mhurhangee/patent-ind-claim-en huggingface dataset:
A highly thermally conductive silicone composition comprising: an organopolysiloxane which is the product of (A) an organopolysiloxane having on average at least 0.1 silicon-bonded alkenyl group per molecule reacted with (B) an organohydrogenpolysiloxane having on average at least 1 silicon-bonded hydrogen atom per molecule at a molar ratio (Si-H/Si-Vi) therebetween of silicon-bonded hydrogen atoms (Si-H groups) in component (B) to silicon-bonded alkenyl groups in component (A) of more than 8.0 and up to 20.0, (C) an inorganic filler which has an average particle size of not more than 3 μm and is selected from the group consisting of metal oxides and metal nitrides, and (D) a thermally conductive inorganic filler having an average particle size of at least 5 μm, wherein the silicone composition has a combined amount of components (C) and (D) that is from 3,500 to 12,000 parts by weight per 100 parts by weight of components (A) and (B) combined, a thermal conductivity at 25°C as measured by the hot disk method in accordance with ISO 22007-2 of at least 4 W/m. K and an absolute viscosity at 25°C of from 100 to 1,000 Pa. s. an organopolysiloxane which is the product of (A) an organopolysiloxane having on average at least 0.1 silicon-bonded alkenyl group per molecule reacted with (B) an organohydrogenpolysiloxane having on average at least 1 silicon-bonded hydrogen atom per molecule at a molar ratio (Si-H/Si-Vi) therebetween of silicon-bonded hydrogen atoms (Si-H groups) in component (B) to silicon-bonded alkenyl groups in component (A) of more than 8.0 and up to 20.0, (C) an inorganic filler which has an average particle size of not more than 3 μm and is selected from the group consisting of metal oxides and metal nitrides, and (D) a thermally conductive inorganic filler having an average particle size of at least 5 μm, wherein the silicone composition has a combined amount of components (C) and (D) that is from 3,500 to 12,000 parts by weight per 100 parts by weight of components (A) and (B) combined, a thermal conductivity at 25°C as measured by the hot disk method in accordance with ISO 22007-2 of at least 4 W/m. K and an absolute viscosity at 25°C of from 100 to 1,000 Pa. s.
A centrifugal friction clutch comprising: a fixing member for being fixed on a rotary shaft , the fixing member defining at least one guiding groove extending in a radial direction of the fixing member and passing through an outer circumferential surface of the fixing member; at least one centrifugal block correspondingly slidably received in said at least one guiding groove ; and a loading wheel having an inner hole in which the fixing member is received, a gap between a wall of the inner hole and the outer circumferential surface of the fixing member being less than a length of the centrifugal block along its sliding direction; characterized in that the loading wheel is formed with latching grooves for latching with a load. a fixing member for being fixed on a rotary shaft , the fixing member defining at least one guiding groove extending in a radial direction of the fixing member and passing through an outer circumferential surface of the fixing member; at least one centrifugal block correspondingly slidably received in said at least one guiding groove ; and a loading wheel having an inner hole in which the fixing member is received, a gap between a wall of the inner hole and the outer circumferential surface of the fixing member being less than a length of the centrifugal block along its sliding direction; characterized in that the loading wheel is formed with latching grooves for latching with a load.
An uplink transmission method comprising: instructing (S101), by a base station, a User Equipment, UE, to send Sounding Reference Signals, SRSs, corresponding to N groups of SRS resources, wherein each group of SRS resources comprises one or more SRS resources, and N is a positive integer greater than 1; receiving (S102), by the base station, the SRSs sent by the UE; determining (S102), by the base station, X groups of uplink scheduling information; wherein each group of uplink scheduling information corresponds to one of the N groups of SRS resources, different groups of uplink scheduling information correspond to different groups of SRS resources in the N groups of SRS resources, and X is a positive integer greater than land less than N, or X is a positive integer greater than 1 and equal to N; and sending (S103), by the base station, the X groups of uplink scheduling information to the UE; wherein, after the base station receives the SRSs sent by the UE, the method further comprises: sending, by the base station, SRS resource set indication information to the UE, wherein the SRS resource set indication information indicates SRS resource sets corresponding to the X groups of uplink scheduling information. instructing (S101), by a base station, a User Equipment, UE, to send Sounding Reference Signals, SRSs, corresponding to N groups of SRS resources, wherein each group of SRS resources comprises one or more SRS resources, and N is a positive integer greater than 1; receiving (S102), by the base station, the SRSs sent by the UE; determining (S102), by the base station, X groups of uplink scheduling information; wherein each group of uplink scheduling information corresponds to one of the N groups of SRS resources, different groups of uplink scheduling information correspond to different groups of SRS resources in the N groups of SRS resources, and X is a positive integer greater than land less than N, or X is a positive integer greater than 1 and equal to N; and wherein each group of uplink scheduling information corresponds to one of the N groups of SRS resources, different groups of uplink scheduling information correspond to different groups of SRS resources in the N groups of SRS resources, and X is a positive integer greater than land less than N, or X is a positive integer greater than 1 and equal to N; and sending (S103), by the base station, the X groups of uplink scheduling information to the UE; wherein, after the base station receives the SRSs sent by the UE, the method further comprises: sending, by the base station, SRS resource set indication information to the UE, wherein the SRS resource set indication information indicates SRS resource sets corresponding to the X groups of uplink scheduling information.
