mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication, comprising: receiving, at a mobile device , a standard offload policy via an access network discover and selection function, ANDSF, from a core network to indicate a priority for offloading data to a wireless local area network, WLAN , associated with the mobile device ; the method being characterised by receiving, at the mobile device , a dynamic indication from a wireless wide area network, WWAN, access point that changes the standard offload policy received from the core network ; suspending application of the standard network offload policy at the mobile device based on the dynamic indication received from the WWAN access point ; and transmitting data to a second WLAN in response to the dynamic indication from the WWAN access point . receiving, at a mobile device , a standard offload policy via an access network discover and selection function, ANDSF, from a core network to indicate a priority for offloading data to a wireless local area network, WLAN , associated with the mobile device ; the method being characterised by receiving, at the mobile device , a dynamic indication from a wireless wide area network, WWAN, access point that changes the standard offload policy received from the core network ; suspending application of the standard network offload policy at the mobile device based on the dynamic indication received from the WWAN access point ; and transmitting data to a second WLAN in response to the dynamic indication from the WWAN access point .
A receiver, wherein the receiver is configured to receive encoded data over a channel from a transmitter, wherein the data is parity-check encoded to obtain a codeword, wherein the codeword is defined by a plurality of variable nodes associated with a plurality of the check nodes of a bipartite graph representing the code, wherein the codeword is received over the channel such that certain variable nodes, which are associated with a subset of the check nodes of the bipartite graph, are received prior to other variable nodes, and wherein the certain variable nodes define a subcodeword known by the receiver; wherein the receiver is configured to estimate a decodability of the transmitted codeword using the subcodeword prior to receiving all variable nodes of the codeword; wherein, responsive to an estimation indicating that the codeword cannot be decoded, the receiver is configured to request from the transmitter additional redundancy; and wherein, responsive to an estimation indicating that the codeword can be decoded, the receiver is configured to signal the transmitter to stop transmitting additional redundancy.
An oral care composition comprising: a. from 0.01% to 5% of a stannous ion source, wherein the stannous ion comprises stannous chloride or a combination of stannous salts selected from stannous chloride and stannous fluoride; b. from 0.5% to 3% of a thickener comprising at least 3 agents selected from the group consisting of: i) a linear sulfated polysaccharide; ii) a natural gum; and iii) hydroxyethyl cellulose (HEC) being a non-ionic cellulose derivative having an average molecular weight range of 90,000 g/mol to 1,300,000 g/mol and an average degree of polymerization from 300 to 4,800; and c. from 30% to 70% of a total water content; wherein the composition has a pH between 5 to 7 wherein the composition comprises less than 1% of a charged cellulose derivative having greater than 0.5 charged groups per sugar residue unit along the polysaccharide backbone and wherein the charged cellulose derivative is carboxymethyl cellulose (CMC). a. from 0.01% to 5% of a stannous ion source, wherein the stannous ion comprises stannous chloride or a combination of stannous salts selected from stannous chloride and stannous fluoride; b. from 0.5% to 3% of a thickener comprising at least 3 agents selected from the group consisting of: i) a linear sulfated polysaccharide; ii) a natural gum; and iii) hydroxyethyl cellulose (HEC) being a non-ionic cellulose derivative having an average molecular weight range of 90,000 g/mol to 1,300,000 g/mol and an average degree of polymerization from 300 to 4,800; and i) a linear sulfated polysaccharide; ii) a natural gum; and iii) hydroxyethyl cellulose (HEC) being a non-ionic cellulose derivative having an average molecular weight range of 90,000 g/mol to 1,300,000 g/mol and an average degree of polymerization from 300 to 4,800; and c. from 30% to 70% of a total water content; wherein the composition has a pH between 5 to 7 wherein the composition comprises less than 1% of a charged cellulose derivative having greater than 0.5 charged groups per sugar residue unit along the polysaccharide backbone and wherein the charged cellulose derivative is carboxymethyl cellulose (CMC).
