mhurhangee/ep-ind-claims huggingface dataset:
A membrane comprising a base layer and a top layer, where the base layer comprises a heterophasic composition containing the following polymer components, all percent amounts being by weight: a) 10-40% of a propylene homopolymer, or a copolymer of propylene with ethylene or a CH 2 =CHR α-olefin, where R is a C 2 -C 8 alkyl radical, or a copolymer of propylene with ethylene and said CH 2 =CHR α-olefin, said copolymers containing over 85% of propylene, and having a fraction insoluble in xylene at room temperature greater than 80%; and b) 60-90% of one or more copolymers selected from copolymers of ethylene with propylene or a CH 2 =CHR α-olefin, where R is a C 2 -C 8 alkyl radical, and optionally minor quantities of a diene, and copolymers of ethylene with propylene and said α-olefin, and optionally minor quantities of a diene, said copolymers containing ethylene in a quantity lower than 40%, and having solubility in xylene at room temperature greater than 70%; the amounts of (a) and (b) being referred to the total weight of (a) and (b); and the top layer comprises a propylene homopolymer or a copolymer (i) of propylene with ethylene, or a copolymer (ii) of propylene with a CH 2 =CHR α-olefin, where R is a C 2 -C 8 alkyl radical, or a copolymer (iii) of propylene with ethylene and said α-olefin, or a combination of two or more of said homopolymer and copolymers (i), (ii) and (iii), all the said copolymers containing from 65 to 99% by weight of propylene; said top layer being at least partially bonded to the base layer. a) 10-40% of a propylene homopolymer, or a copolymer of propylene with ethylene or a CH 2 =CHR α-olefin, where R is a C 2 -C 8 alkyl radical, or a copolymer of propylene with ethylene and said CH 2 =CHR α-olefin, said copolymers containing over 85% of propylene, and having a fraction insoluble in xylene at room temperature greater than 80%; and b) 60-90% of one or more copolymers selected from copolymers of ethylene with propylene or a CH 2 =CHR α-olefin, where R is a C 2 -C 8 alkyl radical, and optionally minor quantities of a diene, and copolymers of ethylene with propylene and said α-olefin, and optionally minor quantities of a diene, said copolymers containing ethylene in a quantity lower than 40%, and having solubility in xylene at room temperature greater than 70%; the amounts of (a) and (b) being referred to the total weight of (a) and (b); and the top layer comprises a propylene homopolymer or a copolymer (i) of propylene with ethylene, or a copolymer (ii) of propylene with a CH 2 =CHR α-olefin, where R is a C 2 -C 8 alkyl radical, or a copolymer (iii) of propylene with ethylene and said α-olefin, or a combination of two or more of said homopolymer and copolymers (i), (ii) and (iii), all the said copolymers containing from 65 to 99% by weight of propylene; said top layer being at least partially bonded to the base layer.
A thermometer comprising: a thermocouple having a pair of wires (16, 18), a temperature measuring junction between the wires (16, 18), and an insulator covering the wires (16, 18); a first protection tube surrounding the wires (16, 18), the temperature measuring junction, and the insulator of the thermocouple, said first protection tube being at least partially spaced apart from the wires (16, 18), the temperature measuring junction, and the insulator of the thermocouple with a gap, wherein the first protection tube contains any one of Mo, W, Ta, and Ir as a primary component; and a second protection tube surrounding the first protection tube, said second protection tube being at least partially spaced apart from the first protection tube with a gap, wherein the second protection tube contains any one of graphite, C/C composite, glassy carbon, SiC, BN, Al 2 O 3, vitreous carbon, pyrolytic carbon-coated graphite, vitreous carbon-coated graphite, and PBN. a thermocouple having a pair of wires (16, 18), a temperature measuring junction between the wires (16, 18), and an insulator covering the wires (16, 18); a first protection tube surrounding the wires (16, 18), the temperature measuring junction, and the insulator of the thermocouple, said first protection tube being at least partially spaced apart from the wires (16, 18), the temperature measuring junction, and the insulator of the thermocouple with a gap, wherein the first protection tube contains any one of Mo, W, Ta, and Ir as a primary component; and a second protection tube surrounding the first protection tube, said second protection tube being at least partially spaced apart from the first protection tube with a gap, wherein the second protection tube contains any one of graphite, C/C composite, glassy carbon, SiC, BN, Al 2 O 3, vitreous carbon, pyrolytic carbon-coated graphite, vitreous carbon-coated graphite, and PBN.
