mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for measuring the extremal temperature among the temperatures from a multiplicity of temperature sensors (22-1, 22-2,...), wherein a first temperature sensor is designed to carry a current that corresponds to its temperature, characterized in that the (k+1)-th temperature sensor (22-2,...) is in each case designed to carry the larger of a current that corresponds to its temperature and the current that is carried by the k-th temperature sensor (22-1, 22-2,...), wherein the apparatus also comprises a multiplicity of first amplifier circuits (24-1, 24-2,...), wherein each of the first amplifier circuits (24-1, 24-2,...) has a first input, a second input and an output and is designed such that a current from the second input to the output appears such that the electrical potential of the first input is at least equal to the electrical potential of the second input and wherein the apparatus also comprises a multiplicity of second amplifier circuits (27-1,...), wherein each of the second amplifier circuits (27-1,...) has a first input, a second input and an output and is designed such that a current from the output to the second input appears such that the electrical potential of the second input is at least equal to the electrical potential of the first input, wherein the apparatus also comprises a multiplicity of reference voltage sources (23-1, 23-2,...), wherein the first input of the k-th first amplifier circuit (24-1, 24-2,...) is in each case connected to a first connection of the k-th reference voltage source (23-1, 23-2,...), the second input of the k-th first amplifier circuit (24-1, 24-2,...) is in each case connected to a first connection of the k-th temperature sensor (22-1, 22-2,...), a second connection of the first temperature sensor is connected to a second connection of the first reference voltage source, a second connection of the (k+1)-th temperature sensor (22-2,...) is in each case connected to the output of the k-th first amplifier circuit (24-1, 24-2,...) and to the second input of the k-th second amplifier circuit (27-1,...) and the second connection of the (k+1)-th reference voltage source (23-2,...) is in each case connected to the first input of the k-th second amplifier circuit (27-1,...).
A method for separating a target oligonucleotide from a mixture containing the target oligonucleotide and a product-related impurity, the method comprising the steps of: a) adding salt to the mixture, wherein the salt is ammonium sulfate; b) contacting the diluted mixture with a hydrophobic adsorbent at a dynamic loading capacity of about 32 to about 78 % of the capacity of the hydrophobic adsorbent, wherein the hydrophobic adsorbent comprises phenyl or hexyl; c) washing the hydrophobic adsorbent with an aqueous salt solution; d) eluting the target oligonucleotide with an eluting solution; and e) collecting the eluent comprising the target oligonucleotide; wherein the product-related impurity includes at least one n-1 impurity, thereby separating the target oligonucleotide from the product-related impurity. a) adding salt to the mixture, wherein the salt is ammonium sulfate; b) contacting the diluted mixture with a hydrophobic adsorbent at a dynamic loading capacity of about 32 to about 78 % of the capacity of the hydrophobic adsorbent, wherein the hydrophobic adsorbent comprises phenyl or hexyl; c) washing the hydrophobic adsorbent with an aqueous salt solution; d) eluting the target oligonucleotide with an eluting solution; and e) collecting the eluent comprising the target oligonucleotide;
A hard coat laminated film sequentially comprising, from a surface layer side, a first hard coat, a second hard coat, and a resin film layer, wherein the first hard coat is formed of a coating material containing no inorganic particles, the second hard coat is formed of a coating material containing inorganic particles, the resin film comprises (α) at least one layer of an acrylic resin comprising 50 to 95% by mole of a structural unit derived from methyl methacrylate and 50 to 5% by mole of a structural unit derived from vinyl cyclohexane relative to 100% by mole of the total amount of structural units derived from a polymerizable monomer, and the following (i) to (iii) are satisfied: (i) a total light transmittance, measured as described in the description, of 85% or more; (ii) a pencil hardness, measured as described in the description, on the first hard coat surface of 5H or more; and (iii) a yellowness index, measured as described in the description, of 3 or less. the first hard coat is formed of a coating material containing no inorganic particles, the second hard coat is formed of a coating material containing inorganic particles, the resin film comprises (α) at least one layer of an acrylic resin comprising 50 to 95% by mole of a structural unit derived from methyl methacrylate and 50 to 5% by mole of a structural unit derived from vinyl cyclohexane relative to 100% by mole of the total amount of structural units derived from a polymerizable monomer, and the following (i) to (iii) are satisfied: (i) a total light transmittance, measured as described in the description, of 85% or more; (ii) a pencil hardness, measured as described in the description, on the first hard coat surface of 5H or more; and (iii) a yellowness index, measured as described in the description, of 3 or less. (i) a total light transmittance, measured as described in the description, of 85% or more; (ii) a pencil hardness, measured as described in the description, on the first hard coat surface of 5H or more; and (iii) a yellowness index, measured as described in the description, of 3 or less.