A wear-levelling apparatus (124, 524 or 624) for a cyclone (100, 500 or 600), comprising: an upper section defining an upper portion (200-1) of a frusto-conical channel configured to receive material for delivery to a lower portion (200-2) of the channel ; a bearing assembly connected to the upper section ; and a lower section coupled to the upper section by the bearing assembly to permit rotation of the lower section about an axis of the channel ; the lower section defining a lower portion (200-2) of the channel configured to receive the material from the upper portion (200-1) for discharge toward an outlet of the cyclone . an upper section defining an upper portion (200-1) of a frusto-conical channel configured to receive material for delivery to a lower portion (200-2) of the channel ; a bearing assembly connected to the upper section ; and a lower section coupled to the upper section by the bearing assembly to permit rotation of the lower section about an axis of the channel ; the lower section defining a lower portion (200-2) of the channel configured to receive the material from the upper portion (200-1) for discharge toward an outlet of the cyclone .
A compound having the Formula (I) or a stereoisomeric form thereof, wherein R 1 is CHF 2 or CH 3 ; A is a radical selected from (a-1) and (a-2) wherein R 2 is selected from 2-pyridyl, 1-isoquinolinyl, 4-quinazolinyl, 1H-pyrrolo[3,2-c]-pyridin-4-yl, and furo[3,2-c]pyridin-4-yl; each of which is optionally substituted with 1 or 2 substituents each independently selected from the group consisting of halo, OH, -CN; C 1-4 alkyl optionally substituted with 1, 2 or 3 independently selected halo substituents; C 1-4 alkyloxy optionally substituted with 1, 2 or 3 independently selected halo substituents; and 1-morpholinyl; or a pharmaceutically acceptable salt or a solvate thereof. R 1 is CHF 2 or CH 3 ; A is a radical selected from (a-1) and (a-2) wherein R 2 is selected from 2-pyridyl, 1-isoquinolinyl, 4-quinazolinyl, 1H-pyrrolo[3,2-c]-pyridin-4-yl, and furo[3,2-c]pyridin-4-yl; each of which is optionally substituted with 1 or 2 substituents each independently selected from the group consisting of halo, OH, -CN; C 1-4 alkyl optionally substituted with 1, 2 or 3 independently selected halo substituents; C 1-4 alkyloxy optionally substituted with 1, 2 or 3 independently selected halo substituents; and 1-morpholinyl;
An apparatus , comprising: a sensor assembly , including: a electrical transmission-line assembly , including: a shield assembly and a core assembly , wherein the core assembly includes a planar-shaped electrical conductor, wherein the shield assembly surrounds, at least in part, the core assembly , and an electrical transmission-line parameter including a transmission-line impedance being configured to change, at least in part, in response to reception, at least in part, of a vehicular load of a moving vehicle, the moving vehicle travelling along a vehicular roadway, and the electrical transmission-line assembly being positionable, at least in part, relative to the vehicular roadway; wherein the electrical transmission-line impedance is configured to: change, at least in part, in response to reception of the vehicular load from the moving vehicle in such a way that an aspect of an incident electrical waveform being carried, at least in part, by the electrical transmission-line assembly is reflected back to a source of the incident electrical waveform in response to the electrical transmission-line assembly receiving the vehicular load. a electrical transmission-line assembly , including: a shield assembly and a core assembly , wherein the core assembly includes a planar-shaped electrical conductor, wherein the shield assembly surrounds, at least in part, the core assembly , and an electrical transmission-line parameter including a transmission-line impedance being configured to change, at least in part, in response to reception, at least in part, of a vehicular load of a moving vehicle, the moving vehicle travelling along a vehicular roadway, and a shield assembly and a core assembly , wherein the core assembly includes a planar-shaped electrical conductor, wherein the shield assembly surrounds, at least in part, the core assembly , and an electrical transmission-line parameter including a transmission-line impedance being configured to change, at least in part, in response to reception, at least in part, of a vehicular load of a moving vehicle, the moving vehicle travelling along a vehicular roadway, and the electrical transmission-line assembly being positionable, at least in part, relative to the vehicular roadway; wherein the electrical transmission-line impedance is configured to: change, at least in part, in response to reception of the vehicular load from the moving vehicle in such a way that an aspect of an incident electrical waveform being carried, at least in part, by the electrical transmission-line assembly is reflected back to a source of the incident electrical waveform in response to the electrical transmission-line assembly receiving the vehicular load.