A turbine engine comprising: a compressor section; a combustor in fluid communication with the compressor section; and a turbine section in fluid communication with the combustor, wherein said combustor comprises a combustor region defined by at least one bulkhead panel, and at least one heat shielding panel interior to said combustor region, and said at least one heat shielding panel is connected to said bulkhead panel via at least one cooled fastener; characterized in that each of said cooled fasteners comprises: a fastener component defining an axis and including a cooling channel defined within the fastener component; a spring disposed about said fastener and providing axial loading to said fastener, thereby holding said heat shielding panel in place relative to said bulkhead panel, wherein each of said cooled fasteners further comprises a cold side bushing disposed about said fastener component and at least partially within said spring, the cold side bushing including a flange member interfaced with said spring, wherein each of said cooled fasteners further comprises a hot side bushing disposed about said fastener component, wherein the hot side bushing interfaces with the heat shielding panel and a head of the fastener to maintain the heat shielding panel in position relative to the bulkhead panel. a compressor section; a combustor in fluid communication with the compressor section; and a turbine section in fluid communication with the combustor, wherein said combustor comprises a combustor region defined by at least one bulkhead panel, and at least one heat shielding panel interior to said combustor region, and said at least one heat shielding panel is connected to said bulkhead panel via at least one cooled fastener; characterized in that each of said cooled fasteners comprises: a fastener component defining an axis and including a cooling channel defined within the fastener component; a spring disposed about said fastener and providing axial loading to said fastener, thereby holding said heat shielding panel in place relative to said bulkhead panel, wherein each of said cooled fasteners further comprises a cold side bushing disposed about said fastener component and at least partially within said spring, the cold side bushing including a flange member interfaced with said spring, wherein each of said cooled fasteners further comprises a hot side bushing disposed about said fastener component, wherein the hot side bushing interfaces with the heat shielding panel and a head of the fastener to maintain the heat shielding panel in position relative to the bulkhead panel.
A controller controlling a vehicle including at least one motor (MG1, MG2) driving wheels (20L, 20R), an inverter (14, 14A) driving said motor (MG1, MG2), and a boosting converter supplying a dc power supply current to said inverter (14, 14A), comprising a control portion performing rectangular wave control and non-rectangular wave control on said inverter (14, 14A) in a switched manner; characterized in that said control portion has an emergency switching condition for switching control from said rectangular wave control to said non-rectangular wave control upon detection of a slip of a wheel, as a determination reference, and when, while said rectangular wave control is being executed, said emergency switching condition is satisfied, said control portion switches control from said rectangular wave control to said non-rectangular wave control and instructs said boosting converter to perform a process for preventing excessive voltage of said inverter (14, 14A), wherein said control portion indicates a target voltage of boosting to said boosting converter, and said target voltage is lowered as the process for preventing excessive voltage of said inverter (14, 14A), and said non-rectangular wave control is overmodulation PWM control or sinusoidal PWM control.
A semiconductor device comprising a memory (950, 1050) having a data input port and a data output port, comprising: first input circuitry configured to receive input data at the data input port, the input data containing a target device address and an operation instruction that are commonly received at different times, the target device address being correlating with a device identification number associated with the device; second input circuitry (902, 908) configured to receive a first input enable signal indicating the presence of the input data at the data input port; control circuitry (910, 918) configured to perform the operation instruction in response to the target device address contained in the input data to access the memory, accessed data being provided; a selector configured to select one of the accessed data and the input data, selected data being provided; characterized by third input circuitry (906, 912) configured to receive a first output enable signal; and output circuitry configured to provide a data output enable signal to an output buffer in response to the received first input enable signal and to provide the data output enable signal to the output buffer in response to the received first output enable signal, the selected data being outputted via the output buffer to the data output port in response to the data output enable signal enabling the output buffer and being set to a logic level for a duration of time indicating the presence of the selected data for the duration of time. first input circuitry configured to receive input data at the data input port, the input data containing a target device address and an operation instruction that are commonly received at different times, the target device address being correlating with a device identification number associated with the device; second input circuitry (902, 908) configured to receive a first input enable signal indicating the presence of the input data at the data input port; control circuitry (910, 918) configured to perform the operation instruction in response to the target device address contained in the input data to access the memory, accessed data being provided; a selector configured to select one of the accessed data and the input data, selected data being provided; characterized by third input circuitry (906, 912) configured to receive a first output enable signal; and output circuitry configured to provide a data output enable signal to an output buffer in response to the received first input enable signal and to provide the data output enable signal to the output buffer in response to the received first output enable signal, the selected data being outputted via the output buffer to the data output port in response to the data output enable signal enabling the output buffer and being set to a logic level for a duration of time indicating the presence of the selected data for the duration of time.