Movement detection apparatus, comprising a plurality of infrared sensors for detecting movement; and an optical element, which is configured such as to direct infrared radiation impinging onto the movement detection apparatus onto the infrared sensors; wherein the optical element divides a detection region of the movement detection apparatus into a distant region and a close region, in such a way that infrared radiation reaches the infrared sensors either on an optical path from the close region or on an optical path from the distant region, but not along both paths; visual ranges of the infrared sensors in the distant region are spatially separated from one another; and the visual ranges of at least two infrared sensors overlap in the close region. a plurality of infrared sensors for detecting movement; and an optical element, which is configured such as to direct infrared radiation impinging onto the movement detection apparatus onto the infrared sensors; wherein the optical element divides a detection region of the movement detection apparatus into a distant region and a close region, in such a way that infrared radiation reaches the infrared sensors either on an optical path from the close region or on an optical path from the distant region, but not along both paths; visual ranges of the infrared sensors in the distant region are spatially separated from one another; and the visual ranges of at least two infrared sensors overlap in the close region.
A method, comprising: detecting, at an apparatus, that a mode change is required; in response to the detection that a mode change is required, selecting a mode for resource allocation, characterized in that the mode is selected from a plurality of modes for device to device and cellular communications, the plurality of modes comprising a first mode and a second mode, wherein in the first mode the cellular communication and device to device communication are separated in time, and in the second mode the cellular communication and device to device communication take place simultaneously; and sending a resource allocation mode change request to a base station to adapt discontinuous reception and/or discontinuous transmission parameters, the discontinuous reception and/or discontinuous transmission parameters being adapted in accordance with the selected mode. detecting, at an apparatus, that a mode change is required; in response to the detection that a mode change is required, selecting a mode for resource allocation, characterized in that the mode is selected from a plurality of modes for device to device and cellular communications, the plurality of modes comprising a first mode and a second mode, wherein in the first mode the cellular communication and device to device communication are separated in time, and in the second mode the cellular communication and device to device communication take place simultaneously; and sending a resource allocation mode change request to a base station to adapt discontinuous reception and/or discontinuous transmission parameters, the discontinuous reception and/or discontinuous transmission parameters being adapted in accordance with the selected mode.
Laundry treatment apparatus, in particular a condenser dryer, comprising an apparatus cabinet and a removable condensate tank adapted to be inserted into and extracted from the apparatus cabinet, the removable condensate tank comprising: a tank casing, a tank opening in the tank casing for passing condensate therethrough, a filter element adapted to filter the condensate passing through the tank opening from lint, and a mounting arrangement (76, 78, 80; 82) for holding the filter element at or on or in the tank casing in a filter position, wherein the filter element has the filter position and an inactive position, wherein in the filter position the filter element is positioned relative to the tank opening such that the condensate exiting the tank casing is filtered, wherein in the inactive position the filter element is positioned relative to the tank opening such that the condensate entering or exiting through the tank opening is not filtered, wherein in a state where the condensate tank is fully inserted in the apparatus cabinet, the filter element is removed from the filter position and/or in the inactive position relative to the tank opening, and wherein the filter element is connected movably and permanently at or on or in the tank casing by the mounting arrangement (76, 78, 80; 82). a tank casing, a tank opening in the tank casing for passing condensate therethrough, a filter element adapted to filter the condensate passing through the tank opening from lint, and a mounting arrangement (76, 78, 80; 82) for holding the filter element at or on or in the tank casing in a filter position, wherein the filter element has the filter position and an inactive position, wherein in the filter position the filter element is positioned relative to the tank opening such that the condensate exiting the tank casing is filtered, wherein in the inactive position the filter element is positioned relative to the tank opening such that the condensate entering or exiting through the tank opening is not filtered, wherein in a state where the condensate tank is fully inserted in the apparatus cabinet, the filter element is removed from the filter position and/or in the inactive position relative to the tank opening, and wherein the filter element is connected movably and permanently at or on or in the tank casing by the mounting arrangement (76, 78, 80; 82).
