mhurhangee/patent-ind-claim-en huggingface dataset:
A flat-based foundation for a structural component , especially for a projecting structure, particularly for a wind turbine tower, with a foundation plate having an underside , an upperside and a center (MP), wherein the foundation has at least one initial, not load-transferring soft layer insert on or underneath the underside of the foundation plate , characterized in that , the at least one initial soft layer insert is arranged at a distance from the center (MP) and the foundation is split into at least one inner load-transferring area , which is located closer to the center point and at least one outer load-transferring area , which is located further away from the center point.
An extensively hydrolysed infant formula (eHF) comprising protein, carbohydrate and fat, wherein the eHF comprises about 2.4 g or less protein per 100 kcal, wherein about 30% or less by weight of the fat is medium chain triglycerides (MCTs), and wherein the eHF comprises 2'FL in an amount of 0.5-3 g/L and LNnT in an amount of 0.2-1 g/L.
Assistance method for a driver of a vehicle (VS) comprising communication means (MC) capable of exchanging messages by means of waves, characterised in that it comprises a step in which predefined routes to be followed, or to be followed, by other vehicles (Vj) are determined in the said vehicle (VS), then these predefined routes are compared with a chosen route which the said vehicle (VS) is about to follow in order to determine the predefined route having the greatest common part with the said chosen route of the vehicle (VS), then the vehicle having the said predefined route determined is chosen as the so-called pilot vehicle in order to use information transmitted by waves by this pilot vehicle and representative of traffic and/or meteorological conditions encountered, of a possible modification of its predefined route, and of a possible event suffered, to inform a driver of the said vehicle (VS) and to propose to this driver a possible modification of the said chosen route and/or a possible event.
An undulated hollow fiber membrane for extracorporeal blood treatment, comprising at least a first hydrophobic polymer selected from the group of polyaryl ethers (polysulfones, polyaryl ketones, polyether ketones), polyamides, polyesters, polycarbonates, polyacrylates and -methacrylates, polymethacrylimides, polyvinylidene fluorides, polyimides or polyacrylonitriles or copolymers comprising corresponding monomer units of said polymers or mixtures of said polymers, and at least one second hydrophilic polymer selected from the group of polyvinylpyrrolidones or polyethylene glycols or mixtures thereof, having a wall thickness (w) of 20 μm or more and 30 μm or less, an amplitude (a) of the waveform in the range from 0.005 to 0.15 mm, in particular from 0.01 to 0.12 mm, and a luminal diameter (I) of 160 to 230 μm, characterized in that that the waveform of the hollow fiber membrane has a wavelength (λ) in the range from more than 1 mm to 4 mm or from more than 1 mm and less than 4 mm, and characterized in that the porosity of the hollow fiber membrane is greater than 65% and less than 78%, wherein the porosity is determined as defined in the description. a first hydrophobic polymer selected from the group of polyaryl ethers (polysulfones, polyaryl ketones, polyether ketones), polyamides, polyesters, polycarbonates, polyacrylates and -methacrylates, polymethacrylimides, polyvinylidene fluorides, polyimides or polyacrylonitriles or copolymers comprising corresponding monomer units of said polymers or mixtures of said polymers, and at least one second hydrophilic polymer selected from the group of polyvinylpyrrolidones or polyethylene glycols or mixtures thereof, having a wall thickness (w) of 20 μm or more and 30 μm or less, an amplitude (a) of the waveform in the range from 0.005 to 0.15 mm, in particular from 0.01 to 0.12 mm, and a luminal diameter (I) of 160 to 230 μm, characterized in that that the waveform of the hollow fiber membrane has a wavelength (λ) in the range from more than 1 mm to 4 mm or from more than 1 mm and less than 4 mm, and characterized in that the porosity of the hollow fiber membrane is greater than 65% and less than 78%, wherein the porosity is determined as defined in the description.
