mhurhangee/ep-ind-claims huggingface dataset:
An iron comprising: - a heatable soleplate, - a handle, - a heat controller user interface, comprising at least two different touch controls (28, 29) each corresponding to a different heat setting of the iron and characterised in that the touch controls are provided with a light indicator each and wherein the light indicators are configured to indicate the heat setting currently selected, the iron further comprising a forward-facing light for illuminating a textile to be ironed, wherein the forward-facing light is lit when the temperature of the soleplate corresponds to the temperature selected by a touch control. - a heatable soleplate, - a handle, - a heat controller user interface, comprising at least two different touch controls (28, 29) each corresponding to a different heat setting of the iron and characterised in that the touch controls are provided with a light indicator each and wherein the light indicators are configured to indicate the heat setting currently selected, the iron further comprising a forward-facing light for illuminating a textile to be ironed, wherein the forward-facing light is lit when the temperature of the soleplate corresponds to the temperature selected by a touch control.
Method for manufacturing a hybrid non-volatile memory device comprising the following steps: - forming (F1-F3; F1') a first group of electrically conductive pads (240; 240a) spaced apart from each other in a first area of a substrate; - depositing a first electrically conductive layer on a second area of the substrate; - etching the first conductive layer, so as to obtain a second group of electrically conductive pads (240; 240b) spaced apart from each other in the second area, the etching conditions being chosen such that the conductive pads of the second area have a section at their base smaller than at their top; - protecting the upper face of the conductive pads (240; 240b) of the second area; - subjecting the substrate to an oxidation treatment, resulting in a layer made of insulating material (250, 250') covering the upper face of the conductive pads (240; 240a) of the first area and the sides of the conductive pads (240; 240b) of the second area; - depositing an oxide layer at the tops of the conductive pads (240; 240a) of the first area, resulting in memory elements of a first type supported by the conductive pads of the first area; and - forming by physical vapor deposition memory elements of a second type at the tops of the conductive pads (240; 240b) of the second area, such that each memory element of the second type is supported by one of the conductive pads of the second area. - forming (F1-F3; F1') a first group of electrically conductive pads (240; 240a) spaced apart from each other in a first area of a substrate; - depositing a first electrically conductive layer on a second area of the substrate; - etching the first conductive layer, so as to obtain a second group of electrically conductive pads (240; 240b) spaced apart from each other in the second area, the etching conditions being chosen such that the conductive pads of the second area have a section at their base smaller than at their top; - protecting the upper face of the conductive pads (240; 240b) of the second area; - subjecting the substrate to an oxidation treatment, resulting in a layer made of insulating material (250, 250') covering the upper face of the conductive pads (240; 240a) of the first area and the sides of the conductive pads (240; 240b) of the second area; - depositing an oxide layer at the tops of the conductive pads (240; 240a) of the first area, resulting in memory elements of a first type supported by the conductive pads of the first area; and - forming by physical vapor deposition memory elements of a second type at the tops of the conductive pads (240; 240b) of the second area, such that each memory element of the second type is supported by one of the conductive pads of the second area.
Chair with a seat, wherein the seat is comprised of a seat support and a seat plate connected thereto, the seat plate having a seat surface on its upper side and limited movability relative to the seat support; wherein the seat plate is connected by at least one load-bearing element to the seat support underneath the seat surface and above the seat support or on a level with the seat support and the seat plate so as to be laterally tiltable to a limited extent relative to the seat support about a tilting axis extending along or parallel to a longitudinal middle line of the seat, characterized in that at least one pressure hose is connected to the upper side of the seat support and extends along the longitudinal middle line of the seat, between the seat support and the superimposed seat plate, thereby forming the load-bearing element, with the seat plate being mounted on the pressure hose for limited lateral tilting movement relative to the seat support.
