mhurhangee/ep-ind-claims huggingface dataset:
Device for separating an intestine subjected to a pulling force from a structure such as a fatty structure connected to the intestine by means of cutting, wherein the device comprises: - a guide for guiding at least the intestine; and - a cutting member connected to the guide and directed with its cutting edge toward the feed end of the guide, characterized in that the guide comprises a gap arranged therein, the feed end of which is opened, the gap being adapted to guide the separation between the intestine and the fatty structure connected with the intestine from the feed end of the gap. - a guide for guiding at least the intestine; and - a cutting member connected to the guide and directed with its cutting edge toward the feed end of the guide, characterized in that the guide comprises a gap arranged therein, the feed end of which is opened, the gap being adapted to guide the separation between the intestine and the fatty structure connected with the intestine from the feed end of the gap.
A seat which is mounted in the vertical surface between two steps in concrete floor steps in indoor and outdoor sports halls, stadiums and similar places and which has a seat portion and back support portion formed in compliance with human anatomy, said seat comprising a weldless seat-back support connection plate which is formed as one-piece by cutting and bending operation and which provides the connection between the seat portion and the back support portion; and transmission rods which are positioned within the seat portion for reinforcing the same, characterized in comprising an oval seat movement pin housing (3.5) that enables said seat portion to move up and down in the end portion of the said seat-back support connection plate extending towards the seat portion.
A method of producing a diamond-bearing material of varying sizes from the detonation of an explosive formulation with a positive to neutral oxygen balance, comprising the following steps: (a) preparing a charge by blending carbon dioxide (CO 2) and a reducing agent comprising powdered or atomized metal that decomposes said CO 2 exothermically on detonation, wherein the charge is prepared with at least the exact amount of CO 2 needed to match the oxygen demand of the reducing agent, so that the charge has a positive to neutral oxygen balance, with the carbon in the CO 2 not being included in the calculation of oxygen balance; (b) detonating the charge in an environment containing a medium that is inert to carbon, cools the detonation by-products and protects carbon by-products from subsequent chemical decomposition, wherein the reducing agent is oxidized by the CO 2, leaving carbon behind which is compressed into diamond by the force of the detonation; and (c) separating the detonation by-products containing carbon according to particle size and phase. (a) preparing a charge by blending carbon dioxide (CO 2) and a reducing agent comprising powdered or atomized metal that decomposes said CO 2 exothermically on detonation, wherein the charge is prepared with at least the exact amount of CO 2 needed to match the oxygen demand of the reducing agent, so that the charge has a positive to neutral oxygen balance, with the carbon in the CO 2 not being included in the calculation of oxygen balance; (b) detonating the charge in an environment containing a medium that is inert to carbon, cools the detonation by-products and protects carbon by-products from subsequent chemical decomposition, wherein the reducing agent is oxidized by the CO 2, leaving carbon behind which is compressed into diamond by the force of the detonation; and (c) separating the detonation by-products containing carbon according to particle size and phase.
A method for making an expanded polytetrafluoroethylene (PTFE) monofilament, the method comprising: forming a first paste by mixing a PTFE powder with a hydrocarbon solvent, the hydrocarbon solvent being less than 16% by weight of the first paste; curing the first paste by exposing the first paste to a first temperature for a first time duration; forming an extrusion preform by pressing the first paste into a form; forming a green monofilament by extruding the first paste through a die; expanding the green monofilament by exposing the green monofilament to a second temperature for a second time duration, the second time duration occurring after the first time duration; stretching the green monofilament substantially along a longitudinal axis of the green monofilament, the stretching the green monofilament occurring after the expanding the green monofilament; and sintering the green monofilament after the stretching the green monofilament, wherein the expanding, stretching, and sintering are done in a continuous process. forming a first paste by mixing a PTFE powder with a hydrocarbon solvent, the hydrocarbon solvent being less than 16% by weight of the first paste; curing the first paste by exposing the first paste to a first temperature for a first time duration; forming an extrusion preform by pressing the first paste into a form; forming a green monofilament by extruding the first paste through a die; expanding the green monofilament by exposing the green monofilament to a second temperature for a second time duration, the second time duration occurring after the first time duration; stretching the green monofilament substantially along a longitudinal axis of the green monofilament, the stretching the green monofilament occurring after the expanding the green monofilament; and sintering the green monofilament after the stretching the green monofilament, wherein the expanding, stretching, and sintering are done in a continuous process.
