mhurhangee/patent-ind-claim-en huggingface dataset:
Component arrangement comprising a top metal sheet which is arranged on a bottom metal sheet in an overlapping manner and which is intended to be connected by means of laser beam welding in at least one weld seam portion by way of an edge fillet weld , wherein at least one of the metal sheets has a coating, wherein a structure is formed in the top metal sheet , said structure creating a defined degassing cavity between the metal sheets which are arranged areally on top of one another, said degassing cavity extending over the length of at least one weld seam portion and reaching as far as the abutting edge to be welded, characterized in that the structure is formed such that the top metal sheet is spaced apart from the bottom metal sheet in the region of the structure. comprising a top metal sheet which is arranged on a bottom metal sheet in an overlapping manner and which is intended to be connected by means of laser beam welding in at least one weld seam portion by way of an edge fillet weld , wherein at least one of the metal sheets has a coating, wherein a structure is formed in the top metal sheet , said structure creating a defined degassing cavity between the metal sheets which are arranged areally on top of one another, said degassing cavity extending over the length of at least one weld seam portion and reaching as far as the abutting edge to be welded, characterized in that the structure is formed such that the top metal sheet is spaced apart from the bottom metal sheet in the region of the structure.
A brassiere having cups , straps and elements for covering the wearer's breast tip region, wherein the elements are respectively arranged on the cups' inner side facing the wearer's body, and the elements only partly cover the cups' inner side facing the wearer's body, characterized in that the elements are connected to the brassiere at at least two positions, wherein the elements are fastened to one or more frames of the cup and to the apex of the brassiere .
Method for selecting a wireless communication channel between a wireless access point device of a communication network and a station , the method being executed in the wireless access point device of said communication network , the method comprising: - locally obtaining (S2), from said wireless access point device, at least a first information item, representing a first electromagnetic environment within range of said wireless access point device, and, - if no radar signal is detected for said channel, locally obtaining an information item representing a change in occupancy status for said channel, in the sense of the detection of a radar, then - obtaining (S3), from a remote server , at least a second information item, representing a second electromagnetic environment around said wireless access point device, then - selecting (S4) said communication channel by virtue of at least said first information item representing said first environment, said information item representing said change in occupancy status, and said at least one second information item representing said second environment, and - configuring (S5) a radio interface of said wireless access point device to implement wireless communications with said station in the selected channel. - locally obtaining (S2), from said wireless access point device, at least a first information item, representing a first electromagnetic environment within range of said wireless access point device, and, - if no radar signal is detected for said channel, locally obtaining an information item representing a change in occupancy status for said channel, in the sense of the detection of a radar, then - obtaining (S3), from a remote server , at least a second information item, representing a second electromagnetic environment around said wireless access point device, then - selecting (S4) said communication channel by virtue of at least said first information item representing said first environment, said information item representing said change in occupancy status, and said at least one second information item representing said second environment, and - configuring (S5) a radio interface of said wireless access point device to implement wireless communications with said station in the selected channel.
Housed operating device for operating illumination means, wherein a housing, sealed against moisture, of the operating device has means for mechanically positioning and/or holding at least one communication adapter , wherein the means are arranged on the housing in such a way that a positioned and/or held communication adapter communicates wirelessly through the housing wall with an interface of the operating device , which interface is arranged inside the housing, wherein the operating device is designed to wirelessly, in particular without contact and/or inductively, supply the at least one communication adapter with electricity, in particular via the interface, characterized in that the operating device is configured to communicate with the at least one communication adapter by altering or modulating the wireless supply when the at least one communication adapter is supplied wirelessly by means of the wireless supply.
A method for separating an optically active hydroxy cineole derivative of formula (I-R), or an optically active hydroxy cineole derivative of formula (I-S), wherein R 1 is selected from hydrogen and unsubstituted or substituted alkyl and R 2 is selected from hydrogen and unsubstituted or substituted alkyl; from a mixture comprising the enantiomers of formula (I-R) and formula (I-S), comprising the steps of: i) Providing a suspension comprising a mixture of the enantiomers of formula (I-R) and formula (I-S), wherein the desired enantiomer is present in the mixture in an amount of ≥ 51 to ≤ 95 wt.-%, related to the sum of the enantiomers of the mixture, in at least one non-polar solvent; ii) Stirring the suspension obtained in step (i) at temperature in the range of ≥ 10° C to reflux temperature of the non-polar solvent; and iii) Isolating the crystals of the desired enantiomer obtained in step (ii). R 1 is selected from hydrogen and unsubstituted or substituted alkyl and R 2 is selected from hydrogen and unsubstituted or substituted alkyl; i) Providing a suspension comprising a mixture of the enantiomers of formula (I-R) and formula (I-S), wherein the desired enantiomer is present in the mixture in an amount of ≥ 51 to ≤ 95 wt.-%, related to the sum of the enantiomers of the mixture, in at least one non-polar solvent; ii) Stirring the suspension obtained in step (i) at temperature in the range of ≥ 10° C to reflux temperature of the non-polar solvent; and iii) Isolating the crystals of the desired enantiomer obtained in step (ii).