A congestion control method, wherein the method comprises: sending, by a Transmission Control Protocol offload engine, TOE, a congestion control notification to a central processing unit, CPU, wherein the congestion control notification instructs the CPU to obtain a target parameter, and the CPU generates a congestion control calculation result based on the target parameter; obtaining, by the TOE, the congestion control calculation result returned by the CPU, wherein the congestion control calculation result comprises a congestion control window value; and sending, by the TOE, a packet based on the congestion control window value, characterized in that: before the sending, by the TOE, the congestion control notification to the CPU, the method further comprises: obtaining, by the TOE, a target transmission control block, TCB, corresponding to the target parameter, wherein the target TCB comprises a parameter generated in a process of receiving and sending packets, and the target TCB comprises a first flag bit; and the sending, by the TOE, a congestion control notification to a CPU comprises: if the first flag bit indicates that the CPU needs to participate in congestion control, sending, by the TOE, the congestion control notification to the CPU. sending, by a Transmission Control Protocol offload engine, TOE, a congestion control notification to a central processing unit, CPU, wherein the congestion control notification instructs the CPU to obtain a target parameter, and the CPU generates a congestion control calculation result based on the target parameter; obtaining, by the TOE, the congestion control calculation result returned by the CPU, wherein the congestion control calculation result comprises a congestion control window value; and sending, by the TOE, a packet based on the congestion control window value, characterized in that: before the sending, by the TOE, the congestion control notification to the CPU, the method further comprises: obtaining, by the TOE, a target transmission control block, TCB, corresponding to the target parameter, wherein the target TCB comprises a parameter generated in a process of receiving and sending packets, and the target TCB comprises a first flag bit; and the sending, by the TOE, a congestion control notification to a CPU comprises: if the first flag bit indicates that the CPU needs to participate in congestion control, sending, by the TOE, the congestion control notification to the CPU. obtaining, by the TOE, a target transmission control block, TCB, corresponding to the target parameter, wherein the target TCB comprises a parameter generated in a process of receiving and sending packets, and the target TCB comprises a first flag bit; and the sending, by the TOE, a congestion control notification to a CPU comprises: if the first flag bit indicates that the CPU needs to participate in congestion control, sending, by the TOE, the congestion control notification to the CPU.
A method of cleaning articles in a dishmachine comprising: applying an alkaline composition to articles in need of cleaning; and applying to the articles an acidic composition before or after application of the alkaline composition, wherein said acidic composition comprises urea sulfate and a chelating agent selected from the group consisting of citric acid, MGDA, GLDA, glutamic acid, and mixtures thereof, and provides superior cleaning efficacy and reduced scaling in comparison to articles treated with a phosphoric acid composition. applying an alkaline composition to articles in need of cleaning; and applying to the articles an acidic composition before or after application of the alkaline composition, wherein said acidic composition comprises urea sulfate and a chelating agent selected from the group consisting of citric acid, MGDA, GLDA, glutamic acid, and mixtures thereof, and provides superior cleaning efficacy and reduced scaling in comparison to articles treated with a phosphoric acid composition.