An oral rehydration composition that is ready to use or to be diluted in water, wherein said composition comprises, when ready to use or diluted in water, one of the following: a) - 1.45% w/w glucose monohydrate; - 0.26% w/w sodium chloride; - 0.15% w/w potassium chloride; - 0.30% w/w glycine; - 0.10% w/w sodium dihydrogen phosphate; - 0.10% w/w xanthan gum; - 0.20% w/w citric acid monohydrate; - 0.15% w/w hydrolysed whey protein; - 0.04% w/w I-glutamic acid; - 0.25% w/w monosodium glutamate; - 0.001% w/w 85% Steviol Glycoside extract; b) - 1.5% w/w glucose monohydrate; - 0.26% w/w sodium chloride; - 0.15% w/w potassium chloride; - 0.40% w/w glycine; - 0.29% w/w trisodiumcitrate; - 0.05% w/w xanthan gum; - 1.00% w/w hydrolysed whey protein; - 0.04% w/w I-glutamic acid; - 0.04% w/w monosodium glutamate; and c) - 1.5% w/w glucose monohydrate; - 0.26% w/w sodium chloride; - 0.15% w/w potassium chloride; - 0.40% w/w glycine; - 0.10% w/w sodium hydrogen phosphate; - 0.05% w/w xanthan gum; - 1.00% w/w hydrolysed whey protein; - 0.04% w/w I-glutamic acid; - 0.04% w/w monosodium glutamate. a) - 1.45% w/w glucose monohydrate; - 0.26% w/w sodium chloride; - 0.15% w/w potassium chloride; - 0.30% w/w glycine; - 0.10% w/w sodium dihydrogen phosphate; - 0.10% w/w xanthan gum; - 0.20% w/w citric acid monohydrate; - 0.15% w/w hydrolysed whey protein; - 0.04% w/w I-glutamic acid; - 0.25% w/w monosodium glutamate; - 0.001% w/w 85% Steviol Glycoside extract; - 1.45% w/w glucose monohydrate; - 0.26% w/w sodium chloride; - 0.15% w/w potassium chloride; - 0.30% w/w glycine; - 0.10% w/w sodium dihydrogen phosphate; - 0.10% w/w xanthan gum; - 0.20% w/w citric acid monohydrate; - 0.15% w/w hydrolysed whey protein; - 0.04% w/w I-glutamic acid; - 0.25% w/w monosodium glutamate; - 0.001% w/w 85% Steviol Glycoside extract; b) - 1.5% w/w glucose monohydrate; - 0.26% w/w sodium chloride; - 0.15% w/w potassium chloride; - 0.40% w/w glycine; - 0.29% w/w trisodiumcitrate; - 0.05% w/w xanthan gum; - 1.00% w/w hydrolysed whey protein; - 0.04% w/w I-glutamic acid; - 0.04% w/w monosodium glutamate; and - 1.5% w/w glucose monohydrate; - 0.26% w/w sodium chloride; - 0.15% w/w potassium chloride; - 0.40% w/w glycine; - 0.29% w/w trisodiumcitrate; - 0.05% w/w xanthan gum; - 1.00% w/w hydrolysed whey protein; - 0.04% w/w I-glutamic acid; - 0.04% w/w monosodium glutamate; and c) - 1.5% w/w glucose monohydrate; - 0.26% w/w sodium chloride; - 0.15% w/w potassium chloride; - 0.40% w/w glycine; - 0.10% w/w sodium hydrogen phosphate; - 0.05% w/w xanthan gum; - 1.00% w/w hydrolysed whey protein; - 0.04% w/w I-glutamic acid; - 0.04% w/w monosodium glutamate. - 1.5% w/w glucose monohydrate; - 0.26% w/w sodium chloride; - 0.15% w/w potassium chloride; - 0.40% w/w glycine; - 0.10% w/w sodium hydrogen phosphate; - 0.05% w/w xanthan gum; - 1.00% w/w hydrolysed whey protein; - 0.04% w/w I-glutamic acid; - 0.04% w/w monosodium glutamate.
