mhurhangee/ep-ind-claims huggingface dataset:
Circuit arrangement for a mobile radio unit of a motor vehicle, comprising: - a first mobile radio module for a mobile radio transmission according to at least one first mobile radio standard, wherein the first mobile radio module is a UMTS module or UMTS/GSM module or an LTE/UMTS/GSM module or an LTE module, and - a second mobile radio module for a mobile radio transmission according to a second mobile radio standard, wherein the first mobile radio module comprises a communication interface for interchanging control and useful data which is connected to an electrical connection for electrically connecting the circuit arrangement to an external processor unit, and wherein the first mobile radio module comprises an additional interface via which the first mobile radio module is electrically connected to a communication interface of the second mobile radio module that is configured to interchange control and useful data, and the external processor unit can only communicate indirectly via the first mobile radio module with the second mobile radio module, characterised in that the circuit arrangement comprises a main antenna connection to connect a main antenna and a secondary antenna connection to connect an additional antenna and a switching device of the circuit arrangement is configured to couple the first mobile radio module to the main antenna connection and the second mobile radio module to the secondary antenna connection in a first switching state and to couple the first mobile radio module to the secondary antenna connection and the second mobile radio module to the main antenna connection in a second switching state, for radio signal transmission. - a first mobile radio module for a mobile radio transmission according to at least one first mobile radio standard, wherein the first mobile radio module is a UMTS module or UMTS/GSM module or an LTE/UMTS/GSM module or an LTE module, and - a second mobile radio module for a mobile radio transmission according to a second mobile radio standard,
A method for producing elastomer optical waveguides, in particular made of optical fibers, comprising: - providing a hollow body with at least one hollow channel extending along a first direction; - forming a fiber sheath (20, 21, 22) in the hollow channel by coating the inner wall of the hollow channel with at least a first uncured, flowable elastomer mixture, in particular a first silicone-elastomer mixture, under the effect of a force acting in the first direction, wherein a hollow chamber remains that is surrounded by the fiber sheath (20, 21, 22), and at least partial curing of the elastomer mixture; - forming a fiber core in the hollow chamber by filling the hollow chamber with another uncured, flowable elastomer mixture, in particular another silicone-elastomer mixture; and, - forming an optical waveguide comprising the fiber sheath (20, 21, 22) and the fiber core by curing of the fiber sheath (20, 21, 22) and of the fiber core in the hollow body. - providing a hollow body with at least one hollow channel extending along a first direction; - forming a fiber sheath (20, 21, 22) in the hollow channel by coating the inner wall of the hollow channel with at least a first uncured, flowable elastomer mixture, in particular a first silicone-elastomer mixture, under the effect of a force acting in the first direction, wherein a hollow chamber remains that is surrounded by the fiber sheath (20, 21, 22), and at least partial curing of the elastomer mixture; - forming a fiber core in the hollow chamber by filling the hollow chamber with another uncured, flowable elastomer mixture, in particular another silicone-elastomer mixture; and, - forming an optical waveguide comprising the fiber sheath (20, 21, 22) and the fiber core by curing of the fiber sheath (20, 21, 22) and of the fiber core in the hollow body.
Process for preparing a glass-ceramic body comprising the steps of providing a basic glass body and subjecting the basic glass body to a thermal treatment whereby a crystalline phase embedded in a glass matrix is formed, wherein the basic glass body is made of a composition comprising 65 to 72 wt-% SiO 2, at least 10.1 wt-% Li 2 O and at least 10.1 wt-% Al 2 O 3 based on the total weight of the composition, the proportion of Li 2 O to Al 2 O 3 being from 1:1 to 1.5:1, and the thermal treatment involves a nucleation step followed by a first crystallization step at a first temperature range and a second crystallization step at a second temperature range different from the first temperature range, whereby at least two different crystalline phases are formed.