Filter element for a filter device with a filter housing which has at least two connection points , such as an inlet for unfiltered medium and an outlet for filtrate, and accommodates a replaceable filter element , wherein at least one valve device is provided which, in an open position (OS), enables a fluid flow between one of the connection points and the filter element and, in a closed position (SS), prevents this fluid flow, wherein the valve device is movable between the open position (OS) and the closed position (SS) by means of an actuating device , wherein the filter element comprises a filter material which is arranged between the upper end cap and a lower end cap and is enclosed thereby, and whereby a supporting tube with a perforation is provided on an inner side of the filter material , characterised in that a sliding guide and at least one pin is provided on the upper end cap , and in that the respective pin is arranged on an inner side of a threaded socket of the filter element . wherein at least one valve device is provided which, in an open position (OS), enables a fluid flow between one of the connection points and the filter element and, in a closed position (SS), prevents this fluid flow, wherein the valve device is movable between the open position (OS) and the closed position (SS) by means of an actuating device , wherein the filter element comprises a filter material which is arranged between the upper end cap and a lower end cap and is enclosed thereby, and whereby a supporting tube with a perforation is provided on an inner side of the filter material , characterised in that a sliding guide and at least one pin is provided on the upper end cap , and in that the respective pin is arranged on an inner side of a threaded socket of the filter element .
An organotemplate-free synthetic process for the production of a zeolite of TON framework type structure, wherein the process comprises the steps of: preparing a mixture comprising: (a) an alumina-coated silica; (b) a source of an alkali metal (M); (c) an alcohol (Q), wherein the alcohol has from 1 to 6 carbon atoms; (d) a source of hydroxide ions; (e) seed crystals comprising a zeolitic material having a TON framework type structure; and (f) water; and crystallizing the mixture obtained in step . preparing a mixture comprising: (a) an alumina-coated silica; (b) a source of an alkali metal (M); (c) an alcohol (Q), wherein the alcohol has from 1 to 6 carbon atoms; (d) a source of hydroxide ions; (e) seed crystals comprising a zeolitic material having a TON framework type structure; and (f) water; and (a) an alumina-coated silica; (b) a source of an alkali metal (M); (c) an alcohol (Q), wherein the alcohol has from 1 to 6 carbon atoms; (d) a source of hydroxide ions; (e) seed crystals comprising a zeolitic material having a TON framework type structure; and (f) water; and crystallizing the mixture obtained in step .
A cloth spreading device, comprising: introduction chucks in a pair that grip corner portions at opposite ends of one side of a cloth; an up and down moving device that moves the introduction chucks in a pair up and down on the front side of a device body, the front side corresponding to the cloth introduction side; extension chucks in a pair that receive the cloth from the introduction chucks in a pair and grip corner portions at opposite ends of one side of the cloth; and a transversely moving device that moves the extension chucks , characterized in that , the transversely moving device moves the extension chucks in a pair transversely and independently, the up and down moving device is driven by an actuator permitting speed control and position control. introduction chucks in a pair that grip corner portions at opposite ends of one side of a cloth; an up and down moving device that moves the introduction chucks in a pair up and down on the front side of a device body, the front side corresponding to the cloth introduction side; extension chucks in a pair that receive the cloth from the introduction chucks in a pair and grip corner portions at opposite ends of one side of the cloth; and a transversely moving device that moves the extension chucks , characterized in that ,
Arrangement for illuminating a workspace, comprising: • lighting means which are designed to illuminate at least two regions (K1, K2, K3) of the workspace independently of one another, • sensor means for determining information relating to the use of the workspace, and • control means which control the lighting means depending on information provided by the sensor means , characterized in that the workspace has at least one work station , and the lighting means are designed to illuminate three portions (K1, K2, K3) of the work station independently of one another, two portions (K1, K2) corresponding to halves of the work station and a third portion (K3) representing a central focus in the region of the work station , which focus is located within the two further portions (K1, K2), and the control unit being designed to control the lighting means , in the event that the third region (K3) of the work station is being used, such that the third region (K3) is illuminated with high brightness and the two further portions (K1, K2) are illuminated with a reduced brightness. • lighting means which are designed to illuminate at least two regions (K1, K2, K3) of the workspace independently of one another, • sensor means for determining information relating to the use of the workspace, and • control means which control the lighting means depending on information provided by the sensor means , characterized in that the workspace has at least one work station , and the lighting means are designed to illuminate three portions (K1, K2, K3) of the work station independently of one another, two portions (K1, K2) corresponding to halves of the work station and a third portion (K3) representing a central focus in the region of the work station , which focus is located within the two further portions (K1, K2), and the control unit being designed to control the lighting means , in the event that the third region (K3) of the work station is being used, such that the third region (K3) is illuminated with high brightness and the two further portions (K1, K2) are illuminated with a reduced brightness.
