mhurhangee/ep-ind-claims huggingface dataset:
Plastics refractory material or refractory mortar, which hardens when dried and contains at least one lightweight filler, a binder, fibres and/or wollastonite, and water, wherein blown closed-cell volcanic ash that is provided with a superficial waterproof layer is used as the lightweight filler, wherein an inorganic-organic hybrid binder that contains silica and an organic polymer is used as the binder, wherein the hybrid binder contains particles, which in turn are composed of amorphous silica particles that contain an acrylate-based polymer as the binder, and wherein the material or mortar contains kaolin or kaolinite and silicon dioxide, wherein a modified siliceous earth is used that contains the silica-kaolinite particles and of which the surface is coated with a wetting agent, in particular a silane, wherein the plastics refractory material or the refractory mortar has the following composition: lightweight filler 20 to 40 wt.% hybrid binder 1 to 6 wt.% fibres 2 to 8 wt.%, modified siliceous earth 3 to 15 wt.% rest water.
A staple cartridge assembly, comprising: a cartridge body comprising a deck; staples removably stored in said cartridge body; and an implantable layer assembly (4030, 4130, 4530, 4630, 4730) positioned over said deck, comprising: a first layer; a second layer; and a bonding layer positioned intermediate said first layer and said second layer, wherein said bonding layer is comprised of a meltable material having a threshold melt temperature, and wherein said implantable layer assembly has been previously exposed to a temperature at least equaling said threshold melt temperature such that said bonding layer is bonded with at least one of said first layer and said second layer; characterized in that said first layer is comprised of a first material having a first melt temperature which is greater than said threshold melt temperature, and wherein said first layer has not been melted. a cartridge body comprising a deck; staples removably stored in said cartridge body; and an implantable layer assembly (4030, 4130, 4530, 4630, 4730) positioned over said deck, comprising: a first layer; a second layer; and a bonding layer positioned intermediate said first layer and said second layer, wherein said bonding layer is comprised of a meltable material having a threshold melt temperature, and wherein said implantable layer assembly has been previously exposed to a temperature at least equaling said threshold melt temperature such that said bonding layer is bonded with at least one of said first layer and said second layer; a first layer; a second layer; and a bonding layer positioned intermediate said first layer and said second layer, wherein said bonding layer is comprised of a meltable material having a threshold melt temperature, and wherein said implantable layer assembly has been previously exposed to a temperature at least equaling said threshold melt temperature such that said bonding layer is bonded with at least one of said first layer and said second layer; characterized in that said first layer is comprised of a first material having a first melt temperature which is greater than said threshold melt temperature, and wherein said first layer has not been melted.
A method for a part load CO reduction operation and a low-CO emissions operation of a gas turbine with sequential combustion, wherein the gas turbine comprises at least one compressor, a first combustor which is connected downstream to the compressor, and the hot gases of the first combustor are admitted to a second combustor without an high pressure turbine arranged between the first combustor and the second combustor, wherein the hot gases of the second combustor are admitted to a turbine, wherein at least one between the first combustor and the second combustor runs under a caloric combustion path having a can-architecture, and the other between the first combustor and the second combustor runs under a caloric combustion path having an annular architecture or a can-architecture and wherein the air ratio (λ) of the combustion at least of the second combustor is kept below a maximum air ratio (λ max) and wherein dilution air is injected between the first combustor and the second combustor using a valve in order to control the inlet temperature of the second combustor and therefore the self-ignition time of the fuel injected therein.
Semiconductor component comprising a semiconductor chip having a first semiconductor layer and a second semiconductor layer, which is arranged adjacent to said first semiconductor layer and is applied on a substrate, wherein the first semiconductor layer is arranged between the substrate and the second semiconductor layer or the first semiconductor layer is arranged on the opposite side of the second semiconductor layer relative to the substrate, the second semiconductor layer contains an electroluminescent region which emits light having a wavelength λ E, and the first semiconductor layer has a band gap which is smaller than the band gap of the electroluminescent region and absorbs part of the light and re-emits light having a longer wavelength λ R, the electroluminescent region emits visible light of a first colour having the wavelength λ E, the first semiconductor layer re-emits visible light of a second colour, different from the first, having the wavelength λ R, which light is emitted by the semiconductor component together with the light of the first colour, and the semiconductor component is a semiconductor component for generating mixed-coloured light, wherein the first semiconductor layer has states within the band gap which participate in the re-emission, wherein the states within the band gap are introduced in a targeted manner, as a result of which the ratio between the intensity of the radiation emitted by the first semiconductor layer and the radiation emitted by the second semiconductor layer is set, wherein a contact of first semiconductor layer or second semiconductor layer and substrate is produced by wafer bonding.