A run-flat tire comprising a carcass comprising at least one carcass ply comprising a main portion extending between bead cores (5, 5) each disposed in a first bead portion and a second bead portion, through a tread portion and sidewall portions, and a pair of turn-up portions each turned up around the bead core from the axially inside to the outside of the tire, a belt layer disposed radially outside the carcass in the tread portion, a pair of side reinforcing rubber layers each disposed axially inside the carcass in each sidewall portion, each side reinforcing rubber layer having a crescent cross-sectional shape that comprises a center portion with its maximum width and both end portions each extending in a radial direction of the tire with a tapered shape, the side reinforcing rubber layers comprising a first side reinforcing rubber layer disposed in the side of the first bead portion, and a second side reinforcing rubber layer disposed in the side of the second bead portion, and a pair of bead apex rubber components (8, 8) comprising a first bead apex rubber component disposed in the first bead portion, and a second bead apex rubber component disposed in the second bead portion, each bead apex rubber component made of rubber having a high hardness and disposed between the main portion and the turn-up portion of the carcass ply in each bead portion (4A, 4B) so as to extend from its bottom connected with a radially outer surface of the bead core to its radially outer end with a tapered shape, wherein the first bead apex rubber component has a first apex height A1 greater than a second apex height A2 of the second bead apex rubber component, wherein each apex height is defined as a length from a center point on the bottom to the radially outer end in a tire cross section including a tire axis under a standard condition in which the tire is mounted on a standard rim and is inflated to a standard pressure, but no tire load is loaded, wherein the first side reinforcing rubber layer has a first inner end height B1 greater than a second inner end height B2 of the second side reinforcing rubber layer, wherein each inner end height is defined as a radial distance from the radially inner end of the side reinforcing rubber layer to a bead toe (Bt) of the bead portion (4A, 4B), and wherein the tire has a same thickness in the respective sides of the first and second bead portions (4A, 4B) at a same radial position within a radial region of the tire where at least the bead apex rubber components (8, 8) and the side reinforcing rubber layers are provided.
A method for cancelling interference from data transmissions within a communication network between user equipment, UE, and network nodes (502, 504, 510), comprising: receiving, at a scheduling coordinator, location-based indicators from a plurality of UEs indicating, for each UE, a location of the UE with respect to one of a first network node and a second network node; selecting, at the scheduling coordinator, a first scheduled UE from the plurality of UEs to receive data from the first network node during a first period of time and a second scheduled UE to receive data from the second network node during at least a portion of the first period of time; determining, at the scheduling coordinator, a first data rate for transmitting a first signal from the first network node to the first scheduled UE; determining, at the scheduling coordinator, a second data rate for transmitting a second signal from the second network node to the second scheduled UE, wherein one or more of the selecting of the first and second scheduled UEs and the determining of the first and second data rates is based on the received location-based indicators for the first and second scheduled UEs to enable the second scheduled UE to cancel from the second signal interference caused by the first signal, and communicating the first and second data rates to the first and second network nodes (502,504). receiving, at a scheduling coordinator, location-based indicators from a plurality of UEs indicating, for each UE, a location of the UE with respect to one of a first network node and a second network node; selecting, at the scheduling coordinator, a first scheduled UE from the plurality of UEs to receive data from the first network node during a first period of time and a second scheduled UE to receive data from the second network node during at least a portion of the first period of time; determining, at the scheduling coordinator, a first data rate for transmitting a first signal from the first network node to the first scheduled UE; determining, at the scheduling coordinator, a second data rate for transmitting a second signal from the second network node to the second scheduled UE, wherein one or more of the selecting of the first and second scheduled UEs and the determining of the first and second data rates is based on the received location-based indicators for the first and second scheduled UEs to enable the second scheduled UE to cancel from the second signal interference caused by the first signal, and communicating the first and second data rates to the first and second network nodes (502,504).
A vehicle operation device usable in an autonomous vehicle autonomously controlled to drive along a determined driving route (F1, F2), the vehicle operation device comprising: a destination setting unit configured to set a destination to a wide area for determining the driving route; a route setting unit configured to allot a provisional destination on a boundary of the destination according to route search conditions including a current position and the destination, so as to determine the driving route passing through the provisional destination; and a presenting unit configured to provide a user with a plurality of tasks indicated by items adapted for being selected by the user while the autonomous vehicle is moving along the driving route toward the provisional destination, wherein the vehicle operation device is configured to control the autonomous vehicle to execute a task in the destination after reaching the provisional destination if it has been selected, wherein said task is a task to reach a more specific destination (G1, G2, G3, G4, G5) within the wide area set as the destination, and the route setting unit is configured to determine the driving route from the provisional destination to the more specific destination (G1, G2, G3. G4.G5). a destination setting unit configured to set a destination to a wide area for determining the driving route; a route setting unit configured to allot a provisional destination on a boundary of the destination according to route search conditions including a current position and the destination, so as to determine the driving route passing through the provisional destination; and a presenting unit configured to provide a user with a plurality of tasks indicated by items adapted for being selected by the user while the autonomous vehicle is moving along the driving route toward the provisional destination, wherein the vehicle operation device is configured to control the autonomous vehicle to execute a task in the destination after reaching the provisional destination if it has been selected, wherein said task is a task to reach a more specific destination (G1, G2, G3, G4, G5) within the wide area set as the destination, and the route setting unit is configured to determine the driving route from the provisional destination to the more specific destination (G1, G2, G3. G4.G5).