A transport refrigeration system comprising: a vehicle having a refrigerated cargo space; a refrigeration unit in operative association with the refrigerated cargo space, the refrigeration unit providing conditioned air to the refrigerated cargo space; a first engine configured to power the vehicle ; a second engine configured to power the refrigeration unit ; a first fuel tank fluidly connected to the first engine , the first fuel tank configured to supply fuel to the first engine ; a second fuel tank fluidly connected to the second engine , the second fuel tank configured to supply fuel to the second engine ; characterized in that the first fuel tank is a first plurality of fuel tanks ; the second fuel tank is a second plurality of fuel tanks ; the transport refrigeration system comprises a single filling point fluidly connected to the first plurality of fuel tanks and the second plurality of fuel tanks ; and the single filling point is configured to receive fuel. a vehicle having a refrigerated cargo space; a refrigeration unit in operative association with the refrigerated cargo space, the refrigeration unit providing conditioned air to the refrigerated cargo space; a first engine configured to power the vehicle ; a second engine configured to power the refrigeration unit ; a first fuel tank fluidly connected to the first engine , the first fuel tank configured to supply fuel to the first engine ; a second fuel tank fluidly connected to the second engine , the second fuel tank configured to supply fuel to the second engine ; characterized in that the first fuel tank is a first plurality of fuel tanks ; the second fuel tank is a second plurality of fuel tanks ; the transport refrigeration system comprises a single filling point fluidly connected to the first plurality of fuel tanks and the second plurality of fuel tanks ; and the single filling point is configured to receive fuel.
A method performed by a first wireless communication node, the method comprising: transmitting, to a second wireless communication node, configuration information for a minimization of drive test, MDT, measurement, wherein the first wireless communication node and the second wireless communication node are both nodes in a wireless network, and wherein the MDT measurement is to be executed by a wireless communication device in the wireless network; and receiving, from the second wireless communication node, a feedback in response to the configuration information for the MDT measurement, the feedback comprising a conflict indication indicating that the second wireless communication node has triggered an existing MDT measurement, which is same as the MDT measurement, on the wireless communication device; and stopping the MDT measurement at the first wireless communication node in response to the feedback. transmitting, to a second wireless communication node, configuration information for a minimization of drive test, MDT, measurement, wherein the first wireless communication node and the second wireless communication node are both nodes in a wireless network, and wherein the MDT measurement is to be executed by a wireless communication device in the wireless network; and receiving, from the second wireless communication node, a feedback in response to the configuration information for the MDT measurement, the feedback comprising a conflict indication indicating that the second wireless communication node has triggered an existing MDT measurement, which is same as the MDT measurement, on the wireless communication device; and stopping the MDT measurement at the first wireless communication node in response to the feedback.
A user equipment , comprising: a reception unit configured to monitor a Physical Downlink Control CHannel, PDCCH; and a reception control unit configured to identify a subcarrier spacing; wherein the reception control unit identifies, based on information included in a Master Information Block, the subcarrier spacing, and the reception unit receives the PDCCH of the identified subcarrier spacing. a reception unit configured to monitor a Physical Downlink Control CHannel, PDCCH; and a reception control unit configured to identify a subcarrier spacing; wherein the reception control unit identifies, based on information included in a Master Information Block, the subcarrier spacing, and the reception unit receives the PDCCH of the identified subcarrier spacing.
Macro blister pack, comprising a flat body, in which cavities for receiving individual medicinal product portions are formed, wherein the cavities are filled with individual medicinal product portions and sealed by a film, wherein the macro blister pack contains a number T of medicinal product portions, characterized in that T is at least 60 and the flat body has an extent in the range from 200 mm x 200 mm to 1200 mm x 1200 mm.
A medical electrical lead comprising: an insulative lead body extending from a distal region to a proximal region; a conductor disposed within the insulative lead body and extending from the proximal region to the distal region ; an electrode disposed on the insulative lead body and in electrical contact with the conductor ; and a fibrous matrix disposed on at least part of the electrode, the fibrous matrix including fibers, the fibers including: a polyvinylidene fluoride-based (PVDF-based) polymer including an amorphous PVDF phase and a crystalline PVDF phase, wherein the crystalline PVDF phase includes a beta form crystalline structure in an amount exceeding any other crystalline structure form in the crystalline PVDF phase; and a crystal-modifying additive. an insulative lead body extending from a distal region to a proximal region; a conductor disposed within the insulative lead body and extending from the proximal region to the distal region ; an electrode disposed on the insulative lead body and in electrical contact with the conductor ; and a fibrous matrix disposed on at least part of the electrode, the fibrous matrix including fibers, the fibers including: a polyvinylidene fluoride-based (PVDF-based) polymer including an amorphous PVDF phase and a crystalline PVDF phase, wherein the crystalline PVDF phase includes a beta form crystalline structure in an amount exceeding any other crystalline structure form in the crystalline PVDF phase; and a crystal-modifying additive.