Composite pane with an electrical load, comprising an outer pane and an inner pane that are joined to one another via a thermoplastic intermediate layer, wherein • the thermoplastic intermediate layer has a recess that has a receiving opening, • the receiving opening is dimensioned such that it is designed for accommodating the electrical load in the recess, and • the electrical load is arranged in the recess and wherein no connection is provided between the electrical load and the intermediate layer. • the thermoplastic intermediate layer has a recess that has a receiving opening, • the receiving opening is dimensioned such that it is designed for accommodating the electrical load in the recess, and • the electrical load is arranged in the recess
Method for producing an OSB, in which long wood strands coated with an adhesive are scattered in an oriented manner in at least three layers (1, 2, 3), wherein the wood strands in adjoining layers (1, 2, 3) are aligned in an offset manner and then the scattered layers (1, 2, 3) are compressed under high pressure and temperature to form a board of the desired thickness, as a result of which the adhesive melts and cures, comprising the following steps: - scattering a mixture of wood flour and a synthetic resin powder onto an upper side of the top cover layer, - stripping or shaking off the scattered-on mixture so that unevennesses to a depth of 4 mm are filled, - curing the mixture under the influence of pressure and temperature by pressing the mixture into the depressions in the top cover layer, wherein the synthetic resin melts and a uniform surface layer forms, wherein the synthetic resin is melamine resin or phenolic resin and the mixture is scattered on in an amount of at least 80 g/m 2. - scattering a mixture of wood flour and a synthetic resin powder onto an upper side of the top cover layer, - stripping or shaking off the scattered-on mixture so that unevennesses to a depth of 4 mm are filled, - curing the mixture under the influence of pressure and temperature by pressing the mixture into the depressions in the top cover layer, wherein the synthetic resin melts and a uniform surface layer forms,
A network analytics control module comprising processing circuitry configured to: receive three dimensional location information and corresponding signal quality information for a particular asset in an air-to-ground, ATG, network, wherein the three dimensional location information includes information indicative of a specific beam for which the corresponding signal quality information applies, the specific beam being one of a plurality of formable or steerable beams of the ATG network in which the particular asset is located along with bearing and elevation angle from a known fixed location; the processing circuitry being further configured to: make a service quality inference for the particular asset based at least in part on the received information; and provide an instruction for a network control activity based on the service quality inference. receive three dimensional location information and corresponding signal quality information for a particular asset in an air-to-ground, ATG, network, wherein the three dimensional location information includes information indicative of a specific beam for which the corresponding signal quality information applies, the specific beam being one of a plurality of formable or steerable beams of the ATG network in which the particular asset is located along with bearing and elevation angle from a known fixed location; the processing circuitry being further configured to: make a service quality inference for the particular asset based at least in part on the received information; and provide an instruction for a network control activity based on the service quality inference. make a service quality inference for the particular asset based at least in part on the received information; and provide an instruction for a network control activity based on the service quality inference.
An extrusion head for additive manufacturing comprising an enclosure defining a supply chamber, the enclosure including at least one inlet port opening into the supply chamber and configured to receive a material to be extruded under pressure and a plurality of extrusion nozzles, each nozzle being in communication with said supply chamber and opening onto the exterior of the enclosure via an outlet orifice, the nozzles of the plurality of nozzles being arranged adjacent to one another with a determined spacing between each nozzle outlet orifice characterized in that the plurality of nozzles is present on a removable element of the enclosure.
A light-emitting device comprising: a. at least one semiconductor layer, the at least one semiconductor layer comprising an active region, wherein a primary light is generated in the active region; b. a reflective bottom surface, the reflective bottom surface coupled to the at least one semiconductor layer; and c. a top surface, the top surface coupled to the at least one semiconductor layer, the top surface reflecting a first portion of the primary light; wherein the top surface and the reflective bottom surface redirect the primary light in one or more radial directions including directions parallel to a central plane of the active region, characterized in that a distance (x) between the active region and the reflective bottom surface is selected such that there is constructive interference of the primary light from the active region and the primary light reflected by the reflective bottom surface. a. at least one semiconductor layer, the at least one semiconductor layer comprising an active region, wherein a primary light is generated in the active region; b. a reflective bottom surface, the reflective bottom surface coupled to the at least one semiconductor layer; and c. a top surface, the top surface coupled to the at least one semiconductor layer, the top surface reflecting a first portion of the primary light;
A method for controlling output of content 110, the method comprising: determining, by a mobile phone 104, one or more output parameters of a media rendering device 108; requesting by the mobile phone 104, a content list 150 from a gateway processor 152 for content 110 stored at a content processor 124; receiving, by the mobile phone 104, the content list 150; receiving, by a mobile phone 104, a request 140 for content 110 in the content list 150; generating, by the mobile phone 104, a command 166 based on the request 140, the command 166 including a URL 156, the URL 156 including an identification of the output parameters of the media rendering device 108 and a domain of the gateway processor 152; and sending, by the mobile phone 104, the command 166 to the media rendering device 108. determining, by a mobile phone 104, one or more output parameters of a media rendering device 108; requesting by the mobile phone 104, a content list 150 from a gateway processor 152 for content 110 stored at a content processor 124; receiving, by the mobile phone 104, the content list 150; receiving, by a mobile phone 104, a request 140 for content 110 in the content list 150; generating, by the mobile phone 104, a command 166 based on the request 140, the command 166 including a URL 156, the URL 156 including an identification of the output parameters of the media rendering device 108 and a domain of the gateway processor 152; and sending, by the mobile phone 104, the command 166 to the media rendering device 108.