A spring energized fastening device including a housing, a power spring, a striker movable vertically at a front of the housing, and a fastener, comprising: a rest condition and a pre-release condition of the fastening device, the power spring being deflected in the pre-release condition whereupon the power spring is released to eject and install the fastener from the fastening device through energy stored in the deflected power spring; the power spring being a torsion type including coaxial coils with at least four arms (91,95,96,99) extending forward therefrom; wherein the four arms include a first pair of arms being outer arms (45,95) near a location of the coils; characterised in that the first pair crossing a second pair of arms (91,96) to become inner arms forward of the crossing location; and the power spring including a normal rest position wherein the arms are substantially vertically coincident at the crossing location and the first pair of arms presses the second pair of arms at the crossing location. a rest condition and a pre-release condition of the fastening device, the power spring being deflected in the pre-release condition whereupon the power spring is released to eject and install the fastener from the fastening device through energy stored in the deflected power spring; the power spring being a torsion type including coaxial coils with at least four arms (91,95,96,99) extending forward therefrom; wherein the four arms include a first pair of arms being outer arms (45,95) near a location of the coils; characterised in that the first pair crossing a second pair of arms (91,96) to become inner arms forward of the crossing location; and the power spring including a normal rest position wherein the arms are substantially vertically coincident at the crossing location and the first pair of arms presses the second pair of arms at the crossing location.
Two-component silicone composition consisting of a component A comprising i) at least one hydroxyl-terminated polydiorganosiloxane P; ii) preferably at least one filler; iii) between 0.05% and 5.0% by weight of emulsified water, based on component A; and a component B comprising i) at least one noncondensable polydiorganosiloxane W as plasticizer; ii) at least one organosilane V as crosslinker; iii) at least one catalyst K for the crosslinking of polydiorganosiloxanes; characterized in that all organosilanes V preferably have the same hydrolyzable alkoxysilane groups, preferably methoxysilane groups; and catalyst K is a tin complex of formula that has two mercaptide ligands, where ligands L 1 are each independently alkyl mercaptides coordinated via sulfur, especially C 6 to C 16 alkyl mercaptides, where ligands L 1 optionally have methyldialkoxysilane groups, preferably methyldimethoxysilane groups, and ligands L 2 are each independently alkyl ligands, especially C 6 to C 14 alkyl ligands; and component B contains less than 5% by weight of carbon black, based on component B. i) at least one hydroxyl-terminated polydiorganosiloxane P; ii) preferably at least one filler; iii) between 0.05% and 5.0% by weight of emulsified water, based on component A; and a component B comprising i) at least one noncondensable polydiorganosiloxane W as plasticizer; ii) at least one organosilane V as crosslinker; iii) at least one catalyst K for the crosslinking of polydiorganosiloxanes; i) at least one noncondensable polydiorganosiloxane W as plasticizer; ii) at least one organosilane V as crosslinker; iii) at least one catalyst K for the crosslinking of polydiorganosiloxanes; characterized in that all organosilanes V preferably have the same hydrolyzable alkoxysilane groups, preferably methoxysilane groups; and catalyst K is a tin complex of formula that has two mercaptide ligands, where ligands L 1 are each independently alkyl mercaptides coordinated via sulfur, especially C 6 to C 16 alkyl mercaptides, where ligands L 1 optionally have methyldialkoxysilane groups, preferably methyldimethoxysilane groups, and ligands L 2 are each independently alkyl ligands, especially C 6 to C 14 alkyl ligands; and component B contains less than 5% by weight of carbon black, based on component B.
A method for installing an add-on component to a surface of a wind turbine blade, the add-on component having a body with an open span-wise end, a pressure side surface, and a suction side surface, the method comprising: defining a slot in one or both of the pressure side or suction side surfaces of the add-on component; attaching an adhesive side of one or more strips of a double-sided adhesive tape onto either the surface of the wind turbine blade or an interior surface of the add-on component, the tape strips having a release liner on an opposite exposed side thereof; the tape strips arranged longitudinally along one or both sides of the slot, and each of the tape strips having an extension tail that extends beyond an edge of the add-on component when the add-on component is placed and held at a desired position against the surface of the wind turbine blade; and with the add-on component held at the desired position, pulling the extension tail along the slot at an angle such that that release liner is removed through the slot along the length of the tape strip while maintaining the desired position of the add-on component against the surface of the wind turbine blade to attach the exposed adhesive from under the release liner to either the surface of the wind turbine blade or the surface of the add-on component. defining a slot in one or both of the pressure side or suction side surfaces of the add-on component; attaching an adhesive side of one or more strips of a double-sided adhesive tape onto either the surface of the wind turbine blade or an interior surface of the add-on component, the tape strips having a release liner on an opposite exposed side thereof; the tape strips arranged longitudinally along one or both sides of the slot, and each of the tape strips having an extension tail that extends beyond an edge of the add-on component when the add-on component is placed and held at a desired position against the surface of the wind turbine blade; and with the add-on component held at the desired position, pulling the extension tail along the slot at an angle such that that release liner is removed through the slot along the length of the tape strip while maintaining the desired position of the add-on component against the surface of the wind turbine blade to attach the exposed adhesive from under the release liner to either the surface of the wind turbine blade or the surface of the add-on component.