A method of making an optical fiber preform comprising the steps of: (i) exposing a silica based preform with a soot layer, which comprises at least one porous glass region of silica based soot with soot density of p, at a doping temperature T dop to a gas mixture comprising SiCl 4 and having SiCl 4 mole fraction y SiCl4 such that parameter X is larger than 0.03 and 0.015 < y SiCl4 < 0.03 to form a chlorine (Cl) treated preform with Cl doped region, wherein X = 1 1 + ρ ρ s − ρ 0.21 T dop Exp − 5435.33 / T dop y SiC14 3 / 4 ρ s is the density of the fully densified soot layer and ρ <ρ s ; and (ii) exposing the chlorine treated preform to temperatures above 1400 °C to completely sinter the chlorine treated preform and producing a sintered optical fiber preform with a chlorine doped region having a chlorine doped profile. (i) exposing a silica based preform with a soot layer, which comprises at least one porous glass region of silica based soot with soot density of p, at a doping temperature T dop to a gas mixture comprising SiCl 4 and having SiCl 4 mole fraction y SiCl4 such that parameter X is larger than 0.03 and 0.015 < y SiCl4 < 0.03 to form a chlorine (Cl) treated preform with Cl doped region, wherein X = 1 1 + ρ ρ s − ρ 0.21 T dop Exp − 5435.33 / T dop y SiC14 3 / 4 ρ s is the density of the fully densified soot layer and ρ <ρ s ; and (ii) exposing the chlorine treated preform to temperatures above 1400 °C to completely sinter the chlorine treated preform and producing a sintered optical fiber preform with a chlorine doped region having a chlorine doped profile.
A staple removal device for removing a staple and wire arrangement from a fence post, comprising: a main body comprising a first jaw and a second jaw spaced apart from each other, the first jaw providing a first elongate channel for receiving the wire on one side of the staple and the second jaw providing a second elongate channel for receiving the wire on a second side of the staple, both the first and second elongate channels having a closed end forming a contact region with the wire either side of the staple to be removed; at least one gripping member moveably connected to the main body and moveable relative to the first and second jaw; a lever configured in mechanical communication with the gripping member and for actuating movement of the gripping member to clamp the wire against the closed ends to cause removal of the staple and wire arrangement; and a block portion configured at a surface of the main body characterised in that a side edge of the block portion is substantially in alignment with the closed end of the first channel so as to, in use, increase the surface area of the contact region between the staple removal device and the wire. a main body comprising a first jaw and a second jaw spaced apart from each other, the first jaw providing a first elongate channel for receiving the wire on one side of the staple and the second jaw providing a second elongate channel for receiving the wire on a second side of the staple, both the first and second elongate channels having a closed end forming a contact region with the wire either side of the staple to be removed; at least one gripping member moveably connected to the main body and moveable relative to the first and second jaw; a lever configured in mechanical communication with the gripping member and for actuating movement of the gripping member to clamp the wire against the closed ends to cause removal of the staple and wire arrangement; and a block portion configured at a surface of the main body characterised in that a side edge of the block portion is substantially in alignment with the closed end of the first channel so as to, in use, increase the surface area of the contact region between the staple removal device and the wire.
Seal for a battery housing of a high-voltage battery of a motor vehicle, which - can be transferred from a production position, which is provided for a production tool, to an installation position, which is provided for the battery housing and in which the seal has a greater external dimension than in the production position, - has a seal body for arrangement between a housing flange of a housing lower part of the battery housing and a housing cover of the battery housing, and - has positioning elements and fixing elements for positioning and fixing the seal body on the housing flange, wherein - the seal body is configured in the form of a one-part, frame-like seal ring composed of an elastic plastic and has at least one seal body portion of reversibly variable length with fold regions , - the at least one seal body portion provides, in the folded state of the fold regions , the production position of the seal and, in the unfolded state of the fold regions , the installation position of the seal , and - positioning regions and fixing regions , which are formed away from the fold regions in the seal body and in which the positioning elements and fixing elements are arranged, are configured with a greater width (B1) than the fold regions . - can be transferred from a production position, which is provided for a production tool, to an installation position, which is provided for the battery housing and in which the seal has a greater external dimension than in the production position, - has a seal body for arrangement between a housing flange of a housing lower part of the battery housing and a housing cover of the battery housing, and - has positioning elements and fixing elements for positioning and fixing the seal body on the housing flange, - the seal body is configured in the form of a one-part, frame-like seal ring composed of an elastic plastic and has at least one seal body portion of reversibly variable length with fold regions , - the at least one seal body portion provides, in the folded state of the fold regions , the production position of the seal and, in the unfolded state of the fold regions , the installation position of the seal , and - positioning regions and fixing regions , which are formed away from the fold regions in the seal body and in which the positioning elements and fixing elements are arranged, are configured with a greater width (B1) than the fold regions .