A method for preparing a metallocene supported catalyst comprising the steps of supporting two or more kinds of cocatalyst compounds including first and second cocatalyst compounds on a carrier, and then supporting one or more kinds of metallocene compounds, wherein the first cocatalyst compound is a compound represented by the following Chemical Formula 1 and the second cocatalyst compound is diethyl zinc, and the diethyl zinc is supported in the content of 0.1 to 3 mmol/g based on the weight (g) of the carrier, after the first cocatalyst compound is supported: [Chemical Formula 1] -[Al(R a)-O] n - wherein, in Chemical Formula 1, each R a may be identical to or different from each other, and are independently a halogen, a C1-20 hydrocarbon, or a C1-20 hydrocarbon substituted with a halogen; and n is an integer of 2 or more. wherein the first cocatalyst compound is a compound represented by the following Chemical Formula 1 and the second cocatalyst compound is diethyl zinc, and the diethyl zinc is supported in the content of 0.1 to 3 mmol/g based on the weight (g) of the carrier, after the first cocatalyst compound is supported: [Chemical Formula 1] -[Al(R a)-O] n - wherein, in Chemical Formula 1, each R a may be identical to or different from each other, and are independently a halogen, a C1-20 hydrocarbon, or a C1-20 hydrocarbon substituted with a halogen; and n is an integer of 2 or more.
A V-domain Ig Suppressor of T cell Activation (VISTA) antagonist comprising an antibody or antibody fragment thereof for use in the treatment of lung cancer in an individual in need thereof, wherein the antibody or antibody fragment binds to VISTA and enhances an immune response to the lung cancer, and wherein the treatment comprises administering to the individual a therapeutically effective amount of the VISTA antagonist.
A coated component comprising: a ceramic matrix composite, CMC, substrate comprising silicon carbide and having a surface; a mullite bondcoat on the surface of the substrate, wherein the mullite bondcoat comprises an oxygen getter phase contained within a mullite phase, wherein the mullite bondcoat comprises 60% to 98% by volume of the mullite phase, and wherein the oxygen getter phase is a silicon phase comprising elemental silicon; and an environmental barrier coating on the mullite bondcoat, wherein the mullite phase is a continuous phase, and wherein the oxygen getter phase forms a plurality of discrete phases within the mullite phase. a ceramic matrix composite, CMC, substrate comprising silicon carbide and having a surface; a mullite bondcoat on the surface of the substrate, wherein the mullite bondcoat comprises an oxygen getter phase contained within a mullite phase, wherein the mullite bondcoat comprises 60% to 98% by volume of the mullite phase, and wherein the oxygen getter phase is a silicon phase comprising elemental silicon; and an environmental barrier coating on the mullite bondcoat, wherein the mullite phase is a continuous phase, and wherein the oxygen getter phase forms a plurality of discrete phases within the mullite phase.
Method for measuring the thickness (s) of the transparent wall of a container made of thermoplastic material, the container being produced by blowing a hot preform, such that the method is a method for measuring thickness (s) by interferometry which comprises: - a first step of emission, by a light source, of a light ray of continuous spectrum at right angles to the transparent wall of the container, the emitted light ray exhibiting a continuous spectrum of wavelengths which extend over a range of between 0.75 μm and 1.6 μm, that is to say in the infrared range, the emitted ray being partially reflected by the outer face of the wall, thus forming a first reflected ray with continuous spectrum, then the ray transmitted in the wall being partially reflected by the inner face of the wall thus forming a second reflected ray with continuous spectrum; - a second step of spectrometric analysis by an interferometric sensor of the interferences produced by the superpositioning of the first and second reflected rays (R1, R2), the interferences resulting in a beat phenomenon with periodic variation of the light intensity as a function of the frequency (1/λ) of the light wave, the thickness (s) of the wall of the container being able to be calculated as a function of said period of the variation and of the refractive index (n) of the material. - a first step of emission, by a light source, of a light ray of continuous spectrum at right angles to the transparent wall of the container, the emitted light ray exhibiting a continuous spectrum of wavelengths which extend over a range of between 0.75 μm and 1.6 μm, that is to say in the infrared range, the emitted ray being partially reflected by the outer face of the wall, thus forming a first reflected ray with continuous spectrum, then the ray transmitted in the wall being partially reflected by the inner face of the wall thus forming a second reflected ray with continuous spectrum; - a second step of spectrometric analysis by an interferometric sensor of the interferences produced by the superpositioning of the first and second reflected rays (R1, R2), the interferences resulting in a beat phenomenon with periodic variation of the light intensity as a function of the frequency (1/λ) of the light wave, the thickness (s) of the wall of the container being able to be calculated as a function of said period of the variation and of the refractive index (n) of the material.
