mhurhangee/patent-ind-claim-en huggingface dataset:
Gas valve unit for setting a gas volume flow supplied to a gas burner of a gas appliance, in particular a gas cooker, wherein the gas valve unit has a valve housing and an actuation pin , an operating segment of which projects from the valve housing and wherein a shutoff valve is configured in the valve housing , wherein at least two on-off valves are configured in the valve housing , which are disposed along an arc around the actuation pin , wherein it is possible to actuate the on-off valves with the aid of an actuation apparatus , which is coupled to the actuation pin by means of a coupling apparatus at an end of the actuation pin within the valve housing , by rotating the actuation pin , wherein it is possible to actuate the shutoff valve by axially displacing the actuation pin , wherein the shutoff valve has a moveable shutoff element , and wherein a deflection apparatus is provided, which converts an axial movement of the actuation pin to an axial movement of the shutoff element of the shutoff valve at right angles thereto.
A distal barrier plate that can be part of a pipette tip dispenser and is not in association with pipette tips , comprising: a plurality of channels , wherein each channel has a diameter larger than the widest portion of a pipette tip ; a substantially flat top surface ; and a substantially flat bottom surface that comprises a plurality of tails around the channels, wherein: (i) the tails extend in a nearly perpendicular orientation from the flat bottom surface , and (ii) the tails around each channel contact and deflect outward against the proximal portion of a pipette tip when a pipette tip is dispensed and passes by the tails, thereby imparting a frictional force on the pipette tip when it is dispensed characterized in that the plurality of channels comprises a first subset of channels and a second subset of channels, wherein the first subset of channels in the distal barrier plate are surrounded by tails that apply a frictional force to the pipette tips and eject pipette tips of an array at one time, and the second subset of channels in the plate are surrounded by tails that apply a different frictional force to the pipette tips and eject pipette tips of the same array at another time, wherein differences in the shape, size, length, thickness, width, rigidity, texture, or angle of the tails affect the frictional force applied to pipette tips when they are dispensed. a plurality of channels , wherein each channel has a diameter larger than the widest portion of a pipette tip ; a substantially flat top surface ; and a substantially flat bottom surface that comprises a plurality of tails around the channels, wherein: (i) the tails extend in a nearly perpendicular orientation from the flat bottom surface , and (ii) the tails around each channel contact and deflect outward against the proximal portion of a pipette tip when a pipette tip is dispensed and passes by the tails, thereby imparting a frictional force on the pipette tip when it is dispensed (i) the tails extend in a nearly perpendicular orientation from the flat bottom surface , and (ii) the tails around each channel contact and deflect outward against the proximal portion of a pipette tip when a pipette tip is dispensed and passes by the tails, thereby imparting a frictional force on the pipette tip when it is dispensed characterized in that the plurality of channels comprises a first subset of channels and a second subset of channels, wherein the first subset of channels in the distal barrier plate are surrounded by tails that apply a frictional force to the pipette tips and eject pipette tips of an array at one time, and the second subset of channels in the plate are surrounded by tails that apply a different frictional force to the pipette tips and eject pipette tips of the same array at another time, wherein differences in the shape, size, length, thickness, width, rigidity, texture, or angle of the tails affect the frictional force applied to pipette tips when they are dispensed.
Method of extracting a diffuse sound X d ^ from a first microphone signal and a second microphone signal ( x ), the method comprising: defining a linear constraint for filter coefficients ( w m ) of a diffuse sound filter, the linear constraint being based on a spatial coherence ( b ) between a first diffuse sound portion in the first microphone signal and a second diffuse sound portion in the second microphone signal, the first microphone signal being captured by a first microphone and the second microphone signal being captured by a second microphone spaced apart from the first microphone; calculating at least one of a direction of arrival of at least one direct sound arriving from the direction of arrival at the first and second microphones, signal statistics over the first and second microphone signals ( x ), and noise statistics over the first and second microphone signals ( x ); determining the filter coefficients ( w m ) of the diffuse sound filter by solving an optimization problem concerning at least one of the direction of arrival of the at least one direct sound when calculated in the calculating step , the signal statistics when calculated in the calculating step , and the noise statistics when calculated in the calculating step while considering the linear constraint for the filter coefficients ( w m ); and applying the filter coefficients ( w m ) of the diffuse sound filter to the first and the second microphone signals ( x ) to obtain the diffuse sound X d ^ . defining a linear constraint for filter coefficients ( w m ) of a diffuse sound filter, the linear constraint being based on a spatial coherence ( b ) between a first diffuse sound portion in the first microphone signal and a second diffuse sound portion in the second microphone signal, the first microphone signal being captured by a first microphone and the second microphone signal being captured by a second microphone spaced apart from the first microphone; calculating at least one of a direction of arrival of at least one direct sound arriving from the direction of arrival at the first and second microphones, signal statistics over the first and second microphone signals ( x ), and noise statistics over the first and second microphone signals ( x ); determining the filter coefficients ( w m ) of the diffuse sound filter by solving an optimization problem concerning at least one of the direction of arrival of the at least one direct sound when calculated in the calculating step , the signal statistics when calculated in the calculating step , and the noise statistics when calculated in the calculating step while considering the linear constraint for the filter coefficients ( w m ); and applying the filter coefficients ( w m ) of the diffuse sound filter to the first and the second microphone signals ( x ) to obtain the diffuse sound X d ^ .
