting light having an emission peak in the green to red wavelength range; and - at least one second light emitting element adapted to emit light having an emission peak in a second wavelength range from 400 to 440 nm,
A pattern formation method for forming a micropattern, comprising: a first step of causing a first pattern-formable area at which a first pattern is to be formed on a liquid-repellent, first film that is formed on a substrate and that has a lyophilic/lyophobic variable function to be lyophilic and to reduce in thickness; a second step of forming a second film having a flat surface on the first film ; and a third step of forming the first pattern at the first pattern-formable area by drying the second film , wherein the second film is formed with a coating liquid that satisfies: σ < 0.153 p 1.947 × δ − 3.84 × a H 1.022 where a surface tension of the coating liquid is denoted by σ (N/m); a second film thickness is denoted by δ (m); a pitch of irregularities made up of the first pattern-formable area and a first pattern-unformable area which is an area other than the first pattern-formable area is denoted by p (m); and a Hamaker constant determined by the first film and the second film is denoted by a H (J); and the pitch of irregularities refers to a total width of one line and one space. a first step of causing a first pattern-formable area at which a first pattern is to be formed on a liquid-repellent, first film that is formed on a substrate and that has a lyophilic/lyophobic variable function to be lyophilic and to reduce in thickness; a second step of forming a second film having a flat surface on the first film ; and a third step of forming the first pattern at the first pattern-formable area by drying the second film , wherein the second film is formed with a coating liquid that satisfies: σ < 0.153 p 1.947 × δ − 3.84 × a H 1.022 where a surface tension of the coating liquid is denoted by σ (N/m); a second film thickness is denoted by δ (m); a pitch of irregularities made up of the first pattern-formable area and a first pattern-unformable area which is an area other than the first pattern-formable area is denoted by p (m); and a Hamaker constant determined by the first film and the second film is denoted by a H (J); and the pitch of irregularities refers to a total width of one line and one space.
An isolator comprising: a chamber to be decontaminated including an inlet provided with an intake filter (F1) and an outlet provided with a discharge filter (F2); a first flow path (P1) through which outside air is taken into the chamber to be decontaminated via the intake filter (F1); a second flow path (P2) through which gas in the chamber to be decontaminated is discharged via the discharge filter (F2); a first blower (B1) configured to take in the outside air to the chamber to be decontaminated through the first flow path (P1), as well as produce an air current to discharge the gas in the chamber to be decontaminated through the second flow path (P2); a decontaminating gas supply unit configured to supply decontaminating gas into the chamber to be decontaminated without flowing through the intake filter and the discharge filter; a third flow path (P3) configured to connect the intake filter and the discharge filter at an exterior of the chamber to be decontaminated; and a second blower (B3) configured to produce an air current to circulate the gas in the chamber to be decontaminated through the intake filter (F1), the discharge filter (F2), and the third flow path (P3), in a direction from the intake filter (F1) to the discharge filter (F2), when the decontaminating gas is supplied to the chamber to be decontaminated. a chamber to be decontaminated including an inlet provided with an intake filter (F1) and an outlet provided with a discharge filter (F2); a first flow path (P1) through which outside air is taken into the chamber to be decontaminated via the intake filter (F1); a second flow path (P2) through which gas in the chamber to be decontaminated is discharged via the discharge filter (F2); a first blower (B1) configured to take in the outside air to the chamber to be decontaminated through the first flow path (P1), as well as produce an air current to discharge the gas in the chamber to be decontaminated through the second flow path (P2); a decontaminating gas supply unit configured to supply decontaminating gas into the chamber to be decontaminated without flowing through the intake filter and the discharge filter; a third flow path (P3) configured to connect the intake filter and the discharge filter at an exterior of the chamber to be decontaminated; and a second blower (B3) configured to produce an air current to circulate the gas in the chamber to be decontaminated through the intake filter (F1), the discharge filter (F2), and the third flow path (P3), in a direction from the intake filter (F1) to the discharge filter (F2), when the decontaminating gas is supplied to the chamber to be decontaminated.
