mhurhangee/patent-ind-claim-en huggingface dataset:
A polyethylene resin comprising from 0.6 to 1 weight % of 1-octene and the balance ethylene, having a density from 0.948 to 0.953 g/cc, a melt index determined according to ASTM1238 under a load of 2.16 kg at a temperature of 190°C (I 2 ) from 1.0 to 1.5 g/10 minutes; a melt index determined according to ASTM1238 under a load of 21.6 kg at a temperature of 190°C (I 21 ) from 32 to 55 g/10 minutes; a weight average molecular weight (Mw) determined by gel permeation chromatography from 90,000 to 130,000; a number average molecular weight (Mn) determined by gel permeation chromatography (GPC) from 20,000 to 40,000; a z average molecular weight (Mz) from 240,000 to 360,000; an Mw/Mn from 2.9 to 4; an Mz/Mw from 2.9 to 3.2; and having a CBDI from 80 to 95, the molecular weight distribution determined by GPC of said polymer being deconvoluted into at least two components comprising: from 20 to 40 weight % of a first component having a calculated weight average molecular weight (Mw) being from 200,000 to 250,000; a calculated number average molecular weight from 90,000 to 135,000; a z average molecular weight 390,000 to 490,000 and an estimated density from 0.921 to 0.930 g/cc; from 60 to 80 weight % of a second component having a calculated weight average molecular weight (Mw) being from 37,000 to 57,000; a calculated number average molecular weight (Mn) from 18,000 to 30,000; a z average molecular weight 60,000 to 85,000 and an estimated density from 0.948 to 0.953 g/cc, provided that the density difference between component two and component one is less than 0.030 g/cc. from 20 to 40 weight % of a first component having a calculated weight average molecular weight (Mw) being from 200,000 to 250,000; a calculated number average molecular weight from 90,000 to 135,000; a z average molecular weight 390,000 to 490,000 and an estimated density from 0.921 to 0.930 g/cc; from 60 to 80 weight % of a second component having a calculated weight average molecular weight (Mw) being from 37,000 to 57,000; a calculated number average molecular weight (Mn) from 18,000 to 30,000; a z average molecular weight 60,000 to 85,000 and an estimated density from 0.948 to 0.953 g/cc, provided that the density difference between component two and component one is less than 0.030 g/cc.
An integrated circuit for a communication apparatus , the communication apparatus being a 20 MHz operating station, the integrated circuitry comprising means for causing the communication apparatus to perform a communication method, and the communication method comprising: receiving a Trigger frame allocating resource units, RUs, for random access, wherein the RUs include at least one RU that is restricted from being used for the 20 MHz operating station; controlling an Uplink OFDMA-based Random Access, UORA, procedure, said UORA procedure comprising: decrementing an OFDMA Back-Off, OBO, counter to zero when the OBO counter is not greater than a number of available RUs for random access, the available RUs being RUs of the allocated RUs that are unrestricted from being used for the 20 MHz operating station, and decrementing the OBO counter by the number of the available RUs for random access otherwise. receiving a Trigger frame allocating resource units, RUs, for random access, wherein the RUs include at least one RU that is restricted from being used for the 20 MHz operating station; controlling an Uplink OFDMA-based Random Access, UORA, procedure, said UORA procedure comprising: decrementing an OFDMA Back-Off, OBO, counter to zero when the OBO counter is not greater than a number of available RUs for random access, the available RUs being RUs of the allocated RUs that are unrestricted from being used for the 20 MHz operating station, and decrementing the OBO counter by the number of the available RUs for random access otherwise. decrementing an OFDMA Back-Off, OBO, counter to zero when the OBO counter is not greater than a number of available RUs for random access, the available RUs being RUs of the allocated RUs that are unrestricted from being used for the 20 MHz operating station, and decrementing the OBO counter by the number of the available RUs for random access otherwise.
Transfer film , in particular recyclable transfer film , having a carrier film and a transfer ply arranged at least partially on the carrier film , wherein a detachment layer is arranged between the carrier film and the transfer ply , characterised in that the transfer ply has an alkali-soluble top coat , wherein the top coat is arranged on the detachment layer , and the top coat comprises at least 40% to 100% binder or binder mixture that is at least 50% soluble in an alkaline washing liquid , in particular lye or alkaline solution, with a pH value of greater than 8.5.