A system comprising: a peripheral device having a wireless long range transceiver and a microcontroller ; a first control hub having a wireless long range transceiver , one or more hardware processors , and hardware memory that stores first instructions that when executed by the one or more hardware processors, cause the one or more hardware processor to: transmit a control instruction to the peripheral device via a control signal via the wireless long range transceiver, listen for a response from the peripheral device in response to the control instruction; and transmit a takeover request to a second control hub when the response is not received within an expected response time after the control signal is transmitted; and the second control hub having a wireless long range transceiver, one or more hardware processors, and hardware memory that stores second instructions that when executed by the one or more hardware processors, cause the one or more hardware processors to: receive the takeover request from the primary control hub, and transmit the control instruction to the peripheral device via the wireless long range transceiver. a peripheral device having a wireless long range transceiver and a microcontroller ; a first control hub having a wireless long range transceiver , one or more hardware processors , and hardware memory that stores first instructions that when executed by the one or more hardware processors, cause the one or more hardware processor to: transmit a control instruction to the peripheral device via a control signal via the wireless long range transceiver, listen for a response from the peripheral device in response to the control instruction; and transmit a takeover request to a second control hub when the response is not received within an expected response time after the control signal is transmitted; and transmit a control instruction to the peripheral device via a control signal via the wireless long range transceiver, listen for a response from the peripheral device in response to the control instruction; and transmit a takeover request to a second control hub when the response is not received within an expected response time after the control signal is transmitted; and the second control hub having a wireless long range transceiver, one or more hardware processors, and hardware memory that stores second instructions that when executed by the one or more hardware processors, cause the one or more hardware processors to: receive the takeover request from the primary control hub, and transmit the control instruction to the peripheral device via the wireless long range transceiver. receive the takeover request from the primary control hub, and transmit the control instruction to the peripheral device via the wireless long range transceiver.
A network element comprising: a fabric card ; and a line card , coupled to the fabric card , the line card including, a plurality of mid-plane connectors , wherein one of the plurality of mid-plane connectors is to couple the line card to the fabric card , a plurality of network connectors to communicate data with devices coupled to the network element, and a plurality of application specific integrated components, ASICs, to process the data, wherein each of the plurality of ASICs is coupled to each of the plurality of mid-plane connectors by a different mid-plane connector ASIC path and each of the plurality of ASICs is further coupled to each of the plurality of network connectors by a different network connector ASIC path , and each of the different mid-plane connector ASIC paths has a length that provides a signal loss between the corresponding ASIC and mid-plane connector that is below a first threshold and each of the different network connector ASIC paths has a length that provides a signal loss between the corresponding ASIC and network connector that is below a second threshold, wherein at least one of the plurality of ASICs includes a memory module with two channels coupling the memory module to an ASIC core of that ASIC and one of the two channels is laid out on the top of a line card printed circuit board, PCB, and the other of the two channels is laid out through the surface of the line card PCB to equalize lengths of the two channels between the memory module and the ASIC core. a fabric card ; and a line card , coupled to the fabric card , the line card including, a plurality of mid-plane connectors , wherein one of the plurality of mid-plane connectors is to couple the line card to the fabric card , a plurality of network connectors to communicate data with devices coupled to the network element, and a plurality of application specific integrated components, ASICs, to process the data, wherein each of the plurality of ASICs is coupled to each of the plurality of mid-plane connectors by a different mid-plane connector ASIC path and each of the plurality of ASICs is further coupled to each of the plurality of network connectors by a different network connector ASIC path , and each of the different mid-plane connector ASIC paths has a length that provides a signal loss between the corresponding ASIC and mid-plane connector that is below a first threshold and each of the different network connector ASIC paths has a length that provides a signal loss between the corresponding ASIC and network connector that is below a second threshold, wherein at least one of the plurality of ASICs includes a memory module with two channels coupling the memory module to an ASIC core of that ASIC and one of the two channels is laid out on the top of a line card printed circuit board, PCB, and the other of the two channels is laid out through the surface of the line card PCB to equalize lengths of the two channels between the memory module and the ASIC core.