A heliostat for a solar power plant comprising a central receiver, wherein the heliostat comprises: - an axisymmetric mirror surface comprising at least five corners, - a pylon , - a support structure for the mirror surface rotatable and/or pivotable relative to the pylon , and - at least two actuator drives ; wherein the support structure has a hub , a plurality of support arms connected to the hub , and a joint , wherein the joint has two axes of rotation to couple the hub and the pylon to one another, wherein a first axis of rotation of the joint is a first axis of rotation fastened to the pylon , which forms a first angle (alpha) greater than 0° with a horizontal plane; characterized in that between the pylon and the support structure a first linear drive is provided; in that the joint comprises an intermediate piece , which has a first and a second bearing channel for the axes of rotation , wherein the first and the second bearing channels are spaced apart from one another and lie in different planes; in that between the first linear drive and the support structure is arranged a joint with two degrees of freedom and in that an axis of rotation of the joint is coaxial to the second axis of rotation of the joint between hub and pylon . - an axisymmetric mirror surface comprising at least five corners, - a pylon , - a support structure for the mirror surface rotatable and/or pivotable relative to the pylon , and - at least two actuator drives ;
A system configured to identify fat content in a region of interest, the system comprising: a radio-frequency source configured to direct pulses of radio-frequency electromagnetic radiation toward the region of interest, wherein the region of interest has an object of interest, a reference with known properties, and a boundary area with one or more boundary locations between the object of interest and the reference; at least one thermoacoustic or ultrasonic transducer configured to receive a plurality of thermoacoustic bipolar signals from the one or more boundary locations, wherein the plurality of thermoacoustic bipolar signals are induced by the pulses of radio-frequency electromagnetic radiation delivered to the region of interest; and a processor configured to accept data from a radio-frequency source and the plurality of thermoacoustic or ultrasonic transducers, characterised in that said processor is further configured to calculate a fat concentration that is a function of a difference between two peaks of the thermoacoustic bipolar signal at each respective boundary location and a distance or distances between each respective boundary location of the object of interest and the reference.
A method of a User Equipment, in the following also referred to as UE, comprising: the UE establishes at least three logical channels which includes at least a first logical channel, a second logical channel, and a third logical channel, wherein the first logical channel, the second logical channel, and the third logical channel are logical channels for forwarding user data to a same base station ; wherein the UE is configured with periodic uplink resource by a base station, wherein the periodic uplink resource is associated with the first logical channel, which carries unexpected or aperiodically generated data, and the second logical channel, which carries periodically generated data, but is not associated with the third logical channel ; the UE performs a first transmission via the periodic uplink resource, wherein the first transmission includes data from the first logical channel and/or data from the second logical channel, and the first transmission is not allowed to include data from the third logical channel ; and the UE performs a second transmission via a dynamically scheduled resource when the UE is configured with the periodic uplink resource, wherein the dynamically scheduled resource is not associated with the second logical channel, and the second transmission is not allowed to include data from the second logical channel . the UE establishes at least three logical channels which includes at least a first logical channel, a second logical channel, and a third logical channel, wherein the first logical channel, the second logical channel, and the third logical channel are logical channels for forwarding user data to a same base station ; wherein the UE is configured with periodic uplink resource by a base station, wherein the periodic uplink resource is associated with the first logical channel, which carries unexpected or aperiodically generated data, and the second logical channel, which carries periodically generated data, but is not associated with the third logical channel ; the UE performs a first transmission via the periodic uplink resource, wherein the first transmission includes data from the first logical channel and/or data from the second logical channel, and the first transmission is not allowed to include data from the third logical channel ; and the UE performs a second transmission via a dynamically scheduled resource when the UE is configured with the periodic uplink resource, wherein the dynamically scheduled resource is not associated with the second logical channel, and the second transmission is not allowed to include data from the second logical channel .