An ignition system (20;120;220) comprising: a wire having an outer jacket encasing an inner core , the outer jacket including palladium and ruthenium, and the inner core including aluminum; and a fluorine-containing polymer coating on the wire, characterised in that the fluorine-containing polymer coating is selected from a group consisting of polytetrafluoroethylene (PTFE), fluorinated ethylene propylene (FEP), polyvinylidene fluoride (PVF), hexafluoropropylene (HFP), polyvinylfluoride (PVD), polyethylenetetrafluoroethylene (ETFE), and combinations thereof. a wire having an outer jacket encasing an inner core , the outer jacket including palladium and ruthenium, and the inner core including aluminum; and a fluorine-containing polymer coating on the wire, characterised in that the fluorine-containing polymer coating is selected from a group consisting of polytetrafluoroethylene (PTFE), fluorinated ethylene propylene (FEP), polyvinylidene fluoride (PVF), hexafluoropropylene (HFP), polyvinylfluoride (PVD), polyethylenetetrafluoroethylene (ETFE), and combinations thereof.
A method for controlling a wind turbine , the wind turbine comprising a wind turbine blade , the method comprising: measuring one or more wind turbine parameters; determining , based on the one or more wind turbine parameters, whether negative stall will occur at an outboard region of the wind turbine blade ; generating a first signal if it is determined negative stall will occur at the outboard region of the wind turbine blade; and activating a lift disrupting device for disrupting airflow over the suction side of the wind turbine blade in response to the generated first signal such that the lift generated by the wind turbine blade is reduced; wherein the lift disrupting device for disrupting airflow over the suction side of the wind turbine blade is disposed at a mid-board region of the wind turbine blade. measuring one or more wind turbine parameters; determining , based on the one or more wind turbine parameters, whether negative stall will occur at an outboard region of the wind turbine blade ; generating a first signal if it is determined negative stall will occur at the outboard region of the wind turbine blade; and activating a lift disrupting device for disrupting airflow over the suction side of the wind turbine blade in response to the generated first signal such that the lift generated by the wind turbine blade is reduced; wherein the lift disrupting device for disrupting airflow over the suction side of the wind turbine blade is disposed at a mid-board region of the wind turbine blade.
Method for operating a cleaning appliance, in particular a dishwasher having a cleaning container that provides a cleaning chamber and having a heat pump device that comprises a compressor , a condenser , an expansion element , an evaporator , and a flow circuit fluidically interconnecting these structural components, in which flow circuit a working medium is guided, the evaporator being arranged inside a water tank , water stored in the water tank being transferred at least in part into the cleaning container before the start of a first program step of a cleaning program, in which program step cleaning solution located in the cleaning container is heated, with heat being transferred from the working medium guided in the flow circuit of the heat pump device to the cleaning solution by means of the condenser when the heat pump device is operated, the temperature being measured by a temperature sensor arranged in the cleaning container , in particular in the collecting vessel , characterised in that the temperature sensor measures a temperature value while water flows from the water tank into the cleaning container , in particular into the collecting vessel , or immediately after a first amount of water, which is substantially smaller than an amount of water required for the first program step of the cleaning program, has flowed from the water tank into the cleaning container or the collecting vessel , the temperature sensor measuring the initial temperature value directly before the water flows from the water tank into the cleaning container or the collecting vessel , a control device of the cleaning appliance comparing the established temperature difference between the initial temperature value and the temperature value with a predetermined or predeterminable threshold value stored in the electronic system of the appliance, where, if the threshold value is not exceeded, water continues to be introduced from the water tank into the cleaning container or the collecting vessel , and where otherwise, if the threshold value is exceeded, further passing of the water from the water tank into the cleaning container or the collecting vessel is prevented and instead the remaining amount of water required for the cleaning program is guided out of the household fresh water supply into the cleaning container or the collecting vessel , bypassing the water tank , the water tank being completely or partially emptied by the transfer of the water into the cleaning container and the water tank then being refilled with fresh water until a predetermined or predeterminable maximum water fill level is reached.
An additive manufacturing method, comprising: providing material to a horizontally-extending nozzle from an extruder of an additive manufacturing apparatus ; heating the material to form a flowable material; depositing a first layer of the flowable material from a nozzle of the additive manufacturing apparatus to form part of a hull portion of a plug for a mold of a marine article; and depositing a second layer of the flowable material from the nozzle of the additive manufacturing apparatus to form part of a deck portion of the plug for the marine article, wherein the deck portion has a shape corresponding to an inside of a boat; and machining the hull portion and the deck portion with the additive manufacturing apparatus . providing material to a horizontally-extending nozzle from an extruder of an additive manufacturing apparatus ; heating the material to form a flowable material; depositing a first layer of the flowable material from a nozzle of the additive manufacturing apparatus to form part of a hull portion of a plug for a mold of a marine article; and depositing a second layer of the flowable material from the nozzle of the additive manufacturing apparatus to form part of a deck portion of the plug for the marine article, wherein the deck portion has a shape corresponding to an inside of a boat; and machining the hull portion and the deck portion with the additive manufacturing apparatus .