A receiver for recognizing blinding attacks in a quantum encrypted channel comprising an optical fiber, comprising a multipixel detector comprising a plurality of pixels (4211-4219, 5211-5212, 6211a-6212a, 6211b-6212b), and configured to be illuminated by a light beam outputted by the optical fiber, and a processing unit connected to the multipixel detector and configured to determine the presence of a blinding attack if a predetermined number of pixels (4211-4219, 5211-5212, 6211 a-6212a, 6211b-6212b) detects light within a predetermined interval, characterized in that the dimensions of the multipixel detector are configured and/or the distance between the optical fiber or a lens and the pixels of the multipixel detector is selected such that the plurality of pixels (4211-4219, 5211-5212, 6211a-6212a, 6211b-6212b) can be illuminated from the light beam outputted by the optical fiber, without the presence of any splitting element between the optical fiber and the multipixel detector .
An apparatus of an Evolved Node-B , eNB, operable to communicate with a User Equipment , UE, on a wireless network, comprising: a memory configured to: store a Narrow-Band Internet-of-Things, NB-IoT, access barring enable indicator and a System Information Block, SIB, Access Control, SIB-AC, scheduling indicator; and one or more processors configured to: generate a Master Information Block Narrow-Band, MIB-NB, message carrying the NB-IoT access barring enable indicator; and format a SIB1, SIB-1, message to carry the SIB-AC scheduling indicator when the NB-IoT access barring enable indicator has a predetermined value. store a Narrow-Band Internet-of-Things, NB-IoT, access barring enable indicator and a System Information Block, SIB, Access Control, SIB-AC, scheduling indicator; and one or more processors configured to: generate a Master Information Block Narrow-Band, MIB-NB, message carrying the NB-IoT access barring enable indicator; and format a SIB1, SIB-1, message to carry the SIB-AC scheduling indicator when the NB-IoT access barring enable indicator has a predetermined value. generate a Master Information Block Narrow-Band, MIB-NB, message carrying the NB-IoT access barring enable indicator; and format a SIB1, SIB-1, message to carry the SIB-AC scheduling indicator when the NB-IoT access barring enable indicator has a predetermined value.
An intraluminal imaging device , comprising: a flexible elongate member configured for positioning within a vessel of a patient, the flexible elongate member including a proximal portion and a distal portion; an imaging assembly disposed at the distal portion of the flexible elongate member, the imaging assembly including a conductor interface ; a plurality of wires extending along a length of the flexible elongate member and in communication with the imaging assembly, wherein the plurality of wires are coupled to the imaging assembly at the conductor interface; and a guide member comprising a surface coupled to an opposing surface of the conductor interface by an adhesive, wherein the plurality of wires extend through the guide member, and wherein the guide member collectively aligns the plurality of wires to the conductor interface. a flexible elongate member configured for positioning within a vessel of a patient, the flexible elongate member including a proximal portion and a distal portion; an imaging assembly disposed at the distal portion of the flexible elongate member, the imaging assembly including a conductor interface ; a plurality of wires extending along a length of the flexible elongate member and in communication with the imaging assembly, wherein the plurality of wires are coupled to the imaging assembly at the conductor interface; and a guide member comprising a surface coupled to an opposing surface of the conductor interface by an adhesive, wherein the plurality of wires extend through the guide member, and wherein the guide member collectively aligns the plurality of wires to the conductor interface.
An atomizer , comprising: a housing having a mouthpiece thereon; a liquid storage cup provided in the housing and configured for storing tobacco liquid, the liquid storage cup having an opening at one end thereof; a microporous liquid conducting body plugged inside the opening ; an atomizing unit connected to the opening and configured for heating the tobacco liquid to generate aerosol, the microporous liquid conducting body being configured for conveying the tobacco liquid in the liquid storage cup to the atomizing unit ; and an air flow channel provided between the mouthpiece and the atomizing unit ; wherein the atomizing unit comprises a support defining an aerosol outlet configured for discharging the aerosol into the air flow channel, wherein the atomizing unit further comprises a liquid guiding component located in the support , characterized in that the atomizing unit further comprises at least one heating sheet arranged along the central axis of the atomizer ; the heating sheet comprises a side surface in contact with the liquid guiding component, the liquid guiding component is configured to be in contact with the microporous liquid conducting body to guide the tobacco liquid to the heating sheet . a housing having a mouthpiece thereon; a liquid storage cup provided in the housing and configured for storing tobacco liquid, the liquid storage cup having an opening at one end thereof; a microporous liquid conducting body plugged inside the opening ; an atomizing unit connected to the opening and configured for heating the tobacco liquid to generate aerosol, the microporous liquid conducting body being configured for conveying the tobacco liquid in the liquid storage cup to the atomizing unit ; and an air flow channel provided between the mouthpiece and the atomizing unit ; wherein the atomizing unit comprises a support defining an aerosol outlet configured for discharging the aerosol into the air flow channel, wherein the atomizing unit further comprises a liquid guiding component located in the support , characterized in that the atomizing unit further comprises at least one heating sheet arranged along the central axis of the atomizer ; the heating sheet comprises a side surface in contact with the liquid guiding component, the liquid guiding component is configured to be in contact with the microporous liquid conducting body to guide the tobacco liquid to the heating sheet .