A process of heterogeneous synthesis of chemical compounds, in particular methanol, wherein: - the process is effected in a reactor comprising a substantially cylindrical shell closed at the opposite ends by respective bottoms (14, 16); - the process comprises a step of adiabatic conversion in at least one firstcatalytic bed (25, 26, 27) of said reactor, having a substantially annular section, coaxially supported inside said shell in an upper portion of said shell, said at least one catalytic bed (25, 26, 27) having an inlet side (25a, 26a, 27a) for the reagent gases or for a reaction mixture, and an outlet side (25b, 26b, 27b) for the reaction mixture, - the process comprises a step of pseudo-isothermal conversion in a secondcatalytic bed of said reactor, having a substantially annular section, supported inside said shell in a lower portion of said shell, coaxially positioned with respect to said at least one first catalytic bed and at a pre-determined distance therefrom, said second catalytic bed having an inlet side for a reaction mixture coming from said at least one first catalytic bed (25, 26, 27) and an outlet side for gaseous reaction products; - a plurality of heat exchangers being supported and distributed in a respective annular portion of said second catalytic bed, said heat exchangers being flown by a heat exchanger operating fluid. - the process is effected in a reactor comprising a substantially cylindrical shell closed at the opposite ends by respective bottoms (14, 16); - the process comprises a step of adiabatic conversion in at least one firstcatalytic bed (25, 26, 27) of said reactor, having a substantially annular section, coaxially supported inside said shell in an upper portion of said shell, said at least one catalytic bed (25, 26, 27) having an inlet side (25a, 26a, 27a) for the reagent gases or for a reaction mixture, and an outlet side (25b, 26b, 27b) for the reaction mixture, - the process comprises a step of pseudo-isothermal conversion in a secondcatalytic bed of said reactor, having a substantially annular section, supported inside said shell in a lower portion of said shell, coaxially positioned with respect to said at least one first catalytic bed and at a pre-determined distance therefrom, said second catalytic bed having an inlet side for a reaction mixture coming from said at least one first catalytic bed (25, 26, 27) and an outlet side for gaseous reaction products; - a plurality of heat exchangers being supported and distributed in a respective annular portion of said second catalytic bed, said heat exchangers being flown by a heat exchanger operating fluid.
A method for reducing or eliminating layer non-uniformity in an ALD or ALD-type process, the method comprising the following phases: a) exposing a surface to a dosing pulse of a first precursor or precursor mixture comprising at least one metal halide for self-limiting surface material growth reactions of a first type, b) exposing the resulting surface to a dosing pulse of a second precursor selected from the group consisting of water, hydrogen peroxide, tert-butanol and mixtures of these for self-limiting surface material growth reactions of a second type, characterised in that the method further comprises c) exposing a surface resulting from the self-limiting surface material growth reactions of the second type to at least one modificator comprising a chemical substance selected from the group consisting of alcohols having one to three carbon atoms. a) exposing a surface to a dosing pulse of a first precursor or precursor mixture comprising at least one metal halide for self-limiting surface material growth reactions of a first type, b) exposing the resulting surface to a dosing pulse of a second precursor selected from the group consisting of water, hydrogen peroxide, tert-butanol and mixtures of these for self-limiting surface material growth reactions of a second type, characterised in that the method further comprises c) exposing a surface resulting from the self-limiting surface material growth reactions of the second type to at least one modificator comprising a chemical substance selected from the group consisting of alcohols having one to three carbon atoms.
A compound of formula: wherein R1 is selected from H, C 1-6 alkyl, alkoxy, hydroxy, halogen, -CN, -NH 2, -NHC Ra,-NHSO 2 Ra, -CO 2 H, -CO 2 Ra, -CONHRb, -CONH 2, -CH 2 OH, and heteroaryl wherein the heteroaryl may be substituted by one or two C 1-3 alkyl groups; R2 is selected from H, -NHRa, alkoxy, halogen, -CF 3, -CHF 2, and C 1-6 alkyl; R3 is selected from aryl and heteroaryl, wherein said aryl or heteroaryl may be substituted by one to three Rc; R4 is selected from H and Ra; each R5 is independently selected from C 1-6 alkyl; each Ra is independently selected from C 1-3 alkyl; Rb is selected from C 1-3 alkyl, and SO 2 Me; each Rc is independently selected from C 1-3 alkyl, halogen, -CF 3, and hydroxy; and n is 0-2, or a pharmaceutically acceptable salt thereof. R1 is selected from H, C 1-6 alkyl, alkoxy, hydroxy, halogen, -CN, -NH 2, -NHC Ra,-NHSO 2 Ra, -CO 2 H, -CO 2 Ra, -CONHRb, -CONH 2, -CH 2 OH, and heteroaryl wherein the heteroaryl may be substituted by one or two C 1-3 alkyl groups; R2 is selected from H, -NHRa, alkoxy, halogen, -CF 3, -CHF 2, and C 1-6 alkyl; R3 is selected from aryl and heteroaryl, wherein said aryl or heteroaryl may be substituted by one to three Rc; R4 is selected from H and Ra; each R5 is independently selected from C 1-6 alkyl; each Ra is independently selected from C 1-3 alkyl; Rb is selected from C 1-3 alkyl, and SO 2 Me; each Rc is independently selected from C 1-3 alkyl, halogen, -CF 3, and hydroxy; and n is 0-2, or a pharmaceutically acceptable salt thereof.