A mapping device comprising circuitry configured to: - map data blocks of input bits of a first input bit stream onto first mapping symbols by use of constant composition distribution matching, CCDM, wherein said first mapping symbols are distributed according to a first predetermined probability distribution and represented by first signal points, - analyze the probability of occurrence of the first signal points representing the first mapping symbols and/or the probability of occurrence of earlier final mapping symbols previously generated by said mapping device, - determine a second probability distribution to be applied for mapping second input bits of a second input bit stream onto second mapping symbols, said second probability distribution being determined based on the analyzed probability of occurrence such that a desired final probability distribution of final mapping symbols is obtained, - map data blocks of input bits of a second input bit stream onto second mapping symbols by use of CCDM, wherein said second mapping symbols are distributed according to said second probability distribution and represented by second signal points, and - combine the first mapping symbols and the second mapping symbols into the final mapping symbols by an invertible linear combination using amplitude multiplication and addition. - map data blocks of input bits of a first input bit stream onto first mapping symbols by use of constant composition distribution matching, CCDM, wherein said first mapping symbols are distributed according to a first predetermined probability distribution and represented by first signal points, - analyze the probability of occurrence of the first signal points representing the first mapping symbols and/or the probability of occurrence of earlier final mapping symbols previously generated by said mapping device, - determine a second probability distribution to be applied for mapping second input bits of a second input bit stream onto second mapping symbols, said second probability distribution being determined based on the analyzed probability of occurrence such that a desired final probability distribution of final mapping symbols is obtained, - map data blocks of input bits of a second input bit stream onto second mapping symbols by use of CCDM, wherein said second mapping symbols are distributed according to said second probability distribution and represented by second signal points, and - combine the first mapping symbols and the second mapping symbols into the final mapping symbols by an invertible linear combination using amplitude multiplication and addition.
Edge profile for connecting two plate-shaped or disk-shaped, frameless side elements of a container, which elements each have a tip at least on their ends facing the edge profile , wherein an inner side of each side element forms an obtuse angle with the side of the tip abutting said element, wherein the edge profile has at least one first edge profile part and at least one second edge profile part which is mirror-symmetrical to the first, each cross section of which has a triangular outer portion having an outer portion hypotenuse , a first outer portion cathetus and a second outer portion cathetus , between which a right angle is formed, and has an inner portion , which is integrally formed with or securely connected to the outer portion , in the form of a right angle, wherein first inner portion catheta of the inner portions of both edge profile parts can rest firmly against a side of the tip of the respective side element and in the closed edge profile , in each case, second inner portion catheters of the inner portions of both edge profile parts are arranged on a straight line; the first outer portion catheta of the edge profile parts in the closed edge profile are parallel to one another, at a distance from one another, each of the edge profile parts in its respective outer portion having an incision in the respective outer portion cathetus which extends in parallel to the respective second outer portion cathetus , and the edge profile having a connecting and/or sealing unit being brought into the distance, which have the outer portion catheta from each other, wherein the connecting and/or sealing unit (210; 220) having connecting lugs (211; 212) cantilevering on both sides and being brought in both incisions , wherein the edge profile parts (113, 123; 114, 124; 123', 124', 183, 184) are connected with a hinge on the outer ends of their first outer portion catheta .
Packaging material consisting of an unbleached kraft paper with a Kappa number according to ISO 302:2015 between 38 and 60, preferably between 40 and 58 as base paper, wherein the kraft paper is manufactured from at least 90 % primary cellulose and has a grammage according to ISO 536:2019 between 65 g/m 2 and 170 g/m 2 , characterized in that it contains at least 90 % primary cellulose, containing at least 80 %, preferably at least 85 %, in particular at least 88 % cellulose with a length-weighted mean fibre length according to ISO 16065- 2:2014 between 2.0 mm and 2.9 mm and less than 5 %, preferably less than 4.5 %, in particular less than 4.2 % fillers as well as cationic starch and other process aids, that the primary cellulose is contained in the form of beaten cellulose, in particular, high-consistency refined cellulose having a Schopper-Riegler degree of refining according to ISO 5267-1:1999 between 13 °SR and 20 °SR, that it has a starch content of 0.5 % to 2.2 % of the paper, in particular 0.7 % to 2.0 %, that it has a strain at break ratio MD/CD according to ISO 1924-3:2005 of ≥ 1.1, a tear length in the machine direction according to ISO 1924-3:2005 of ≥10 km, and a tear index in the cross direction according to ISO 1974:2012 of ≥16.0 mN.m 2 /g.