A furniture drive system for a furniture part movably-supported on a furniture carcass, including: - a mechanical actuating unit with: - at least one pivotally mounted actuating arm for moving the movable furniture part, - a spring device for applying a force to the actuating arm, - a movably-mounted actuating portion having a transmission opening for transmitting a force from the spring device to the actuating arm, - an electrical drive unit with: - an electric motor for the electromotive support of a movement of the movable furniture part, - an entrainment member configured to be driven by the electric motor for transmitting a torque from the electric motor to the mechanical actuating unit, wherein the entrainment member of the electrical drive unit can be engaged into the transmission opening of the actuating portion, wherein the electrical drive unit and the mechanical actuating unit are configured as separate constructional units which can be fixed to one another, characterized in that an abutment surface for the entrainment member is arranged laterally besides the transmission opening, and that the entrainment member is pre-stressed by an energy storage member in a direction towards the abutment surface, wherein the entrainment member in a position, in which the entrainment member is aligned flush with the transmission opening, automatically penetrates into the transmission opening by a force of the energy storage member. - a mechanical actuating unit with: - at least one pivotally mounted actuating arm for moving the movable furniture part, - a spring device for applying a force to the actuating arm, - a movably-mounted actuating portion having a transmission opening for transmitting a force from the spring device to the actuating arm, - at least one pivotally mounted actuating arm for moving the movable furniture part, - a spring device for applying a force to the actuating arm, - a movably-mounted actuating portion having a transmission opening for transmitting a force from the spring device to the actuating arm, - an electrical drive unit with: - an electric motor for the electromotive support of a movement of the movable furniture part, - an entrainment member configured to be driven by the electric motor for transmitting a torque from the electric motor to the mechanical actuating unit, wherein the entrainment member of the electrical drive unit can be engaged into the transmission opening of the actuating portion, - an electric motor for the electromotive support of a movement of the movable furniture part, - an entrainment member configured to be driven by the electric motor for transmitting a torque from the electric motor to the mechanical actuating unit, wherein the entrainment member of the electrical drive unit can be engaged into the transmission opening of the actuating portion,
Method for determining a clamping force of a brake device of a motor vehicle, wherein the motor vehicle has at least one rotatably mounted wheel and a brake system having at least one brake device and at least one electric motor, wherein the brake device has a brake element co-rotationally connected to the wheel, and at least one brake body which is able to be pressed against the brake element, wherein the electric motor has a motor winding and a rotatably mounted rotor, wherein the rotor is coupled by a gear device to the brake body in such a manner that, by rotating the rotor, a clamping force (F Spann) by which the brake body is pressed against the brake element is able to be generated, whereby the rotor is rotatable by impinging the motor winding with an electric motor current (I Mot), wherein a rotation angle (φ) of the rotor and/or a displacement travel of a displaceably mounted element of the gear device are/is determined, wherein a size of the generated clamping force (F Spann) is determined as a function of the rotation angle (φ) and/or the displacement travel, wherein a size of the motor current (I Mot) is determined, and wherein the size of the clamping force (F Spann) is determined as a function of the size of the motor current (I Mot), characterized in that it is monitored whether there is a correction situation in which the brake device and/or the electric motor are/is in a static state, in that only if the correction situation is present, a corrected rotation angle (φ korr) is determined as a function of the size of the motor current (I Mot) on the one hand and the determined rotation angle (φ) on the other hand, and the size of the clamping force (F Spann) is determined as a function of the corrected rotation angle (φ korr), and/or in that only when the correction situation is present, a corrected displacement travel is determined as a function of the size of motor current (I Mot) on the one hand and the determined displacement travel on the other hand, and the clamping force (F Spann) is determined as a function of the corrected displacement travel.
A method, comprising: in a communication system comprising endpoints that connect to one another using cable channels, injecting an Alternating Current test signal to a cable channel, which has first and second ends and is potentially connected to a first endpoint at the first end and to a second endpoint at the second end; performing one or more serial measurements on the cable channel, by sensing the AC test signal over a resonant circuit, which is inserted in series with the cable and which has a resonance frequency that matches a frequency of the AC test signal so as to sense the test signals; and based on the serial measurements, deciding which of the first and second endpoints are indeed connected to the cable channel. in a communication system comprising endpoints that connect to one another using cable channels, injecting an Alternating Current test signal to a cable channel, which has first and second ends and is potentially connected to a first endpoint at the first end and to a second endpoint at the second end; performing one or more serial measurements on the cable channel, by sensing the AC test signal over a resonant circuit, which is inserted in series with the cable and which has a resonance frequency that matches a frequency of the AC test signal so as to sense the test signals; and based on the serial measurements, deciding which of the first and second endpoints are indeed connected to the cable channel.