Method for producing a profile system comprising a connection element for connecting profile parts , wherein the connection element has at least one first connection region for connecting to a first profile part and at least one second connection region for connecting to a second profile part , wherein the connection element has a means for conducting away liquid coating, said means being an embossed portion which spaces the connection element from the respective profile part , wherein at least one first profile part is connected in a first connection region of the connection element to the connection element and wherein at least one second profile part is connected in a second connection region of the connection element to the connection element , characterized in that the profile system is coated after installation by means of cathodic dip coating (CDC).
A fibre based material with a barrier coating against oil and water, said material is provided with a barrier formed from applying at least two layers of least one layer forming composition comprising: a polyelectrolyte complex (PEC) of a cationic biopolymer selected from cationic starch (CS) and chitosan; an anionic biopolymer selected from at least one of lignin alkali, lignosulfonic acid, or a polysaccharide, especially sodium carboxymethyl cellulose (CMC), alginic acid, pectin, carrageenan, gum arabic, hemicellulose and nanocrystalline cellulose (NCC), wherein alginic acid and lignosulfonic acid preferably are present as their sodium salts; and a pH-adjuster selected from an acid, a buffering system and a base, wherein a first layer is made from a layer forming composition with a first pH value and a second layer is made from a composition having a second pH value, a second layer is made from a layer forming composition having a lower pH value than the composition providing the first layer, and wherein the two layers result in improvements in both oil resistance and water resistance compared to the same material provided with a single layer of said at least one composition. a polyelectrolyte complex (PEC) of a cationic biopolymer selected from cationic starch (CS) and chitosan; an anionic biopolymer selected from at least one of lignin alkali, lignosulfonic acid, or a polysaccharide, especially sodium carboxymethyl cellulose (CMC), alginic acid, pectin, carrageenan, gum arabic, hemicellulose and nanocrystalline cellulose (NCC), wherein alginic acid and lignosulfonic acid preferably are present as their sodium salts; and a pH-adjuster selected from an acid, a buffering system and a base, wherein a first layer is made from a layer forming composition with a first pH value and a second layer is made from a composition having a second pH value, a second layer is made from a layer forming composition having a lower pH value than the composition providing the first layer, and wherein the two layers result in improvements in both oil resistance and water resistance compared to the same material provided with a single layer of said at least one composition.
A method for starting a power supply system powering digital circuits and analog circuits , comprising: a first node (V1) capable of being powered either directly by a voltage application source or through a switched-mode power supply , a first linear regulator coupled between the digital circuits and the first node, a first comparator capable of comparing the value of the voltage supplied by the source with a first threshold, a second comparator capable of comparing the voltage on the first node with a second threshold, the method for starting comprising an operating mode where the first node is powered by the switched-mode power supply, where the first regulator is running, and where at least one memory and at least one logic circuit are powered, the starting of the system comprising: starting the source; launching the initialization of the switched-mode power supply; when the voltage supplied by the source is greater than the first threshold, connecting the node to the source; starting the first regulator; when the voltage at the input node of the first regulator is greater than the second threshold, starting the digital circuits; and when the switched-mode power supply is initialized, connecting the first node to the output of the switched-mode power supply. a first node (V1) capable of being powered either directly by a voltage application source or through a switched-mode power supply , a first linear regulator coupled between the digital circuits and the first node, a first comparator capable of comparing the value of the voltage supplied by the source with a first threshold, a second comparator capable of comparing the voltage on the first node with a second threshold, the method for starting comprising an operating mode where the first node is powered by the switched-mode power supply, where the first regulator is running, and where at least one memory and at least one logic circuit are powered, the starting of the system comprising: starting the source; launching the initialization of the switched-mode power supply; when the voltage supplied by the source is greater than the first threshold, connecting the node to the source; starting the first regulator; when the voltage at the input node of the first regulator is greater than the second threshold, starting the digital circuits; and when the switched-mode power supply is initialized, connecting the first node to the output of the switched-mode power supply. starting the source; launching the initialization of the switched-mode power supply; when the voltage supplied by the source is greater than the first threshold, connecting the node to the source; starting the first regulator; when the voltage at the input node of the first regulator is greater than the second threshold, starting the digital circuits; and when the switched-mode power supply is initialized, connecting the first node to the output of the switched-mode power supply.