A method for making a ceramic block consisting essentially of substantially homogeneous (Y 2 O 3) x ·P 2 O 5, where 0.95 ≤ x ≤ 1.05, having a length LL, a width WW and a height HH, and a volume VV of at least 8x10 -3 m 3, essentially free of cracks throughout the volume, a density of at least 85% of the theoretical maximal density of Y 2 O 3 ·P 2 O 5 under standard conditions, and a creep rate at 1250°C and 6.89 MPa of CR, where CR ≤ 8.0x10 -6 hour -1, comprising the following steps: providing a dry powder of Y 2 O 3 and a dry powder of P 2 O 5; mixing the powder of Y 2 O 3 and the powder of P 2 O 5 to obtain a uniform powder mixture; sintering the powder mixture obtained in step in a first furnace to obtain a precursor ceramic material having a composition (Y 2 O 3) x ·P 2 O 5; crushing the precursor ceramic material obtained in step to obtain a plurality of particles; forming a first green body having a volume larger than VV, of the ceramic block by mixing uniformly the plurality of particles obtained in step with an organic binder; isopressing the first green body obtained in step at a pressure of at least 50 MPa to obtain a second green body having a density at standard conditions of at least 60% of the theoretical maximal density of Y 2 O 3 ·P 2 O 5 under standard conditions; and heating the second green body in a second furnace to a temperature of at least 1500°C, wherein step comprises: (VII.1) increasing the temperature of the furnace from 200°C to 1500°C at an average temperature elevation rate of not higher than 50°C/hour; and (VII.2) maintaining the temperature of the furnace at over 1500°C for at least 100 hours. providing a dry powder of Y 2 O 3 and a dry powder of P 2 O 5; mixing the powder of Y 2 O 3 and the powder of P 2 O 5 to obtain a uniform powder mixture; sintering the powder mixture obtained in step in a first furnace to obtain a precursor ceramic material having a composition (Y 2 O 3) x ·P 2 O 5; crushing the precursor ceramic material obtained in step to obtain a plurality of particles; forming a first green body having a volume larger than VV, of the ceramic block by mixing uniformly the plurality of particles obtained in step with an organic binder; isopressing the first green body obtained in step at a pressure of at least 50 MPa to obtain a second green body having a density at standard conditions of at least 60% of the theoretical maximal density of Y 2 O 3 ·P 2 O 5 under standard conditions; and heating the second green body in a second furnace to a temperature of at least 1500°C, wherein step comprises: (VII.1) increasing the temperature of the furnace from 200°C to 1500°C at an average temperature elevation rate of not higher than 50°C/hour; and (VII.2) maintaining the temperature of the furnace at over 1500°C for at least 100 hours. (VII.1) increasing the temperature of the furnace from 200°C to 1500°C at an average temperature elevation rate of not higher than 50°C/hour; and (VII.2) maintaining the temperature of the furnace at over 1500°C for at least 100 hours.
Sealing arrangement for a gas turbine, comprising a first component made at least partially from ceramic fiber composite materials, a second component made at least partially from ceramic fiber composite materials, a sealing element which is received between the first component and the second component, wherein the sealing element is designed as a sealing strip, particularly as a fabric hose made of metallic and/or ceramic materials, wherein at least one depression receiving the sealing element is formed on the first component and/or on the second component, wherein the at least one depression has a sectional profile with an inner section which is concave toward the sealing element, characterized in that the inner section has a radius of curvature and that the at least one depression is formed by continuously curving ceramic fibers of the ceramic fiber composite material.