A liquid washing agent containing, based on the total weight of the liquid washing agent, (i) 5 to 30 wt.%, preferably 10 to 30 wt.%, in particular 15 to 25 wt.%, of at least one hydroxycarboxylic acid having 2 to 8 carbon atoms and (ii) 15 to 55 wt.%, preferably 20 to 55 wt.%, in particular 35 to 50 wt.%, of at least one non-ionic surfactant, (iii) 0 to 20 wt.% water, (iv) at least one α-amylase having an optimum pH of pH < 7 (optimum pH determined by testing the residual activity of the enzyme (starch hydrolysis) after a 30 minute incubation of the enzyme in a universal buffer (Britton and Robinson type) at room temperature and pH 3 to pH 10), wherein the liquid washing agent has a pH < 6.5, preferably in the range of 2 to 5 (measured as a 1% (wt.%) solution of the washing agent in distilled water at 25 °C). (i) 5 to 30 wt.%, preferably 10 to 30 wt.%, in particular 15 to 25 wt.%, of at least one hydroxycarboxylic acid having 2 to 8 carbon atoms and (ii) 15 to 55 wt.%, preferably 20 to 55 wt.%, in particular 35 to 50 wt.%, of at least one non-ionic surfactant, (iii) 0 to 20 wt.% water, (iv) at least one α-amylase having an optimum pH of pH < 7 (optimum pH determined by testing the residual activity of the enzyme (starch hydrolysis) after a 30 minute incubation of the enzyme in a universal buffer (Britton and Robinson type) at room temperature and pH 3 to pH 10), wherein the liquid washing agent has a pH < 6.5, preferably in the range of 2 to 5 (measured as a 1% (wt.%) solution of the washing agent in distilled water at 25 °C).
A process comprising: forming a modified cellulose solution; and contacting the modified cellulose solution with at least one non-solvent to form a plurality of modified cellulose particles, wherein the modified cellulose is an oxidized cellulose, wherein the forming of the modified cellulose solution comprises: contacting a modified cellulose with a solvent under an inert atmosphere to form a swelled modified cellulose; adjusting the swelled modified cellulose mixture to a first temperature; contacting the swelled modified cellulose with a salt under the inert atmosphere to form a modified cellulose solution; and adjusting the modified cellulose solution to a second temperature that is lower than the first temperature. forming a modified cellulose solution; and contacting the modified cellulose solution with at least one non-solvent to form a plurality of modified cellulose particles, wherein the modified cellulose is an oxidized cellulose, wherein the forming of the modified cellulose solution comprises: contacting a modified cellulose with a solvent under an inert atmosphere to form a swelled modified cellulose; adjusting the swelled modified cellulose mixture to a first temperature; contacting the swelled modified cellulose with a salt under the inert atmosphere to form a modified cellulose solution; and adjusting the modified cellulose solution to a second temperature that is lower than the first temperature. contacting a modified cellulose with a solvent under an inert atmosphere to form a swelled modified cellulose; adjusting the swelled modified cellulose mixture to a first temperature; contacting the swelled modified cellulose with a salt under the inert atmosphere to form a modified cellulose solution; and adjusting the modified cellulose solution to a second temperature that is lower than the first temperature.
A method comprising: by a computing system (100, 500): accessing a computer-aided design, CAD, model of a given part and a computer-aided manufacturing, CAM, setup for the given part, the CAM setup including a nominal toolpath specified through the CAD model for performing a finishing operation for the given part; determining an interest region on the nominal toolpath at which a defect in the given part could potentially occur during manufacture; obtaining 3-dimensional scan data for a physical part corresponding to the given part comprising controlling a scan of the physical part such that 3D scan data at the interest region is captured at a higher data resolution than at other non-interest regions on the nominal toolpath; extracting, from the 3D scan data, a manufactured geometry of the physical part; and generating an adjusted toolpath for the physical part to account for the manufactured geometry extracted from the 3D scan data. accessing a computer-aided design, CAD, model of a given part and a computer-aided manufacturing, CAM, setup for the given part, the CAM setup including a nominal toolpath specified through the CAD model for performing a finishing operation for the given part; determining an interest region on the nominal toolpath at which a defect in the given part could potentially occur during manufacture; obtaining 3-dimensional scan data for a physical part corresponding to the given part comprising controlling a scan of the physical part such that 3D scan data at the interest region is captured at a higher data resolution than at other non-interest regions on the nominal toolpath; extracting, from the 3D scan data, a manufactured geometry of the physical part; and generating an adjusted toolpath for the physical part to account for the manufactured geometry extracted from the 3D scan data.