Cable winch comprising an electric drive motor, a transmission and a rotary encoder, wherein the electric drive motor is coupled to the transmission and the rotary encoder is allocated to the electric drive motor and/or the transmission in such a way that the rotary encoder provides a signal for determining the rotational speed of the drive motor and/or of the transmission, wherein the rotary encoder is arranged between the electric drive motor and the transmission, the rotary encoder comprises a disk and a sensor which is designed as a Hall sensor, the disk is arranged on a motor shaft of the drive motor or an input shaft of the transmission concentrically and for conjoint rotation therewith and the sensor scans the disk and is fastened to a receiver and/or the transmission, characterised in that the disk is flat and annular, a multiplicity of windows are arranged in an edge region, which windows, being consecutive in the circumferential direction, are uniformly spaced apart from one another, the sensor scans the disk in the region of the windows, and in that the disk and the sensor are arranged with respect to one another such that it is possible to axially tap the signals.
A mobile device comprising: a location-awareness system configured to determine a location of the mobile device; an app-management facilitator configured to: select one or more mobile applications, apps, that are associated with the determined location; change a use state of one or more of the selected apps on the mobile device, wherein the change includes changing a user notification setting for the one or more selected apps. a location-awareness system configured to determine a location of the mobile device; an app-management facilitator configured to: select one or more mobile applications, apps, that are associated with the determined location; change a use state of one or more of the selected apps on the mobile device, wherein the change includes changing a user notification setting for the one or more selected apps. select one or more mobile applications, apps, that are associated with the determined location; change a use state of one or more of the selected apps on the mobile device, wherein the change includes changing a user notification setting for the one or more selected apps.
A computer-implemented method of modifying a stimulation artefact in a measured electrical response of a subject to a stimulus, the method comprising: i) providing as input a first and a second signal, said first signal being a signal used as stimulus or a time-dependent signal derived from said stimulus and said second signal being a signal obtained as the measured electrical response to the stimulus; ii) determining a stimulus-response mapping between said first signal and said second signal; iii) identifying a feature of the determined stimulus-response mapping corresponding to said stimulation artefact; iv) determining a predicted electrical response corresponding to the identified feature of the determined stimulus-response mapping; and v) subtracting said predicted electrical response from said second signal to obtain a stimulation artefact modified measured electrical response. i) providing as input a first and a second signal, said first signal being a signal used as stimulus or a time-dependent signal derived from said stimulus and said second signal being a signal obtained as the measured electrical response to the stimulus; ii) determining a stimulus-response mapping between said first signal and said second signal; iii) identifying a feature of the determined stimulus-response mapping corresponding to said stimulation artefact; iv) determining a predicted electrical response corresponding to the identified feature of the determined stimulus-response mapping; and v) subtracting said predicted electrical response from said second signal to obtain a stimulation artefact modified measured electrical response.
Method for providing a naming service inside an industrial communication system, in which - IPv6 prefixes are distributed in respectively subordinate subnetworks by routers by means of messages containing router advertisements, the router advertisements comprising a topological and/or hierarchical name component of the respective router, and the topological and/or hierarchical name component being associated with a spatial or hierarchical arrangement of the respective router, - router advertisements containing name information from superordinate subnetworks are received by routers associated with subordinate subnetworks and are supplemented with a topological and/or hierarchical name component associated with the respective router and are distributed inside the respective subordinate subnetwork, - communication terminals independently generate their device name from topological and/or hierarchical name components and a unique name component inside their respective subnetwork. - IPv6 prefixes are distributed in respectively subordinate subnetworks by routers by means of messages containing router advertisements, the router advertisements comprising a topological and/or hierarchical name component of the respective router, and the topological and/or hierarchical name component being associated with a spatial or hierarchical arrangement of the respective router, - router advertisements containing name information from superordinate subnetworks are received by routers associated with subordinate subnetworks and are supplemented with a topological and/or hierarchical name component associated with the respective router and are distributed inside the respective subordinate subnetwork, - communication terminals independently generate their device name from topological and/or hierarchical name components and a unique name component inside their respective subnetwork.