An olefin polymer having an SF of 65 or more which is calculated by the following Equation 1: SF = Mw / 10 4 + 5 / Mw / 10 5 ∗ exp ratio of increase in elongational viscosity in the above equation 1, Mw means a weight average molecular weight, the ratio of increase in elongational viscosity is a value in which the highest elongational viscosity value measured for the olefin polymer at Hencky strain rate of 1s -1 at 170°C using an elongational viscosity fixture attached to the ARES rheometer is divided by the elongational viscosity value of the extrapolated straight line at the time when the highest elongational viscosity value is obtained, wherein the extrapolated straight line is a straight line in which a straight line having the average slope of the section where the elongational viscosity increases steadily with time is extended to a section where the elongational viscosity increases sharply while maintaining the above average slope, wherein the ratio of increase in elongational viscosity is 2.5 or more and 5 or less, and wherein a weight average molecular weight of the olefin polymer is 100,000 to 160,000 g/mol. the ratio of increase in elongational viscosity is a value in which the highest elongational viscosity value measured for the olefin polymer at Hencky strain rate of 1s -1 at 170°C using an elongational viscosity fixture attached to the ARES rheometer is divided by the elongational viscosity value of the extrapolated straight line at the time when the highest elongational viscosity value is obtained, wherein the extrapolated straight line is a straight line in which a straight line having the average slope of the section where the elongational viscosity increases steadily with time is extended to a section where the elongational viscosity increases sharply while maintaining the above average slope, wherein the ratio of increase in elongational viscosity is 2.5 or more and 5 or less, and wherein a weight average molecular weight of the olefin polymer is 100,000 to 160,000 g/mol.
An apparatus for a base station transceiver of a mobile communication system, the apparatus comprising a first interface configured to wirelessly communicate with one or more mobile transceivers; a second interface configured to communicate with a backhaul component of the mobile communication system; and a control module configured to: control the first and second interfaces (12; 14), analyze one or more data packets communicated between the one or more mobile transceivers and the backhaul component via the base station transceiver, determine a data packet size which would avoid fragmentation at the base station transceiver of packets if said packets were communicated using the second interface, based on the analysis of said one or more data packets, and modify at least one further data packet communicated between the one or more mobile transceivers and the backhaul component based on the determined data packet size, wherein the content of said at least one further packet is modified in a way triggering the one or more mobile transceivers or the backhaul component to send follow-up packets with the determined data packet size, wherein the follow-up data packets are communicated between the one or more mobile transceivers and the backhaul component via the control module. control the first and second interfaces (12; 14), analyze one or more data packets communicated between the one or more mobile transceivers and the backhaul component via the base station transceiver, determine a data packet size which would avoid fragmentation at the base station transceiver of packets if said packets were communicated using the second interface, based on the analysis of said one or more data packets, and modify at least one further data packet communicated between the one or more mobile transceivers and the backhaul component based on the determined data packet size, wherein the content of said at least one further packet is modified in a way triggering the one or more mobile transceivers or the backhaul component to send follow-up packets with the determined data packet size, wherein the follow-up data packets are communicated between the one or more mobile transceivers and the backhaul component via the control module.
