mhurhangee/ep-ind-claims huggingface dataset:
A system comprising an exhaust pipe connected to a diesel engine, and a ceramic honeycomb filter disposed in the exhaust pipe, the ceramic honeycomb filter having: large numbers of flow paths (3, 4) partitioned by porous cell walls, and plugs (6a, 6c) alternately formed in said flow paths (3, 4) on exhaust-gas-inlet and outlet sides, wherein porous cross-linked structures are formed by heat-resistant particles introduced together with a gas into penetrating holes constituted by communicating pores in said cell walls, such that they clog said penetrating holes, characterised in that the area ratio of pores opening at the cell wall surfaces in the outlet-side-sealed flow paths near the exhaust-gas-outlet-side end is 20% or more, and said cross-linked structures are formed more on the exhaust-gas-outlet side of said ceramic honeycomb filter than on the exhaust-gas-inlet side at which exhaust gas from the diesel engine enters. large numbers of flow paths (3, 4) partitioned by porous cell walls, and plugs (6a, 6c) alternately formed in said flow paths (3, 4) on exhaust-gas-inlet and outlet sides, wherein porous cross-linked structures are formed by heat-resistant particles introduced together with a gas into penetrating holes constituted by communicating pores in said cell walls, such that they clog said penetrating holes, characterised in that the area ratio of pores opening at the cell wall surfaces in the outlet-side-sealed flow paths near the exhaust-gas-outlet-side end is 20% or more, and said cross-linked structures are formed more on the exhaust-gas-outlet side of said ceramic honeycomb filter than on the exhaust-gas-inlet side at which exhaust gas from the diesel engine enters.
A linear encoder comprising: a substantially rectilinear section-bar which is adapted to be fixed on the structure of the machine tool; a substantially rectilinear scale strip which is fixed on the section-bar so as to extend along said section-bar parallel to the section-bar longitudinal axis; a movable slider which is fitted/mounted on the section-bar so as to be able to move along the section-bar parallel to the section-bar longitudinal axis and skimming the scale strip, and which is adapted to be rigidly fixed to the movable piece of the machine tool; an electronic reading apparatus which is at least partially located aboard the movable slider and is adapted to read the position of the movable slider on the scale strip; and an active thermal-stabilization device; said linear encoder being characterized in that the active thermal-stabilization device is adapted to bring and maintain substantially the whole scale strip stably at a predetermined target temperature (T 0); wherein the section-bar is longitudinally divided into a series of sample sectors, each of which hosts a respective sample section of the scale strip; the thermal-stabilization device being structured so as to selectively and independently heat and/or cool the individual sample sectors of the section-bar, to maintain the temperature of each sample section of the scale strip around said target temperature (T 0).
A conjugate comprising an IL-21 mutein and an anti-PD-1 antibody, wherein the IL-21 mutein comprises the amino acid sequence of SEQ ID NO: 2, wherein "X" represents any amino acid, and wherein said IL-21 mutein amino acid sequence differs from the amino acid sequence of human IL-21 (SEQ ID NO: 1) by at least 1 amino acid. wherein "X" represents any amino acid, and wherein said IL-21 mutein amino acid sequence differs from the amino acid sequence of human IL-21 (SEQ ID NO: 1) by at least 1 amino acid.
A coating for a CoCrMo substrate comprising: a first layer comprising Ta(CoCrMo) 0.5 - 2.0; a second layer comprising tantalum; a third layer comprising tantalum carbide; and a fourth layer comprising diamond-like carbon; wherein the tantalum of the second layer comprises alpha- tantalum; wherein: the first layer, the second layer, and the third layer each has an oxygen content lower than 5 atomic %; and/or, the second layer is doped with tungsten, niobium and/or titanium. a first layer comprising Ta(CoCrMo) 0.5 - 2.0; a second layer comprising tantalum; a third layer comprising tantalum carbide; and a fourth layer comprising diamond-like carbon; wherein the tantalum of the second layer comprises alpha- tantalum; wherein: the first layer, the second layer, and the third layer each has an oxygen content lower than 5 atomic %; and/or, the second layer is doped with tungsten, niobium and/or titanium. the first layer, the second layer, and the third layer each has an oxygen content lower than 5 atomic %; and/or, the second layer is doped with tungsten, niobium and/or titanium.