A method comprising: combining: a template deoxyribonucleic acid (DNA); a template switching polymerase with terminal transferase activity; a template switch oligonucleotide; and dNTPs; into a reaction mixture under conditions sufficient to produce a product nucleic acid comprising the template DNA and the template switch oligonucleotide each hybridized to adjacent regions of a single product nucleic acid comprising a non-templated region polymerized from the dNTPs by the template switching polymerase wherein the template switching polymerase is a reverse transcriptase. combining: a template deoxyribonucleic acid (DNA); a template switching polymerase with terminal transferase activity; a template switch oligonucleotide; and dNTPs; a template deoxyribonucleic acid (DNA); a template switching polymerase with terminal transferase activity; a template switch oligonucleotide; and dNTPs; into a reaction mixture under conditions sufficient to produce a product nucleic acid comprising the template DNA and the template switch oligonucleotide each hybridized to adjacent regions of a single product nucleic acid comprising a non-templated region polymerized from the dNTPs by the template switching polymerase wherein the template switching polymerase is a reverse transcriptase.
An apparatus for interfacing a mobile device to one or more peripheral devices , the apparatus comprising: a first interface port configured for electrically coupling to a communication port of the mobile device; a second interface port configured for electrically coupling to one of the one or more peripheral devices; processor circuitry coupled to the first interface port and the second interface port; storage circuitry coupled to the processor circuitry, the storage circuitry storing a controller module operating system executable by the processor circuitry, the controller module operating system including device driver program code for facilitating electrical communication between the peripheral device and the mobile device without installing the device driver program code on the mobile device; characterised in that the processor circuitry is configured to intercept device driver updates directed from the peripheral device to the mobile device, and to redirect the device driver updates to update the controller module operating system. a first interface port configured for electrically coupling to a communication port of the mobile device; a second interface port configured for electrically coupling to one of the one or more peripheral devices; processor circuitry coupled to the first interface port and the second interface port; storage circuitry coupled to the processor circuitry, the storage circuitry storing a controller module operating system executable by the processor circuitry, the controller module operating system including device driver program code for facilitating electrical communication between the peripheral device and the mobile device without installing the device driver program code on the mobile device; characterised in that the processor circuitry is configured to intercept device driver updates directed from the peripheral device to the mobile device, and to redirect the device driver updates to update the controller module operating system.
An access point, AP, configured to operate as part of a basic-service set, BSS, that includes a plurality of high-efficiency WLAN, HEW, stations and a plurality of legacy stations, the BSS operating on a primary channel and one or more secondary channels , the access point comprising hardware processing circuitry that is configured to: communicate with one or more of the HEW stations on one or more of the secondary channels in accordance with a scheduled OFDMA communication technique when the primary channel is utilized for communication with one or more of the legacy devices; wherein the OFDMA communication technique is a non-contention based multiple-access technique; and wherein, during a HEW control period , the access point is configured to communication with one or more HEW stations using one or more HEW frames and refrain from communicating with the legacy station on any of the secondary channels when concurrently communicating with the one or more of the HEW stations on one or more of the secondary channels and the legacy station on the primary channel. communicate with one or more of the HEW stations on one or more of the secondary channels in accordance with a scheduled OFDMA communication technique when the primary channel is utilized for communication with one or more of the legacy devices; wherein the OFDMA communication technique is a non-contention based multiple-access technique; and wherein, during a HEW control period , the access point is configured to communication with one or more HEW stations using one or more HEW frames and refrain from communicating with the legacy station on any of the secondary channels when concurrently communicating with the one or more of the HEW stations on one or more of the secondary channels and the legacy station on the primary channel.