Method for generating a shared secret in a communication system (10, 20, A, B, C) having a first node (A), a second node (B) and a medium jointly used by the nodes (A, B), comprising the following features: - a prescribed event prompts the first node (A) and the second node (B) to enter a first overlap phase , - in the first overlap phase the first node (A) sends a first bit sequence and the second node (B) sends a second bit sequence in sync therewith, characterized by the following features: - the first node (A) and the second node (B) simultaneously detect an effective third bit sequence that the first bit sequence and the second bit sequence produce by having overlapping digits on the medium , - in a second overlap phase the first node (A) sends the first bit sequence with some digits inverted, the second node (B) sends the second bit sequence with some digits inverted in sync therewith and the first node (A) and the second node (B) simultaneously detect an effective fourth bit sequence that the inverted first bit sequence and the inverted second bit sequence produce by overlapping, - the first node (A) and the second node (B) logically combine some digits of the third bit sequence and of the fourth bit sequence to produce a fifth bit sequence, and - the first node (A) and the second node (B) add to a first secret by virtue of the first node (A) erasing bits of the first bit sequence and the second node (B) erasing corresponding bits of the second bit sequence that have concordant digit values according to the fifth bit sequence. - a prescribed event prompts the first node (A) and the second node (B) to enter a first overlap phase , - in the first overlap phase the first node (A) sends a first bit sequence and the second node (B) sends a second bit sequence in sync therewith, characterized by the following features: - the first node (A) and the second node (B) simultaneously detect an effective third bit sequence that the first bit sequence and the second bit sequence produce by having overlapping digits on the medium , - in a second overlap phase the first node (A) sends the first bit sequence with some digits inverted, the second node (B) sends the second bit sequence with some digits inverted in sync therewith and the first node (A) and the second node (B) simultaneously detect an effective fourth bit sequence that the inverted first bit sequence and the inverted second bit sequence produce by overlapping, - the first node (A) and the second node (B) logically combine some digits of the third bit sequence and of the fourth bit sequence to produce a fifth bit sequence, and - the first node (A) and the second node (B) add to a first secret by virtue of the first node (A) erasing bits of the first bit sequence and the second node (B) erasing corresponding bits of the second bit sequence that have concordant digit values according to the fifth bit sequence.
Hemostatic composition for use in achieving hemostasis of a bleeding bone in a mammalian subject by administering the hemostatic composition to the site of the bleeding, wherein the composition consists of either option (a) phosphatidylcholine, lysophosphatidylcholine and an anti-infective agent or option (b) phosphatidylcholine, lysophosphatidylcholine, tocopherol and an anti-infective agent. option (a) phosphatidylcholine, lysophosphatidylcholine and an anti-infective agent or option (b) phosphatidylcholine, lysophosphatidylcholine, tocopherol and an anti-infective agent.
Tray for a stacking means for shipping or storing or temporary storing products , in which said products are containers for liquid like bottles or cans, the size of said tray being compatible with the dimensions of a standard shipping pallet , wherein the tray has a rectangular base on which products can stand, as well as side walls , extending from the perimeter of said base and perpendicular to it, characterised in that at least one wall works as a door which can be opened for allowing side introduction of the products in the tray , or closed. wherein the tray has a rectangular base on which products can stand, as well as side walls , extending from the perimeter of said base and perpendicular to it, characterised in that at least one wall works as a door which can be opened for allowing side introduction of the products in the tray , or closed.