A composition for coating edible fruit in the form of a dispersion with water as the dispersant and comprising a plurality of dispersed substances, comprising A) a polymer or a mixture of polymers, comprising A1) a linear homopolymer or copolymer of vinyl alcohol having a hydrolysis degree between 75 and 100% or a combination thereof, wherein said polymer of vinyl alcohol constitutes at least 50% by weight of the total weight of the dispersed polymeric substances; or A2) a linear homopolymer or copolymer of vinyl alcohol having a hydrolysis degree between 75 and 100% or a combination thereof, and a polymer produced from the monomers vinyl acetate and ethylene and optionally a vinyl ester of a highly branched carboxylic acid; and B) a spacing agent, wherein said spacing agent is present in an amount between 0,001 and 0,9 % by weight based on the weight of the polymers within the composition, and wherein the spacing agent is a polyol. A) a polymer or a mixture of polymers, comprising A1) a linear homopolymer or copolymer of vinyl alcohol having a hydrolysis degree between 75 and 100% or a combination thereof, wherein said polymer of vinyl alcohol constitutes at least 50% by weight of the total weight of the dispersed polymeric substances; or A2) a linear homopolymer or copolymer of vinyl alcohol having a hydrolysis degree between 75 and 100% or a combination thereof, and a polymer produced from the monomers vinyl acetate and ethylene and optionally a vinyl ester of a highly branched carboxylic acid; and A1) a linear homopolymer or copolymer of vinyl alcohol having a hydrolysis degree between 75 and 100% or a combination thereof, wherein said polymer of vinyl alcohol constitutes at least 50% by weight of the total weight of the dispersed polymeric substances; or A2) a linear homopolymer or copolymer of vinyl alcohol having a hydrolysis degree between 75 and 100% or a combination thereof, and a polymer produced from the monomers vinyl acetate and ethylene and optionally a vinyl ester of a highly branched carboxylic acid; and B) a spacing agent, wherein said spacing agent is present in an amount between 0,001 and 0,9 % by weight based on the weight of the polymers within the composition, and wherein the spacing agent is a polyol.
Arrangement with an angle measurement device and with a chassis of a vehicle, wherein the chassis comprises a control arm and a pivot bearing with a pivot axis (a), wherein the control arm is pivotable about the pivot axis (a) and wherein the angle measurement device comprises a sensor and a signal emitter , wherein the sensor is arranged on the control arm in the region of the pivot axis (a) and the signal emitter is arranged on the pivot bearing and the control arm has on the bearing side an annular eye with a receiving opening for the pivot bearing , and the eye has an outer surface and the sensor is arranged on and fixed to the outer surface, wherein the outer surface has a recess in which the sensor is guided and held, wherein the recess is worked into the outer surface of the eye in the form of a depression, so that the sensor is provided with guidance on the control arm , wherein the recess is adapted to the form of the sensor , so that the latter is provided with lateral guidance and consequently also securement against twisting, and the recess has two parallel guiding surfaces and a stopping surface on the end face, wherein a third side is open, so that the sensor is pushed into the recess and fixed there, and wherein an underside of the sensor lies flat on a bottom of the recess , which is formed as a depression with respect to the outer circumference of the eye .