Device for connecting elevator apparatus guides, wherein said elevator apparatus comprises at least two guides extending in substantially parallel courses, the device comprising: - a first part configured to prevent a movement of each guide in a first direction according to a first course perpendicular to each guide and contained in the plane of the bases thereof, - a second part configured to prevent a movement of at least one guide in a second direction, opposite to the first direction, according to the first course, - connection means configured to fix the relative position between said first part and said second part, characterized in that the first part and the second part comprise at least one flange (7, 8) per part (1, 2), wherein said flanges (7, 8) are configured to secure the bases of said at least two guides by their flanks. - a first part configured to prevent a movement of each guide in a first direction according to a first course perpendicular to each guide and contained in the plane of the bases thereof, - a second part configured to prevent a movement of at least one guide in a second direction, opposite to the first direction, according to the first course, - connection means configured to fix the relative position between said first part and said second part,
A surgical access device adapted to allow a user to control the position of internal structures within a body cavity, comprising a wound retractor comprising a proximal or outer ring adapted for disposition exteriorly of an opening into the body cavity, a distal or inner ring adapted for disposition interiorly of the opening, and a flexible, tubular sheath extending between the proximal or outer ring and the distal or inner ring, the surgical access device further comprising an internal retractor coupled to, or integrated with, the distal or inner ring of the wound retractor in an operative state of the surgical access device, the internal retractor comprising a deformable planar frame, wherein in the operative state, at least a portion of the internal retractor extends distally of the distal or inner ring of the wound retractor into the body cavity and is configured to maintain a planar form to retain internal structures away from an operative site within the body cavity.
An electronic device comprising: a metal case; and an antenna apparatus comprising: an array antenna formed integrally with the metal case of the electronic device, wherein the array antenna includes at least two antenna elements, and wherein the at least two antenna elements are configured to operate in a same frequency band, wherein each of the at least two antenna elements includes a radiation part having a shape of a slot passing through the metal case, and wherein the each of the at least two antenna elements is a patch antenna having a form of a circle, wherein the radiation part is composed of two semicircular slots facing each other. an array antenna formed integrally with the metal case of the electronic device, wherein the array antenna includes at least two antenna elements, and wherein the at least two antenna elements are configured to operate in a same frequency band, wherein each of the at least two antenna elements includes a radiation part having a shape of a slot passing through the metal case, and wherein the each of the at least two antenna elements is a patch antenna having a form of a circle, wherein the radiation part is composed of two semicircular slots facing each other.
A communication method, comprising: receiving, by a terminal device, first indication information, wherein the first indication information is used to indicate M bandwidth parts located in one cell that are configured for a terminal device, N of the M bandwidth parts are active within a same time period, the M bandwidth parts are associated with N bandwidth part groups, the N bandwidth part groups are associated with N HARQ entities, and different bandwidth part groups in the N bandwidth part groups are associated with different HARQ entities, wherein M≥2, 2≤N≤M, and M and N are positive integers; and communicating, by the terminal device, with a network device in the N bandwidth parts, characterised in that the N bandwidth part groups comprise the M bandwidth parts and at least one of the N bandwidth part groups comprises two or more bandwidth parts, and each one of the N active bandwidth parts is located in a different bandwidth part group of the N bandwidth part groups. receiving, by a terminal device, first indication information, wherein the first indication information is used to indicate M bandwidth parts located in one cell that are configured for a terminal device, N of the M bandwidth parts are active within a same time period, the M bandwidth parts are associated with N bandwidth part groups, the N bandwidth part groups are associated with N HARQ entities, and different bandwidth part groups in the N bandwidth part groups are associated with different HARQ entities, wherein M≥2, 2≤N≤M, and M and N are positive integers; and communicating, by the terminal device, with a network device in the N bandwidth parts, characterised in that the N bandwidth part groups comprise the M bandwidth parts and at least one of the N bandwidth part groups comprises two or more bandwidth parts, and each one of the N active bandwidth parts is located in a different bandwidth part group of the N bandwidth part groups.
A fusion protein comprising, from N-terminus to C-terminus: a) a first portion of a Family B G-protein coupled receptor (GPCR) that comprises transmembrane helix -1, TM2 and TM3 of the GPCR; b) a stable protein domain selected from the group consisting of lysozyme, cytochrome b562, flavodoxin, β-lactamase and 70 kDa heat shock ATPase domain; and c) a second portion of the GPCR comprising TM4, TM5, TM6 and TM7 of the GPCR. a) a first portion of a Family B G-protein coupled receptor (GPCR) that comprises transmembrane helix -1, TM2 and TM3 of the GPCR; b) a stable protein domain selected from the group consisting of lysozyme, cytochrome b562, flavodoxin, β-lactamase and 70 kDa heat shock ATPase domain; and c) a second portion of the GPCR comprising TM4, TM5, TM6 and TM7 of the GPCR.