A voice-activated electronic device comprising: an overall exterior including an upper portion and a base portion , the upper portion and the base portion being moveable between a joined position and a separated position; electronic components coupled to the upper portion and contained within the overall exterior when the upper portion and the base portion are in the joined position, the electronic components including a first electrical connector configured to supply power and/or data to the remaining electronic components and/or to output data signals from the remaining electronic components when the first electrical connector is connected to an external power and/or data connector, wherein the upper portion includes speakers , and wherein the first electrical connector is substantially co-planar with a bottom surface of the upper portion; and the base portion including a first opening corresponding to a position and size of the first electrical connector in a base surface of the electronic components coupled to the upper portion, so that, when the upper portion and the base portion are in the joined position, the base surface of the electronic components of the upper portion is exposed from the first opening to enable the first electrical connector to couple electrically with the external power and/or data connector, and wherein the base portion is configured so that the speakers of the upper portion are contained within the base portion when the upper portion and the base portion are in the joined position. an overall exterior including an upper portion and a base portion , the upper portion and the base portion being moveable between a joined position and a separated position; electronic components coupled to the upper portion and contained within the overall exterior when the upper portion and the base portion are in the joined position, the electronic components including a first electrical connector configured to supply power and/or data to the remaining electronic components and/or to output data signals from the remaining electronic components when the first electrical connector is connected to an external power and/or data connector, wherein the upper portion includes speakers , and wherein the first electrical connector is substantially co-planar with a bottom surface of the upper portion; and the base portion including a first opening corresponding to a position and size of the first electrical connector in a base surface of the electronic components coupled to the upper portion, so that, when the upper portion and the base portion are in the joined position, the base surface of the electronic components of the upper portion is exposed from the first opening to enable the first electrical connector to couple electrically with the external power and/or data connector, and wherein the base portion is configured so that the speakers of the upper portion are contained within the base portion when the upper portion and the base portion are in the joined position.
Installation for the thermal treatment of dispersible raw material , in particular cement raw meal and/or mineral products, having a line through which hot gases flow and at least one means for adding the raw material , characterized in that the installation comprises at least two treatment regions for the treatment of fuels , which are connected to the line such that at least a part of the heat generated in the treatment regions passes into the line , wherein at least one of the treatment regions comprises a bearing surface for receiving the fuel , and wherein the fuel is movable along the bearing surface by means of gravitational force, pneumatically or mechanically, wherein the treatment regions each comprise a combustion chamber which opens into the line .
A process for the production of trans-1,3,3,3-tetrafluoropropene which comprises: (a) dehydrofluorinating 1,1,1,3,3-pentafluoropropane in the absence of an oxygen-containing gas to thereby produce a result comprising cis-1,3,3,3-tetrafluoropropene, trans-1,3,3,3-tetrafluoropropene and hydrogen fluoride, wherein the dehydrofluorinating is conducted with a catalyst comprising fluorinated Cr 2 O 3 in bulk form; (b) optionally recovering hydrogen fluoride from the result of step (a); and (c) distilling the result of step (a) or step (b) to recover trans-1,3,3,3-tetrafluoropropene. (a) dehydrofluorinating 1,1,1,3,3-pentafluoropropane in the absence of an oxygen-containing gas to thereby produce a result comprising cis-1,3,3,3-tetrafluoropropene, trans-1,3,3,3-tetrafluoropropene and hydrogen fluoride, wherein the dehydrofluorinating is conducted with a catalyst comprising fluorinated Cr 2 O 3 in bulk form; (b) optionally recovering hydrogen fluoride from the result of step (a); and (c) distilling the result of step (a) or step (b) to recover trans-1,3,3,3-tetrafluoropropene.
A method of operating a scanning probe microscope (SPM) comprising: generating relative substantially periodic motion between a probe and a sample; detecting the motion of the probe; recovering, from the detected probe motion, a substantially instantaneous interaction force between the probe and the sample as the probe and sample interact; determining a time zone of interest (p1-p5) associated with the recovered substantially instantaneous force; wherein peak force control is employed which uses said instantaneous interaction force directly as the feedback control parameter; characterized in that the time zone of interest (p1-p5) is gated; characterized by generating a constant or synchronously gated physical excitation signal between the probe and the sample within a period of the interaction between the probe and the sample, wherein the constant or synchronously gated excitation signal is heat applied to the sample or the probe, an electromagnetic wave, an optical excitation, a voltage signal, or a magnetic force; and synchronously measuring the gated physical response of the probe to the generating step, in the gated time zone of interest (p1-p5) within said period of the interaction between the probe and the sample so as to provide simultaneous measurement of a physical property of the sample, as defined by the generating step, and a mechanical property of the sample, wherein signals other than those in the gated time zone of interest are considered parasitic noise. generating relative substantially periodic motion between a probe and a sample; detecting the motion of the probe; recovering, from the detected probe motion, a substantially instantaneous interaction force between the probe and the sample as the probe and sample interact; determining a time zone of interest (p1-p5) associated with the recovered substantially instantaneous force; wherein peak force control is employed which uses said instantaneous interaction force directly as the feedback control parameter; characterized in that the time zone of interest (p1-p5) is gated; characterized by generating a constant or synchronously gated physical excitation signal between the probe and the sample within a period of the interaction between the probe and the sample, wherein the constant or synchronously gated excitation signal is heat applied to the sample or the probe, an electromagnetic wave, an optical excitation, a voltage signal, or a magnetic force; and synchronously measuring the gated physical response of the probe to the generating step, in the gated time zone of interest (p1-p5) within said period of the interaction between the probe and the sample so as to provide simultaneous measurement of a physical property of the sample, as defined by the generating step, and a mechanical property of the sample, wherein signals other than those in the gated time zone of interest are considered parasitic noise.