An ultrasonic clamp coagulator apparatus comprising: a housing; an outer tube having a proximal end joined to said housing, and a distal end; an ultrasonic waveguide positioned within said outer tube, said ultrasonic waveguide having an end-effector comprising a blade extending distally from said distal end of said outer tube; and said blade having an ultrasonically actuated motion in substantially a single actuation plane, wherein said blade is curved in said actuation plane, wherein the bottom surface of said blade comprises a spherical cut that provides a sharp edge, wherein said spherical cut extends proximally along said blade from the distal end of said blade, wherein the length of said spherical cut is defined such that the excursion of said end-effector along a plane orthogonal to said single actuation plane is limited to less than 15 %. a housing; an outer tube having a proximal end joined to said housing, and a distal end; an ultrasonic waveguide positioned within said outer tube, said ultrasonic waveguide having an end-effector comprising a blade extending distally from said distal end of said outer tube; and said blade having an ultrasonically actuated motion in substantially a single actuation plane, wherein said blade is curved in said actuation plane, wherein the bottom surface of said blade comprises a spherical cut that provides a sharp edge, wherein said spherical cut extends proximally along said blade from the distal end of said blade, wherein the length of said spherical cut is defined such that the excursion of said end-effector along a plane orthogonal to said single actuation plane is limited to less than 15 %.
Double glazing system, comprising a first sheet of glass, a second sheet of glass, a spacer element comprising a first surface for coupling with the first sheet of glass and a second surface for coupling with the second sheet of glass, a blind, or a screen, or the like, said spacer element being made from low thermally conductive material comprising rubber and/or silicone foam and/or the like, said spacer element comprising support means, inside the double glazing system, for said blind, screen or the like, said support means comprising a housing made up of a substantially "T"-shaped groove made in a surface perpendicular to said first surface and to said second surface, whereby said support means comprise two lateral sections (13a,13b) for guiding said blind, screen or the like having respective substantially "T"-shaped portions and being able to be engaged in said housing, characterised in that said lateral guiding sections (13a, 13b) comprising respective free ends for supporting respective end portions of said blind, screen or the like.
A system, comprising: an automatic darkening filter, wherein the automatic darkening filter comprises a protective helmet; a switchable filter mounted in the helmet that changes from a light state to a dark state in response to a dark state command message; a power controller that provides power to a tool in response to an activate tool command; a communication unit that generates the dark state command message in response to a tool activation signal, and generates the activate tool command after a dark state wait time has elapsed; wherein the switchable filter is uniquely associated with the communication unit via at least one unique identity code transmitted in the dark state command message; and wherein the communication unit repeats the dark state command message one or more times during the dark state wait time. an automatic darkening filter, wherein the automatic darkening filter comprises a protective helmet; a switchable filter mounted in the helmet that changes from a light state to a dark state in response to a dark state command message; a power controller that provides power to a tool in response to an activate tool command; a communication unit that generates the dark state command message in response to a tool activation signal, and generates the activate tool command after a dark state wait time has elapsed; wherein the switchable filter is uniquely associated with the communication unit via at least one unique identity code transmitted in the dark state command message; and wherein the communication unit repeats the dark state command message one or more times during the dark state wait time.
An inlet air fogging system for a gas turbine engine, comprising: a bellmouth; a fogging nozzle array, wherein a flow of air passes from the fogging nozzle array to the bellmouth and wherein the fogging nozzle array is configured to inject droplets into the flow of air; and a fogging control system in communication with the fogging nozzle array; the fogging control system comprising a droplet size measurement system and a humidity level measurement system; wherein the droplet size measurement system is positioned about the bellmouth and configured to measure a droplet size distribution of the droplets at the bellmouth; and wherein the humidity level measurement system is positioned about the bellmouth and configured to measure a humidity level and moisture fraction at the bellmouth. a bellmouth; a fogging nozzle array, wherein a flow of air passes from the fogging nozzle array to the bellmouth and wherein the fogging nozzle array is configured to inject droplets into the flow of air; and a fogging control system in communication with the fogging nozzle array; the fogging control system comprising a droplet size measurement system and a humidity level measurement system; wherein the droplet size measurement system is positioned about the bellmouth and configured to measure a droplet size distribution of the droplets at the bellmouth; and wherein the humidity level measurement system is positioned about the bellmouth and configured to measure a humidity level and moisture fraction at the bellmouth.