A method for preparing a protein conjugate wherein the protein is covalently bound to a chemical moiety via a thioether, comprising the steps of; a) obtaining a composition of a mixed di-sulfide comprising the protein, b) adding a reducing agent to said protein composition obtaining a reduction mix, wherein the reducing agent is a phosphine, c) allowing reduction reaction to occur, d) obtaining a solution comprising a reduced protein (P-SH), e) removing molecules of the solution with a molecular weight below 10 kDa, f) adding an activated chemical moiety (Z*) to the solution (comprising the reduced protein) obtaining a conjugation mix including 1- 4 equivalents of the chemical moiety (Z*), g) allowing a conjugation reaction to occur and h) obtaining a preparation of said conjugated protein (P-S-Z), wherein the method is performed in a cross flow filtration/tangential flow filtration system. a) obtaining a composition of a mixed di-sulfide comprising the protein, b) adding a reducing agent to said protein composition obtaining a reduction mix, wherein the reducing agent is a phosphine, c) allowing reduction reaction to occur, d) obtaining a solution comprising a reduced protein (P-SH), e) removing molecules of the solution with a molecular weight below 10 kDa, f) adding an activated chemical moiety (Z*) to the solution (comprising the reduced protein) obtaining a conjugation mix including 1- 4 equivalents of the chemical moiety (Z*), g) allowing a conjugation reaction to occur and h) obtaining a preparation of said conjugated protein (P-S-Z),
A multimodal copolymer of ethylene and at least two alpha-olefin-comonomers characterized by having a) a density of from 906 to 925 kg/m 3 determined according to ISO 1183, b) an MFR 21 of 10 - 200 g/10 min determined according to ISO1133, wherein the multimodal copolymer of ethylene comprises c) a first copolymer of ethylene i) comprising a first alpha-olefin comonomer having 4 to 10 carbon atoms and ii) being characterised by comprising at least a first and a second fraction of the first copolymer of ethylene and the first alpha-olefin comonomer and d) a second copolymer of ethylene i) comprising a second alpha-olefin comonomer having 6 to 10 carbon atoms, and having a density of below 900 kg/m 3 when calculated according to Equation 5: ρ b = w 1 ⋅ ρ 1 + w 2 ⋅ ρ 2 wherein ρ b, ρ 1 and ρ 2 refer respectively to the densities of the overall mixture b, first copolymer and second copolymer, based on values determined according to ISO 1183; and wherein w 1 and w 2 refer respectively to the weight fractions of the first and second copolymers. a) a density of from 906 to 925 kg/m 3 determined according to ISO 1183, b) an MFR 21 of 10 - 200 g/10 min determined according to ISO1133, wherein the multimodal copolymer of ethylene comprises c) a first copolymer of ethylene i) comprising a first alpha-olefin comonomer having 4 to 10 carbon atoms and ii) being characterised by comprising at least a first and a second fraction of the first copolymer of ethylene and the first alpha-olefin comonomer and i) comprising a first alpha-olefin comonomer having 4 to 10 carbon atoms and ii) being characterised by comprising at least a first and a second fraction of the first copolymer of ethylene and the first alpha-olefin comonomer and d) a second copolymer of ethylene i) comprising a second alpha-olefin comonomer having 6 to 10 carbon atoms, and having a density of below 900 kg/m 3 when calculated according to Equation 5: ρ b = w 1 ⋅ ρ 1 + w 2 ⋅ ρ 2 wherein ρ b, ρ 1 and ρ 2 refer respectively to the densities of the overall mixture b, first copolymer and second copolymer, based on values determined according to ISO 1183; and wherein w 1 and w 2 refer respectively to the weight fractions of the first and second copolymers. i) comprising a second alpha-olefin comonomer having 6 to 10 carbon atoms, and having a density of below 900 kg/m 3 when calculated according to Equation 5: ρ b = w 1 ⋅ ρ 1 + w 2 ⋅ ρ 2 wherein ρ b, ρ 1 and ρ 2 refer respectively to the densities of the overall mixture b, first copolymer and second copolymer, based on values determined according to ISO 1183; and wherein w 1 and w 2 refer respectively to the weight fractions of the first and second copolymers. wherein ρ b, ρ 1 and ρ 2 refer respectively to the densities of the overall mixture b, first copolymer and second copolymer, based on values determined according to ISO 1183; and wherein w 1 and w 2 refer respectively to the weight fractions of the first and second copolymers.