Stand-up packaging for food products comprising: - at least one first pouch for carrying a food product, - an outer packaging having two cover elements (31, 32) at least partially sandwiching the first pouch, and - at least one further element being at least partially sandwiched between the first pouch and one of the cover elements, wherein the further element is penetrated by a through hole, wherein the one cover element is glued to the first pouch via the through hole, characterized in that: said stand-up packaging comprises at least one second pouch for carrying a food product, wherein the second pouch is directly glued not via a through hole to at least one of the cover elements (31, 32) or the further element; and wherein the second pouch is at least partially sandwiched between the first pouch and the outer packaging, preferably the other cover element or the further element, or wherein the second pouch is at least partially sandwiched between one of the cover elements (31, 32) or the further element, to which it is directly glued to, on the one hand and the corresponding other one of the one of the cover elements (31, 32) or the further element, to which it is not directly glued to, on the other hand; and wherein the outer packaging further comprises a flat base element for supporting the stand-up packaging, wherein the base element is preferably integrally formed with at least one of the cover elements (31, 32) and/or the further element and further preferably covers bottom regions of all pouches (21, 22, 22', 22"). - at least one first pouch for carrying a food product, - an outer packaging having two cover elements (31, 32) at least partially sandwiching the first pouch, and - at least one further element being at least partially sandwiched between the first pouch and one of the cover elements, wherein the further element is penetrated by a through hole, wherein the one cover element is glued to the first pouch via the through hole, said stand-up packaging comprises at least one second pouch for carrying a food product, wherein the second pouch is directly glued not via a through hole to at least one of the cover elements (31, 32) or the further element; and wherein the second pouch is at least partially sandwiched between the first pouch and the outer packaging, preferably the other cover element or the further element, or wherein the second pouch is at least partially sandwiched between one of the cover elements (31, 32) or the further element, to which it is directly glued to, on the one hand and the corresponding other one of the one of the cover elements (31, 32) or the further element, to which it is not directly glued to, on the other hand; and wherein the outer packaging further comprises a flat base element for supporting the stand-up packaging, wherein the base element is preferably integrally formed with at least one of the cover elements (31, 32) and/or the further element and further preferably covers bottom regions of all pouches (21, 22, 22', 22").
Device for treating a product with microwaves, wherein the device comprises a treatment chamber in which the product can be arranged, and a microwave-radiating apparatus, which can be used to radiate microwaves injected into the microwave-radiating apparatus, arranged in the treatment chamber, which microwaves act on the product, wherein the microwave-radiating apparatus comprises a coaxial conductor projecting into the treatment chamber, with an electrically conductive inner conductor and with an electrically conductive outer conductor, wherein the outer conductor surrounds the inner conductor at a distance in a coaxially arranged manner and comprises at least one opening that allows microwaves to be radiated through the opening on to the product, wherein a hollow cylindrical dielectric solid, the permittivity of which is greater than the permittivity of air, is arranged in an inner chamber between the inner conductor and the outer conductor, and the opening in the outer conductor is oriented towards the product, and the microwave radiation issuing from the coaxial conductor is directed on to the product, characterised in that the dielectric solid comprises an inwardly projecting or outwardly protruding formation in the region of the at least one opening.
A RF envelope amplitude control system, the system comprising: a RF amplifier configured to receive a RF input signal and to output a RF output signal, wherein said RF amplifier is associated with a feedback device that is configured to create a first feedback signal representing the power in said RF output signal; a transmit waveform generator configured to generate a reference waveform signal; an adaptive table waveform generator configured to compare said reference waveform signal and said first feedback signal and to create a second feedback signal based on the difference between said reference waveform signal and said first feedback signal; and a loop filter configured to combine said reference waveform signal, said first feedback signal, and said second feedback signal to form an amplifier control signal, wherein said amplifier control signal is provided to said RF amplifier to adjust said RF output signal to conform to a specified RF envelope. a RF amplifier configured to receive a RF input signal and to output a RF output signal, wherein said RF amplifier is associated with a feedback device that is configured to create a first feedback signal representing the power in said RF output signal; a transmit waveform generator configured to generate a reference waveform signal; an adaptive table waveform generator configured to compare said reference waveform signal and said first feedback signal and to create a second feedback signal based on the difference between said reference waveform signal and said first feedback signal; and a loop filter configured to combine said reference waveform signal, said first feedback signal, and said second feedback signal to form an amplifier control signal, wherein said amplifier control signal is provided to said RF amplifier to adjust said RF output signal to conform to a specified RF envelope.