A method for manufacturing a deflection member suitable for the production of fibrous webs, the method comprising the steps of: a.) providing an additive manufacturing apparatus that comprises at least one radiation source and a vat comprising a photopolymer resin; b.) providing a reinforcing member having a first surface and a second surface opposite the first surface; c.) contacting at least the second surface of the reinforcing member with the photopolymer resin; and d.) directing radiation from the at least one radiation source towards the first surface of the reinforcing member such that the radiation passes through the first surface of the reinforcing member to at least partially cure photopolymer resin in contact with the second surface of the reinforcing member to create at least a portion of a lock-on layer. a.) providing an additive manufacturing apparatus that comprises at least one radiation source and a vat comprising a photopolymer resin; b.) providing a reinforcing member having a first surface and a second surface opposite the first surface; c.) contacting at least the second surface of the reinforcing member with the photopolymer resin; and d.) directing radiation from the at least one radiation source towards the first surface of the reinforcing member such that the radiation passes through the first surface of the reinforcing member to at least partially cure photopolymer resin in contact with the second surface of the reinforcing member to create at least a portion of a lock-on layer.
Electrical equipment comprising: · a housing including a hole through a face of the housing; · a badge fastened to the housing and positioned over the hole, the badge comprising a first portion made at least of a first material that is transparent or translucent to visible light, the electrical equipment being characterized in that the badge further comprises a second portion made at least of a second material that is opaque to visible light and transparent or translucent to infrared light, the first and second portions forming respectively a pattern and a background distinct from the pattern on an outside surface of the badge; the electrical equipment badge further comprising: · an emitter and a receiver situated inside the housing facing the hole and thus facing the badge, the emitter being arranged to emit visible light signals through the badge so as to illuminate the pattern without illuminating the background, and the receiver being arranged to receive infrared communication signals emitted by a device that is distinct from the electrical equipment and passing through the badge. · a housing including a hole through a face of the housing; · a badge fastened to the housing and positioned over the hole, the badge comprising a first portion made at least of a first material that is transparent or translucent to visible light, the electrical equipment being characterized in that the badge further comprises a second portion made at least of a second material that is opaque to visible light and transparent or translucent to infrared light, the first and second portions forming respectively a pattern and a background distinct from the pattern on an outside surface of the badge; the electrical equipment badge further comprising: · an emitter and a receiver situated inside the housing facing the hole and thus facing the badge, the emitter being arranged to emit visible light signals through the badge so as to illuminate the pattern without illuminating the background, and the receiver being arranged to receive infrared communication signals emitted by a device that is distinct from the electrical equipment and passing through the badge. · an emitter and a receiver situated inside the housing facing the hole and thus facing the badge, the emitter being arranged to emit visible light signals through the badge so as to illuminate the pattern without illuminating the background, and the receiver being arranged to receive infrared communication signals emitted by a device that is distinct from the electrical equipment and passing through the badge.
A sensor substrate , comprising: an insulating substrate ; a pair of electrodes comprising a cathode (2-) and an anode (2+) disposed on a principal face of the insulating substrate ; a resistor wiring section comprising multiple layers of linear conductors located within the insulating substrate , the multiple layers being disposed in a thickness direction of the insulating substrate , the linear conductors each having a meandering configuration as seen in a transparent plan view of the sensor substrate ; and a widened metallic layer disposed so as to overlap at least the cathode (2-) of the pair of electrodes , as seen in the transparent plan view of the sensor substrate , wherein as seen in the transparent plan view, the widened metallic layer overlaps the linear conductors , and wherein the widened metallic layer is located between at least the cathode (2-) of the pair of electrodes and the uppermost layer of the multiple layers of linear conductors in the thickness direction of the insulating substrate , wherein the widened metallic layer is not connected to the pair of electrodes and the resistor wiring section . an insulating substrate ; a pair of electrodes comprising a cathode (2-) and an anode (2+) disposed on a principal face of the insulating substrate ; a resistor wiring section comprising multiple layers of linear conductors located within the insulating substrate , the multiple layers being disposed in a thickness direction of the insulating substrate , the linear conductors each having a meandering configuration as seen in a transparent plan view of the sensor substrate ; and a widened metallic layer disposed so as to overlap at least the cathode (2-) of the pair of electrodes , as seen in the transparent plan view of the sensor substrate , wherein as seen in the transparent plan view, the widened metallic layer overlaps the linear conductors , and wherein the widened metallic layer is located between at least the cathode (2-) of the pair of electrodes and the uppermost layer of the multiple layers of linear conductors in the thickness direction of the insulating substrate , wherein the widened metallic layer is not connected to the pair of electrodes and the resistor wiring section .