Production system for manufacturing of formulations, comprising a unit for the production of formulations, characterized in that the unit comprises a subunit (1.1), comprising a. at least one combination of a process mixer and a buffer tank, where the process mixer and the buffer tank contain mixing devices, b. at least one connection between the process mixer and buffer tank for transfer of part-batches of formulations manufactured in the process mixer from the process mixer into the buffer tank, c. means (M) of feeding defined amounts of feedstocks into the process mixer, d. at least one measurement unit for ascertaining properties of a part-batch of a formulation manufactured in the process mixer, e. at least one evaluation unit which is in communication with the measurement unit and is for determination of a deviation of properties of part-batches manufactured in the process mixer from the properties of a predefined target state, f. at least one unit which is in communication with the evaluation unit and is for adjusting the feed of defined amounts of feedstocks into the process mixer, and which is set up to take account of the deviations in the properties of a manufactured part-batch from the properties of a predefined target state and the number and size of further part-batches in order to adjust the amounts of feedstocks fed in in the manufacture of further part-batches. a. at least one combination of a process mixer and a buffer tank, where the process mixer and the buffer tank contain mixing devices, b. at least one connection between the process mixer and buffer tank for transfer of part-batches of formulations manufactured in the process mixer from the process mixer into the buffer tank, c. means (M) of feeding defined amounts of feedstocks into the process mixer, d. at least one measurement unit for ascertaining properties of a part-batch of a formulation manufactured in the process mixer, e. at least one evaluation unit which is in communication with the measurement unit and is for determination of a deviation of properties of part-batches manufactured in the process mixer from the properties of a predefined target state, f. at least one unit which is in communication with the evaluation unit and is for adjusting the feed of defined amounts of feedstocks into the process mixer, and which is set up to take account of the deviations in the properties of a manufactured part-batch from the properties of a predefined target state and the number and size of further part-batches in order to adjust the amounts of feedstocks fed in in the manufacture of further part-batches.
Base plate, which is made of plastic and is intended for supporting a rail (S) for a rail vehicle on a substrate (U), the base plate comprising a lower face , in use assigned to the substrate (U), and an upper face on which a supporting surface for the rail (S) is formed, wherein a recess , from which a passage leads to the upper face of the base plate , is formed in the lower face of the base plate , wherein the diameter of the recess in a direction transverse to the longitudinal axis (LX') of the passage is greater at least in part than the diameter of the passage , so that a stop for a component fitted into the recess is formed on the top surface of the recess , assigned to the upper face of the base plate , and wherein a component , for which an abutment for rotationally secure support of the component is provided on an inner surface surrounding the recess , is seated in the recess , characterised in that the component fitted into the recess is an insert piece which is made of a material having a higher strength compared with the plastic material of the base plate namely a metal material and is supported with a counter-bearing , formed on one of its outer surfaces , on the abutment of the recess and with its upper face against the top surface of the recess , and in that the insert piece comprises a lower face, assigned to the lower face of the base plate , starting from which a recess , in which a passage likewise formed into the insert piece and aligned flush with the passage of the base plate opens, is formed into the insert piece , wherein the recess of the insert piece is configured for rotationally secure reception and support of a head of a screw-like clamping element , the threaded shank of which is fed during use through the passages of the insert piece and of the base plate .