A method for the manufacture of circuit board structures comprising through-connections, which consist of a carrier means, on which ultimately all further means are arranged with which the circuit board structure is realised in conjunction with the carrier means, characterised in that the single carrier means prior to attaching any further means, is treated, at positions of the later circuit board structure envisaged for through-connections, with a hole-forming process for producing at least one single hole respectively, which is a heavy-ion bombardment, in that subsequently an etching process is performed, with which the respective hole is enlarged at the said through-connection positions to obtain the desired size or the respective holes are etched to obtain one or more holes of the desired size, in that a copper-laminating process is performed, where an existing topside and underside of the carrier means, on which all further means for forming the circuit board structure in later steps are arranged, are copper-laminated whilst at the same time fabricating the electrically conducting through-connections through the holes generated in the previous process step, and in that subsequently all further steps are realised for arranging all further means for realising the complete circuit board structure.
A method for preparing glycolic acid through a hydrolysis of alkoxyacetate, comprising: subjecting raw materials comprising the alkoxyacetate and water to a reaction in the presence of an acidic molecular sieve catalyst to produce the glycolic acid, wherein the alkoxyacetate is at least one selected from the group consisting of compounds with a structural formula shown in formula I: wherein R 1 and R 2 each are independently one selected from the group consisting of C 1 -C 5 alkyl groups. wherein the alkoxyacetate is at least one selected from the group consisting of compounds with a structural formula shown in formula I: wherein R 1 and R 2 each are independently one selected from the group consisting of C 1 -C 5 alkyl groups.
In vitro method for the diagnosis of acute pancreatitis in a subject by detection of Glycoprotein 2 isoform alpha (GP2a) protein, comprising - providing a sample of a human subject exhibiting symptoms of having pancreatic disease, wherein the sample is a whole blood, plasma or serum sample, wherein said sample is obtained from the subject within 72 hours of the appearance of said symptoms, - providing an affinity reagent directed against GP2a, wherein said affinity reagent specifically binds GP2a with no binding or negligible binding to Glycoprotein 2 isoform beta (GP2b), - contacting said sample with said affinity reagent thereby capturing GP2a from said sample, and - determining the concentration of GP2a from said sample, wherein determining a concentration of GP2a in said sample that is greater than the concentration of GP2a in one or more control samples indicates the presence of AP and the absence of chronic pancreatitis and pancreatic cancer, and optionally the absence of one or more of gastrointestinal cancer, liver cancer, neuro-endocrine tumor, sarcoma, peptic ulcer or peritonitis. - providing a sample of a human subject exhibiting symptoms of having pancreatic disease, wherein the sample is a whole blood, plasma or serum sample, wherein said sample is obtained from the subject within 72 hours of the appearance of said symptoms, - providing an affinity reagent directed against GP2a, wherein said affinity reagent specifically binds GP2a with no binding or negligible binding to Glycoprotein 2 isoform beta (GP2b), - contacting said sample with said affinity reagent thereby capturing GP2a from said sample, and - determining the concentration of GP2a from said sample,
A projection apparatus, comprising: a casing, a motherboard, a power board, a light source, and a projection lens, - wherein the motherboard comprises: - a host circuit board, contained inside the casing; - a light valve, implemented on the host circuit board; and - a central processing unit, implemented on the host circuit board, - wherein the power board comprises: - a power circuit board, contained inside the casing; and - an alternating-current /direct-current power module, implemented on the power circuit board; - the light source contained inside the casing to generate an illuminating beam, wherein the light valve transforms the illuminating beam into an image beam; and - the projection lens contained in the casing to transform the image beam into a projecting beam, wherein the power circuit board is parallel to the host circuit board, and an optical axis of the projection lens is perpendicular to the host circuit board and the power circuit board, characterized in that the host circuit board is disposed between the projection lens and the power circuit board. - wherein the motherboard comprises: - a host circuit board, contained inside the casing; - a light valve, implemented on the host circuit board; and - a central processing unit, implemented on the host circuit board, - wherein the power board comprises: - a power circuit board, contained inside the casing; and - an alternating-current /direct-current power module, implemented on the power circuit board; - the light source contained inside the casing to generate an illuminating beam, wherein the light valve transforms the illuminating beam into an image beam; and - the projection lens contained in the casing to transform the image beam into a projecting beam, wherein the power circuit board is parallel to the host circuit board, and an optical axis of the projection lens is perpendicular to the host circuit board and the power circuit board,