A method of modification of dry matter composition and/or dry matter content of milk, comprising the steps of: - providing raw milk having a fat content in the range of about 3% w/w to about 60% w/w, - modifying a dry matter composition and/or dry matter content of the raw milk by microfiltration combined with diafiltration using an aqueous solution substantially free of protein as diawater to provide a modified raw milk having a fat content in the range of about 35% w/w to about 60% w/w based on the total weight of the modified raw milk, and a protein content of at most 3% (w/w) and/or carbohydrate content of at most 4% (w/w) based on a fat-free portion of the modified raw milk, wherein the pore size of the microfiltration membrane is about 0.01 μm to about 2.0 μm. - providing raw milk having a fat content in the range of about 3% w/w to about 60% w/w, - modifying a dry matter composition and/or dry matter content of the raw milk by microfiltration combined with diafiltration using an aqueous solution substantially free of protein as diawater to provide a modified raw milk having a fat content in the range of about 35% w/w to about 60% w/w based on the total weight of the modified raw milk, and a protein content of at most 3% (w/w) and/or carbohydrate content of at most 4% (w/w) based on a fat-free portion of the modified raw milk, wherein the pore size of the microfiltration membrane is about 0.01 μm to about 2.0 μm.
A system comprising a distributed ledger (BC) configured to store a smart contract (SB) for a problem statement (Z), the smart contract (SB) implementing a zero-knowledge proof (ZK) concerning the problem statement (Z), wherein the zero-knowledge proof (ZK) defines a function configured to build, from a solution to the problem statement, a proof of solution (P) according to the zero-knowledge proof (ZK) and a verifier function configured to verify a proof of solution (P), wherein the distributed ledger (BC) is configured to receive a putative solution (S) to the problem statement (Z), and to verify the putative solution (S) to the problem statement using the zero-knowledge proof (ZK), wherein the smart contract (SB) defines a function which is configured to accept an encrypted solution (E(S)) as payload, wherein the function is configured to run the verifier function, and wherein the function is configured to, if the verification result is positive, automatically transfer a bounty (B) to the address of a function-caller, and to provide an encrypted solution (E(S)) to Requestor (R). wherein the zero-knowledge proof (ZK) defines a function configured to build, from a solution to the problem statement, a proof of solution (P) according to the zero-knowledge proof (ZK) and a verifier function configured to verify a proof of solution (P), wherein the distributed ledger (BC) is configured to receive a putative solution (S) to the problem statement (Z), and to verify the putative solution (S) to the problem statement using the zero-knowledge proof (ZK), wherein the smart contract (SB) defines a function which is configured to accept an encrypted solution (E(S)) as payload, wherein the function is configured to run the verifier function, and wherein the function is configured to, if the verification result is positive, automatically transfer a bounty (B) to the address of a function-caller, and to provide an encrypted solution (E(S)) to Requestor (R).
A compound represented by the formula (I) wherein G 1 is a carbon atom or a nitrogen atom, G 2 is a carbon atom or a nitrogen atom, Ring A is an optionally further substituted 6-membered nitrogen-containing heterocycle, G 3 is an oxygen atom, an optionally substituted methylene, NR 1 , a sulfur atom, S(O) or S(O) 2 , R 1 is a hydrogen atom or a substituent, X is an optionally substituted ethylene, R 2 and R 3 are each independently a hydrogen atom or an optionally substituted C 1-6 alkyl group, or R 2 and R 3 are joined together to form a cycloalkane or a heterocycle, each of which is optionally substituted, R 4 is a hydrogen atom or a substituent, Ring B is an optionally further substituted ring, Ring C is an optionally further substituted ring, and W is a bond, or a spacer in which the number of atoms in the main chain is 1 to 4, or a salt thereof. G 1 is a carbon atom or a nitrogen atom, G 2 is a carbon atom or a nitrogen atom, Ring A is an optionally further substituted 6-membered nitrogen-containing heterocycle, G 3 is an oxygen atom, an optionally substituted methylene, NR 1 , a sulfur atom, S(O) or S(O) 2 , R 1 is a hydrogen atom or a substituent, X is an optionally substituted ethylene, R 2 and R 3 are each independently a hydrogen atom or an optionally substituted C 1-6 alkyl group, or R 2 and R 3 are joined together to form a cycloalkane or a heterocycle, each of which is optionally substituted, R 4 is a hydrogen atom or a substituent, Ring B is an optionally further substituted ring, Ring C is an optionally further substituted ring, and W is a bond, or a spacer in which the number of atoms in the main chain is 1 to 4,