A method for the production of a structured metal layer made of an alloy containing titanium and nickel, comprising the following production steps: - a sacrificial layer composite comprising a second sacrificial layer applied onto a first sacrificial layer is provided, - one of the two sacrificial layers is subjected to a wet-chemical etching process for structuring purposes such that undercutting of the second sacrificial layer occurs, and - a metal layer of said alloy is directly or indirectly applied onto the structured sacrificial layer composite, characterized in that the first sacrificial layer, which lies farther from the metal layer, is subjected to the wet-chemical etching process, and in that the second sacrificial layer facing the metal layer is prior to the wet-chemical etching of the first sacrificial layer subjected to a dry-etching process, in which it is provided with a structure corresponding to the desired structure of the metal layer. - a sacrificial layer composite comprising a second sacrificial layer applied onto a first sacrificial layer is provided, - one of the two sacrificial layers is subjected to a wet-chemical etching process for structuring purposes such that undercutting of the second sacrificial layer occurs, and - a metal layer of said alloy is directly or indirectly applied onto the structured sacrificial layer composite,
Hybrid material consisting of a silicatized collagen matrix, wherein the collagen is recombinant collagen, collagen from eumetazoa, sponge collagens of the classes Demospongia (horn sponges) or Calcarea (calcareous sponges), a synthetic collagen analog, a collagen derivative or a mixture of these collagens and wherein the collagen matrix is stiffened and cross-linked by the silicatization of the collagen fibrils and the proportion of collagen in the hybrid material is 30 to 70% by mass.
Bicycle saddle comprising a saddle shell, a seat cushion connected with an upper side of the saddle shell, a support element connected with a saddle frame for connection with a seat post, and the support element extending from the saddle tip to the rear of the saddle, and an elastomeric body arranged between the support element and the saddle shell, characterized in that the elastomeric body is two-dimensionally connected with the lower side of the saddle shell and the support element to decouple the saddle shell from the support element, such that the support element and the saddle shell are connected exclusively via the elastomeric body and such that, under load, the saddle shell is pivotable relative to the support element about a longitudinal axis extending in the longitudinal direction.
A wire saw comprising a drive roller; a deflection roller spaced apart therefrom; and a saw wire which is guided as a closed loop over the drive roller and the deflection roller, wherein the drive roller is rotatably supported at a machine part of the wire saw and the deflection roller is rotatably supported at a support structure connected to the machine part such that the saw wire is surrounded by a free space in a projection region defined by the support structure; and wherein the wire saw is configured as a portable handheld device, characterized in that the support structure is pivotable relative to the machine part about a pivot axis in parallel with an axis of rotation of the drive roller to carry out lateral oblique cuts.
Belt conveyor with a belt body that is provided with at least one running support and a conveyor belt (3, 31, 130) that runs on the running support, wherein the running support contains a roller guide, and wherein a plurality of rollers (8, 8') are positioned one behind the other in the conveying direction between the running support and the conveyor belt (3, 31, 130), and the roller guide is formed as a roller housing (7a, 7b) with a U-shaped cross-section, in the interior of which the rollers are held in such a manner that they can rotate, characterized in that at a transfer point (U') to a further belt conveyor unit (1a, 1b), the running support is provided with a sliding rail on which the conveyor belt (3, 31) runs, wherein the sliding rail replaces the rollers (8, 8') in the region of the transfer point (U').
A method of diagnosing an infection by Streptococcus pneumoniae in a subject with signs of pneumonia comprising detecting in a serum sample from said subject antibodies against a PcpA antigen and antibodies against at least one additional antigen selected from the group consisting of PhtD, PhtE, LytB and Ply, wherein when the amount of said antibodies against a PcpA antigen in the sample is statistically significantly less than the amount of antibodies to said at least one additional antigen in said sample it is indicative of pneumococcal pneumonia.
Highly flexible finished wood laminate, formed by several substrates, which is easy to affix on straight and shaped surfaces and even adapts to acute corners without cracking, with the substrates set out in following order: a. Transparent plastic film finish; b. Sanded and pre-varnished wood veneer; c. Plastic film with corona treatment on both faces; and, d. Flexible substrate. a. Transparent plastic film finish; b. Sanded and pre-varnished wood veneer; c. Plastic film with corona treatment on both faces; and, d. Flexible substrate.