An electronic pen cartridge for being housed in a tubular pen housing of an electronic pen such that at least a pen tip is projectable from an opening on one side in an axial direction of the pen housing, the electronic pen cartridge comprising: a tubular cartridge housing ; an electronic circuit that is disposed in the cartridge housing and that includes a signal transmission circuit configured to generate a signal to be supplied to a position detection sensor; a rechargeable power storage device that is disposed in the cartridge housing and that is configured to supply a power supply voltage to the electronic circuit; and a coil , wherein the power storage device is configured to be charged by a current induced in the coil based on an externally supplied magnetic field, wherein the electronic pen cartridge is characterized in that the coil is wound around an outside of a rear end portion of the cartridge housing, the rear end portion being located on a side of the cartridge housing opposite from the pen tip side in the axial direction of the cartridge housing. a tubular cartridge housing ; an electronic circuit that is disposed in the cartridge housing and that includes a signal transmission circuit configured to generate a signal to be supplied to a position detection sensor; a rechargeable power storage device that is disposed in the cartridge housing and that is configured to supply a power supply voltage to the electronic circuit; and a coil , wherein the power storage device is configured to be charged by a current induced in the coil based on an externally supplied magnetic field, wherein the electronic pen cartridge is characterized in that the coil is wound around an outside of a rear end portion of the cartridge housing, the rear end portion being located on a side of the cartridge housing opposite from the pen tip side in the axial direction of the cartridge housing.
A mounting system for performing an installation operation in an elevator shaft of an elevator system, comprising - a mounting apparatus having a carrier component and a mechatronic installation component , - a displacement component which is arranged above the mounting apparatus , - a suspension means which is fixed at least indirectly to the carrier component and - a deflection roller for deflecting the suspension means between the displacement component and the carrier component , wherein - the displacement component can displace the mounting apparatus in the elevator shaft by means of the suspension means , - the carrier component is supported on a supporting wall of the elevator shaft via an upper support roller , at least during displacement in the elevator shaft , - the suspension means has, between the deflection roller and the carrier component , a diagonal pull (α) with respect to the vertical in the direction of the supporting wall of the elevator shaft , and - the suspension means is guided via the deflection roller such that said diagonal pull (α) can be varied by displacing the deflection roller , characterized in that the deflection roller is arranged via a holding apparatus on a boundary surface of the elevator shaft such that it protrudes into the elevator shaft . - a mounting apparatus having a carrier component and a mechatronic installation component , - a displacement component which is arranged above the mounting apparatus , - a suspension means which is fixed at least indirectly to the carrier component and - a deflection roller for deflecting the suspension means between the displacement component and the carrier component , - the displacement component can displace the mounting apparatus in the elevator shaft by means of the suspension means , - the carrier component is supported on a supporting wall of the elevator shaft via an upper support roller , at least during displacement in the elevator shaft , - the suspension means has, between the deflection roller and the carrier component , a diagonal pull (α) with respect to the vertical in the direction of the supporting wall of the elevator shaft , and - the suspension means is guided via the deflection roller such that said diagonal pull (α) can be varied by displacing the deflection roller ,
A method for allocating memory in a hybrid parallel/serial memory system, the method comprising: configuring a memory address map for a multi-rank memory system with a dedicated serial access region in a first memory rank and a dedicated parallel access region in a second memory rank ; receiving a request for a virtual memory page; and if the request comprises a performance hint, selectively assigning the virtual memory page to both a free physical page in the dedicated serial access region in the first memory rank via a serial access interface and the dedicated parallel access region in the second memory rank via a parallel access interface , wherein the memory address map comprises an additional dedicated parallel access region in one or more of the first and second memory ranks. configuring a memory address map for a multi-rank memory system with a dedicated serial access region in a first memory rank and a dedicated parallel access region in a second memory rank ; receiving a request for a virtual memory page; and if the request comprises a performance hint, selectively assigning the virtual memory page to both a free physical page in the dedicated serial access region in the first memory rank via a serial access interface and the dedicated parallel access region in the second memory rank via a parallel access interface , wherein the memory address map comprises an additional dedicated parallel access region in one or more of the first and second memory ranks.