A method of determining if a portion of a biological molecule is accessible to a solvent, the biological molecule and the solvent contained in a sample, the sample contacted by a fluid or enclosed within a confined space, the sample or the fluid containing a marker radical precursor, the method comprising: a) oxidizing, by way of a plasma that introduces marker radicals to the sample, the biological molecule, wherein the oxidizing of step a) includes: a1) generating a plasma in the fluid and/or generating the plasma within the sample, the plasma in the fluid having at least a portion of the plasma within 1 cm of the sample, thereby converting one or more of the plurality of marker radical precursors into one or more marker radicals; and a2) waiting a length of time sufficient for the one or more marker radicals to interact with the biological molecule, thereby modifying the biological molecule; b) subsequent to step a), assessing whether the portion of the biological molecule was oxidized by the oxidizing of step a), wherein the presence of oxidizing indicates that the portion is accessible to the solvent and the absence of oxidizing indicates that the portion is inaccessible to the solvent, wherein the assessing of step b) comprises performing a mass spectrometry analysis of the biological molecule.; and c) generating a report indicating whether the portion is accessible to the solvent or inaccessible to the solvent. a) oxidizing, by way of a plasma that introduces marker radicals to the sample, the biological molecule, wherein the oxidizing of step a) includes: a1) generating a plasma in the fluid and/or generating the plasma within the sample, the plasma in the fluid having at least a portion of the plasma within 1 cm of the sample, thereby converting one or more of the plurality of marker radical precursors into one or more marker radicals; and a2) waiting a length of time sufficient for the one or more marker radicals to interact with the biological molecule, thereby modifying the biological molecule; a1) generating a plasma in the fluid and/or generating the plasma within the sample, the plasma in the fluid having at least a portion of the plasma within 1 cm of the sample, thereby converting one or more of the plurality of marker radical precursors into one or more marker radicals; and a2) waiting a length of time sufficient for the one or more marker radicals to interact with the biological molecule, thereby modifying the biological molecule; b) subsequent to step a), assessing whether the portion of the biological molecule was oxidized by the oxidizing of step a), wherein the presence of oxidizing indicates that the portion is accessible to the solvent and the absence of oxidizing indicates that the portion is inaccessible to the solvent, wherein the assessing of step b) comprises performing a mass spectrometry analysis of the biological molecule.; and c) generating a report indicating whether the portion is accessible to the solvent or inaccessible to the solvent.
A leg foot orthopaedic treatment surface for a leg foot orthopaedic treatment device assembly, the assembly including a leg foot orthopaedic treatment device, the device including a ground or floor engaging support structure which supports the treatment surface on which, in use, a user stands in a treatment position, the treatment surface being inclined at a treatment angle to a ground engaging plane so as to support the feet of the user at the treatment angle relative to the ground engaging plane, characterised in that: the treatment surface slopes downwardly and inwardly towards at least one at least notional vertex (32, 33); the treatment surface comprises a first part and a second part, each of which is inclined at the same treatment angle and the treatment angle is between 5° and 25°; each treatment surface part is part conical in form; the surface includes a dividing formation which is located between the first and the second part. the treatment surface slopes downwardly and inwardly towards at least one at least notional vertex (32, 33); the treatment surface comprises a first part and a second part, each of which is inclined at the same treatment angle and the treatment angle is between 5° and 25°; each treatment surface part is part conical in form; the surface includes a dividing formation which is located between the first and the second part.