A heat exchanger comprising a plurality of rows of heat transfer tubes arranged next to one another in an air flow direction, and a plurality of headers each connected to an end of an associated one of the plurality of rows of heat transfer tubes, characterised in that among the plurality of headers, an upstream-most header arranged on a most upstream side in the air flow direction is arranged such that a center position of the upstream-most header is displaced upstream from a center position of an upstream-most heat transfer tube in the air flow direction in order that the upstream-most header is spaced apart from an adjacent heat transfer tube of a row adjacent to the upstream-most heat transfer tube to which the upstream-most header is connected, and/or among the plurality of headers, a downstream-most header arranged on a most downstream side in the air flow direction is arranged such that a center position of the downstream-most header is displaced downstream from a center position of a downstream-most heat transfer tube in the air flow direction in order that the downstream-most header is spaced apart from an adjacent flat tube of a row adjacent to the downstream-most heat transfer tube to which the downstream-most header is connected. among the plurality of headers, an upstream-most header arranged on a most upstream side in the air flow direction is arranged such that a center position of the upstream-most header is displaced upstream from a center position of an upstream-most heat transfer tube in the air flow direction in order that the upstream-most header is spaced apart from an adjacent heat transfer tube of a row adjacent to the upstream-most heat transfer tube to which the upstream-most header is connected, and/or among the plurality of headers, a downstream-most header arranged on a most downstream side in the air flow direction is arranged such that a center position of the downstream-most header is displaced downstream from a center position of a downstream-most heat transfer tube in the air flow direction in order that the downstream-most header is spaced apart from an adjacent flat tube of a row adjacent to the downstream-most heat transfer tube to which the downstream-most header is connected.
A method of a wireless terminal device of a wireless communication system, wherein the wireless terminal device is arranged to operate according to a plurality of radio access technologies, RATs, the method comprising: receiving a configuration from a network node of an access network of the wireless communication system, wherein the configuration is a multi-connectivity configuration arranged to operate towards a plurality of RATs simultaneously; determining capabilities of the wireless terminal device; analysing the received configuration in view of the capabilities, wherein the method is characterized by: determining that the capabilities are not fully sufficient for the received configuration and determining an adapted configuration for setting up transceiver operation of the wireless terminal device, wherein the capabilities are fully sufficient for the adapted configuration; and operating the wireless terminal device according to selected transceiver operation, wherein the determination of the adapted configuration comprises determining a prioritized transmission and reception action for the multi-connectivity where the prioritized transmission and reception action comprises selecting a RAT to use, and proper operation mode within specifications for that RAT, for transmission and reception. receiving a configuration from a network node of an access network of the wireless communication system, wherein the configuration is a multi-connectivity configuration arranged to operate towards a plurality of RATs simultaneously; determining capabilities of the wireless terminal device; analysing the received configuration in view of the capabilities, wherein the method is characterized by: determining that the capabilities are not fully sufficient for the received configuration and determining an adapted configuration for setting up transceiver operation of the wireless terminal device, wherein the capabilities are fully sufficient for the adapted configuration; and operating the wireless terminal device according to selected transceiver operation, wherein the determination of the adapted configuration comprises determining a prioritized transmission and reception action for the multi-connectivity where the prioritized transmission and reception action comprises selecting a RAT to use, and proper operation mode within specifications for that RAT, for transmission and reception. determining that the capabilities are not fully sufficient for the received configuration and determining an adapted configuration for setting up transceiver operation of the wireless terminal device, wherein the capabilities are fully sufficient for the adapted configuration; and operating the wireless terminal device according to selected transceiver operation, wherein the determination of the adapted configuration comprises determining a prioritized transmission and reception action for the multi-connectivity where the prioritized transmission and reception action comprises selecting a RAT to use, and proper operation mode within specifications for that RAT, for transmission and reception.
Method for joining paper material (2, 3) at a first joining area and a second joining area, comprising the steps: - moistening the first joining area and/or the second joining area and - joining the first and the second joining area (20, 30) between a sonotrode and an anvil of an ultrasonic friction welding device by means of ultrasonic friction welding, wherein a direction of oscillation of the sonotrode is not parallel to a direction of joining force of a joining force of the anvil, characterized in that the method comprises the step: - roughening of the first joining area (20 and/or the second joining area. - moistening the first joining area and/or the second joining area and - joining the first and the second joining area (20, 30) between a sonotrode and an anvil of an ultrasonic friction welding device by means of ultrasonic friction welding, wherein a direction of oscillation of the sonotrode is not parallel to a direction of joining force of a joining force of the anvil, characterized in that the method comprises the step: - roughening of the first joining area (20 and/or the second joining area.
Permanent magnet quenching device for quenching arcs in the contact system of load interrupters in gas-insulated switchgear assemblies, which permanent magnet quenching device comprises a permanent magnet provided with magnet yoke means (11, 12), a ring element which supports the permanent magnet at the outer edge and has an arc movement path, which faces the arc produced when the contact system comprising fixed and moving contacts (1, 2) is opened and can be DC-connected to a fixed contact of the contact system via retaining clips, as well as an insulating protective cover, characterized in that the protective cover is in the form of an integral insulating material sheath which covers, apart from the arc movement path, all of the free outer surfaces of the permanent magnet quenching device, without any gaps, and fixes the individual component parts thereof in their predetermined position precisely and permanently in a form-fitting manner.