A codebook generating apparatus for generating a codebook for use in a multi-polarized multiple-input and multiple-output, 'MIMO', system including precoding matrices generated by: randomly combining a plurality of single-polarized precoding matrices, the plurality of single-polarized precoding matrices comprising 1 1 j − j and 1 1 1 − 1 , assigned to a plurality of diagonal blocks arranged in a block diagonal structure in which a number of diagonal blocks corresponds to a plurality of polarization directions of transmitting antennas, wherein the size of a single-polarized precoding matrix assigned to each of the diagonal blocks is determined according to the number of transmitting antennas that have the same polarization direction, and wherein for the plurality of polarization directions, this number is two; assigning a zero matrix to each of remaining blocks excluding the diagonal blocks within the block diagonal structure; and selecting, from the precoding matrices, at least one column vector according to a transmission rank corresponding to a number of data streams in the data to be transmitted, wherein the precoding matrices are reconstructed by selecting R column vectors when the transmission rank is R. randomly combining a plurality of single-polarized precoding matrices, the plurality of single-polarized precoding matrices comprising 1 1 j − j and 1 1 1 − 1 , assigned to a plurality of diagonal blocks arranged in a block diagonal structure in which a number of diagonal blocks corresponds to a plurality of polarization directions of transmitting antennas, wherein the size of a single-polarized precoding matrix assigned to each of the diagonal blocks is determined according to the number of transmitting antennas that have the same polarization direction, and wherein for the plurality of polarization directions, this number is two; assigning a zero matrix to each of remaining blocks excluding the diagonal blocks within the block diagonal structure; and selecting, from the precoding matrices, at least one column vector according to a transmission rank corresponding to a number of data streams in the data to be transmitted, wherein the precoding matrices are reconstructed by selecting R column vectors when the transmission rank is R.
A battery module (A), comprising: a battery cell , comprising electrode terminals ; and an insulation board , disposed on a top of the battery cell , wherein the insulation board comprises a body portion and a first bulge protruding in relation to the body portion ; wherein the first bulge comprises a sidewall connected to the body portion and a top wall connected to a top of the sidewall , the sidewall and the top wall are configured to close in to form an accommodation cavity, at least a part of each electrode terminal is accommodated in the accommodation cavity, and the top wall covers a part of the electrode terminal ; a via hole is disposed on the top wall , the via hole runs through to the accommodation cavity, and a part of the electrode terminal is exposed out of the via hole ; and the electrode terminal comprises a base portion and a first connecting portion protruding from the base portion , the top wall covers at least a part of the base portion , and the first connecting portion is exposed out of the via hole . a battery cell , comprising electrode terminals ; and an insulation board , disposed on a top of the battery cell , wherein the insulation board comprises a body portion and a first bulge protruding in relation to the body portion ; wherein the first bulge comprises a sidewall connected to the body portion and a top wall connected to a top of the sidewall , the sidewall and the top wall are configured to close in to form an accommodation cavity, at least a part of each electrode terminal is accommodated in the accommodation cavity, and the top wall covers a part of the electrode terminal ; a via hole is disposed on the top wall , the via hole runs through to the accommodation cavity, and a part of the electrode terminal is exposed out of the via hole ; and the electrode terminal comprises a base portion and a first connecting portion protruding from the base portion , the top wall covers at least a part of the base portion , and the first connecting portion is exposed out of the via hole .
A coating formed from a thermal spray feedstock material, the coating comprising: a matrix formed from a powder that, under equilibrium solidification conditions with 4wt% oxygen added, has at 1300K 7.5 to 30 mol% oxide phase comprising greater than 10 wt% aluminum; wherein the thermal feedstock material comprises the powder; and wherein the thermal feedstock material consists of, in wt. %: Al: 1.5 to 4.5; and C: 0.2 to 1.6; other elements and inevitable impurities: less than 1% each; and Fe: balance. a matrix formed from a powder that, under equilibrium solidification conditions with 4wt% oxygen added, has at 1300K 7.5 to 30 mol% oxide phase comprising greater than 10 wt% aluminum; wherein the thermal feedstock material comprises the powder; and wherein the thermal feedstock material consists of, in wt. %: Al: 1.5 to 4.5; and C: 0.2 to 1.6; other elements and inevitable impurities: less than 1% each; and Fe: balance. Al: 1.5 to 4.5; and C: 0.2 to 1.6; other elements and inevitable impurities: less than 1% each; and Fe: balance.
An electrode comprising a binder, the binder comprising a copolymer comprising vinylidene fluoride and a halogenated monomer : wherein: - R 1 , R 2 , and R 3 is a hydrogen or a halogen selected from F, Cl, Br and I, and at least one is a halogen; - R 4 is hydrogen, CH 3 , a fluorinated oligomer of hexafluoropropylene oxide, an alkali metal selected from lithium, sodium, potassium, rubidium and cesium, ammonium, alkylammonium, or alkyl aryl ammonium ion. - R 1 , R 2 , and R 3 is a hydrogen or a halogen selected from F, Cl, Br and I, and at least one is a halogen; - R 4 is hydrogen, CH 3 , a fluorinated oligomer of hexafluoropropylene oxide, an alkali metal selected from lithium, sodium, potassium, rubidium and cesium, ammonium, alkylammonium, or alkyl aryl ammonium ion.