A porous hollow fiber membrane having a graft chain on a pore surface and an anion-exchange group fixed to the graft chain, wherein: the base material of the porous hollow fiber membrane is polyethylene or polyvinylidene fluoride, the graft chain is a polymer of glycidyl methacrylate and has a graft rate of from 10% to 90% (both inclusive), and wherein the anion-exchange group is selected from the group consisting of a diethylamino (DEA, Et 2 N-) group, a quaternary ammonium (Q, R 3 N + -) group, a quaternary aminoethyl (QAE, R 3 N + -(CH 2 ) 2 -) group, a diethylaminoethyl (DEAE, Et 2 N- (CH 2 ) 2 -) group, and a diethylaminopropyl (DEAP, Et 2 N-(CH 2 ) 3 -) group wherein R's bonded to the same N may be the same or different and R represents an alkyl group, a phenyl group or an aralkyl group, and when a bovine serum albumin (BSA) solution dissolved at a concentration of 1 g/L in a 20 mmol/L Tris-HCI (pH 8.0) buffer containing 0.1 mol/L of a salt is passed through the porous hollow fiber membrane, the dynamic adsorption volume calculated from the volume of the BSA solution passed through by the time point at which the concentration of BSA in the filtrate has exceeded 0.1 g/L is 10 mg/mL or more, wherein the dynamic adsorption volume is determined as described in the description. the base material of the porous hollow fiber membrane is polyethylene or polyvinylidene fluoride, the graft chain is a polymer of glycidyl methacrylate and has a graft rate of from 10% to 90% (both inclusive), and wherein the anion-exchange group is selected from the group consisting of a diethylamino (DEA, Et 2 N-) group, a quaternary ammonium (Q, R 3 N + -) group, a quaternary aminoethyl (QAE, R 3 N + -(CH 2 ) 2 -) group, a diethylaminoethyl (DEAE, Et 2 N- (CH 2 ) 2 -) group, and a diethylaminopropyl (DEAP, Et 2 N-(CH 2 ) 3 -) group wherein R's bonded to the same N may be the same or different and R represents an alkyl group, a phenyl group or an aralkyl group, and when a bovine serum albumin (BSA) solution dissolved at a concentration of 1 g/L in a 20 mmol/L Tris-HCI (pH 8.0) buffer containing 0.1 mol/L of a salt is passed through the porous hollow fiber membrane, the dynamic adsorption volume calculated from the volume of the BSA solution passed through by the time point at which the concentration of BSA in the filtrate has exceeded 0.1 g/L is 10 mg/mL or more, wherein the dynamic adsorption volume is determined as described in the description.
A system for analysing a sample comprising: an input light source ; a multi-channel fluorescence detector positioned to receive and detect multiple wavelengths of light emitted by the sample for each of the plurality of excitation wavelengths; an absorption detector positioned to receive and detect light passing through the sample; a computer in communication with a monochromator , the fluorescence detector , and the absorption detector ; the computer controlling the monochromator to sequentially illuminate the sample with each of the plurality of wavelengths while measuring absorption and fluorescence of the sample based on signals received from the fluorescence and absorption detectors; characterised in that the monochromator is a double subtractive monochromator positioned to receive light from the input light source and to sequentially illuminate the sample with each of a plurality of wavelengths; and wherein said system furthermore comprises at least one optical element comprising a concave mirror having an associated F/number faster than an aperture positioned between the sample and the absorption detector and positioned to direct light from the monochromator to the sample and provide a substantially collimated beam from the sample to the absorption detector while providing high-throughput to the fluorescence detector . an input light source ; a multi-channel fluorescence detector positioned to receive and detect multiple wavelengths of light emitted by the sample for each of the plurality of excitation wavelengths; an absorption detector positioned to receive and detect light passing through the sample; a computer in communication with a monochromator , the fluorescence detector , and the absorption detector ; the computer controlling the monochromator to sequentially illuminate the sample with each of the plurality of wavelengths while measuring absorption and fluorescence of the sample based on signals received from the fluorescence and absorption detectors; characterised in that the monochromator is a double subtractive monochromator positioned to receive light from the input light source and to sequentially illuminate the sample with each of a plurality of wavelengths; and wherein said system furthermore comprises at least one optical element comprising a concave mirror having an associated F/number faster than an aperture positioned between the sample and the absorption detector and positioned to direct light from the monochromator to the sample and provide a substantially collimated beam from the sample to the absorption detector while providing high-throughput to the fluorescence detector .