A method of modifying a radio bearer for a user equipment by a distribution unit, DU, of a base station in a wireless communication system, the method comprising: determining a plurality of radio bearers for which modification is to be requested for the user equipment; transmitting, to a central unit, CU, of the base station, a first message requesting modification of the plurality of radio bearers, wherein the first message comprises radio bearer identifiers corresponding to the plurality of radio bearers that are requested to be modified; based on successful radio bearer modification by the CU: receiving, from the CU, a second message comprising a list of radio bearer identifiers corresponding to the at least one accepted radio bearer, from among the plurality of radio bearers, that has been accepted by the CU for modification; and based on receiving the second message: modifying the at least one accepted radio bearer; characterised by: based on unsuccessful radio bearer modification by the CU: receiving, from the CU, information regarding a failure cause. determining a plurality of radio bearers for which modification is to be requested for the user equipment; transmitting, to a central unit, CU, of the base station, a first message requesting modification of the plurality of radio bearers, wherein the first message comprises radio bearer identifiers corresponding to the plurality of radio bearers that are requested to be modified; based on successful radio bearer modification by the CU: receiving, from the CU, a second message comprising a list of radio bearer identifiers corresponding to the at least one accepted radio bearer, from among the plurality of radio bearers, that has been accepted by the CU for modification; and based on receiving the second message: modifying the at least one accepted radio bearer; characterised by: based on unsuccessful radio bearer modification by the CU: receiving, from the CU, information regarding a failure cause.
Method for the determination of the binding properties of at least one first chemical compound to at least one second chemical compound between a free essentially dissociated state and a bound essentially associated state by using nuclear magnetic resonance measurements, wherein at least one of the first chemical compound or the second chemical compound comprises two coupled 1/2 spins in inequivalent molecular sites wherein the relaxation of a long-lived state of the spin pair is measured as a function of the concentration of at least one of said first chemical compound or second chemical compound for the determination of the dissociation equilibrium constant (K D) between the free state and the bound state, and wherein the dissociation constant K D of the equilibrium between the free state and the bound state K D = P ⋅ L PL = k off k on is determined based on the time constant R A o b s of the relaxation of the long-lived state of the spin pairs and on the following relationship R A obs = P 0 L 0 + K D ⋅ R A b - R A f + R A f where A = LLS, 1 or 2, R A b and R A b are the rates for the bound and free ligand, and where 0 and 0 are the total protein and ligand concentration.
A process of preparing a canola protein concentrate, which comprises: (a) adding a calcium salt to supernatant from the precipitation of canola protein micellar mass to provide a conductivity of 5 to 30 mS/cm to form a calcium phytate precipitate (b) removing precipitated calcium phytate from the resulting solution to provide a clear solution, (c) adjusting the pH of the clear solution to 2.0 to 4.0 to form a pH-adjusted clear solution, (d) concentrating, using a selective membrane technique using ultrafiltration using membranes having a molecular weight cut off of 3,000 to 100,000 u (Daltons), the pH-adjusted clear solution to a protein concentration of between 50 g/L and 100 g/L to form a clear concentrated canola protein solution, (e) optionally diafiltering the clear concentrated canola protein solution, (f) optionally effecting a colour removal step on the optionally diafiltered clear concentrated canola protein solution, and (g) drying the optionally decoloured and optionally diafiltered clear concentrated protein solution, wherein said concentration and optional diafiltration step are effected in such manner that the dried canola protein concentrate contains 60 to less than 90 wt% (N × 6.25) protein on a dry weight basis. (a) adding a calcium salt to supernatant from the precipitation of canola protein micellar mass to provide a conductivity of 5 to 30 mS/cm to form a calcium phytate precipitate (b) removing precipitated calcium phytate from the resulting solution to provide a clear solution, (c) adjusting the pH of the clear solution to 2.0 to 4.0 to form a pH-adjusted clear solution, (d) concentrating, using a selective membrane technique using ultrafiltration using membranes having a molecular weight cut off of 3,000 to 100,000 u (Daltons), the pH-adjusted clear solution to a protein concentration of between 50 g/L and 100 g/L to form a clear concentrated canola protein solution, (e) optionally diafiltering the clear concentrated canola protein solution, (f) optionally effecting a colour removal step on the optionally diafiltered clear concentrated canola protein solution, and (g) drying the optionally decoloured and optionally diafiltered clear concentrated protein solution,