mhurhangee/patent-ind-claim-en huggingface dataset:
Power semi-conductor module comprising: - an high-voltage part arranged to operate at high-voltage and including a power semi-conductor switch; - an acquisition part arranged to acquire measurements from the high-voltage part and to operate at a low voltage incompatible with said high-voltage; - an intermediate circuit , electrically disposed between said power semi-conductor switch of the high-voltage part and the acquisition part ; and - a control part , said intermediate circuit having the at least two following states: - a sample state (A) wherein said intermediate circuit is electrically disconnected from the acquisition part and electrically connected to said power semi-conductor switch of the high-voltage part such that a voltage sample (V on , V on1 , V on2 ) of the operating high-voltage is stored on said intermediate circuit ; - an acquiring state (B) wherein said intermediate circuit is electrically disconnected from said power semi-conductor switch of the high-voltage part and electrically connected to the acquisition part such that a voltage sample (V on , V on1 , V on2 ) previously stored on said intermediate circuit is discharged to the acquisition part , the control part being arranged to control the states changing of the intermediate circuit . - an high-voltage part arranged to operate at high-voltage and including a power semi-conductor switch; - an acquisition part arranged to acquire measurements from the high-voltage part and to operate at a low voltage incompatible with said high-voltage; - an intermediate circuit , electrically disposed between said power semi-conductor switch of the high-voltage part and the acquisition part ; and - a control part , - a sample state (A) wherein said intermediate circuit is electrically disconnected from the acquisition part and electrically connected to said power semi-conductor switch of the high-voltage part such that a voltage sample (V on , V on1 , V on2 ) of the operating high-voltage is stored on said intermediate circuit ; - an acquiring state (B) wherein said intermediate circuit is electrically disconnected from said power semi-conductor switch of the high-voltage part and electrically connected to the acquisition part such that a voltage sample (V on , V on1 , V on2 ) previously stored on said intermediate circuit is discharged to the acquisition part ,
A method of synthesizing a compound according to formula ( I ): or a pharmaceutically acceptable salt thereof, the method comprising reacting an aldehyde according to formula ( II ): with nitromethane under Henry reaction conditions to form a compound according to formula ( III ): and reducing the compound according to formula ( III ) with a reducing agent to form the compound according to formula ( I ).
A modeling composition comprising (a) 30% to 60% by weight water; (b) 20% to 40% by weight starch-based binder; (c) 2.0% to 8.0% by weight lubricant; (d) 0.5% to 4.0% by weight surfactant; (e) 5% to 20% by weight salt; (f) 0.1% to 1% by weight preservative; (g) 0.5% to 10% by weight retrogradation inhibitor; (h) 0.15% to 1.2% by weight microspheres (i) 0.5% to 8% by weight vinylpyrrolidone polymers; (j) 0 % to 15% polyol; (k) 0% to 1% by weight hardener; (l) 0% to 0.5% by weight fragrance; and (m) 0% to 5% by weight colorant. (a) 30% to 60% by weight water; (b) 20% to 40% by weight starch-based binder; (c) 2.0% to 8.0% by weight lubricant; (d) 0.5% to 4.0% by weight surfactant; (e) 5% to 20% by weight salt; (f) 0.1% to 1% by weight preservative; (g) 0.5% to 10% by weight retrogradation inhibitor; (h) 0.15% to 1.2% by weight microspheres (i) 0.5% to 8% by weight vinylpyrrolidone polymers; (j) 0 % to 15% polyol; (k) 0% to 1% by weight hardener; (l) 0% to 0.5% by weight fragrance; and (m) 0% to 5% by weight colorant.
A fiber-reinforced resin material comprising a thermoplastic resin and a bundle of reinforcing fibers arranged in one direction by having fiber axial directions aligned in a same direction, wherein the thermoplastic resin is a reactive resin, the thermoplastic resin is an epoxy resin, and the epoxy resin after reaction is a phenoxy resin, the reinforcing fibers are carbon fibers, the thermoplastic resin is impregnated deep into the bundle of reinforcing fibers, the fiber-reinforced resin material has a length of 5 mm to 500 mm in a fiber axial direction, the fiber-reinforced resin material has a thickness of at least 0.10 mm, and the bundle of reinforcing fibers includes at least 1000 reinforcing fibers.
Surgical instrument , in particular for tissue fusion, with a tool which has at least one branch with an electrode unit , wherein the electrode unit consists of a sheet metal part and a plastic body , and wherein: - the sheet metal part has a tissue contact face with two long edges opposite each other, - angled strip portions extend away from the edges , - openings are provided in the strip portions , - the plastic body fills a space formed between the strip portions , characterised in that - the plastic body passes through the openings by extending through the openings , - the tissue contact face has apertures through which the plastic body extends in order to form holding means . - the sheet metal part has a tissue contact face with two long edges opposite each other, - angled strip portions extend away from the edges , - openings are provided in the strip portions , - the plastic body fills a space formed between the strip portions , - the plastic body passes through the openings by extending through the openings , - the tissue contact face has apertures through which the plastic body extends in order to form holding means .
A method comprising: receiving , by a display optimization engine platform, from an enterprise an indication of a requested communication between the enterprise and a communications device associated with a consumer of the enterprise; in response to receiving the requested communication, perform the following: selecting , by the display optimization engine platform, from a database, branding elements associated with the enterprise, the selecting being based at least in part on characteristics of the consumer; selecting , by the display optimization engine platform, a communications channel from a choice of communication channels, for provision of the branding elements based on an optimal choice of channel bandwidth and/or channel latency to carry the branding elements; and sending , by the display optimization engine platform, the branding elements to the communications channel for rendering on the communications device with the requested communication. receiving , by a display optimization engine platform, from an enterprise an indication of a requested communication between the enterprise and a communications device associated with a consumer of the enterprise; in response to receiving the requested communication, perform the following: selecting , by the display optimization engine platform, from a database, branding elements associated with the enterprise, the selecting being based at least in part on characteristics of the consumer; selecting , by the display optimization engine platform, a communications channel from a choice of communication channels, for provision of the branding elements based on an optimal choice of channel bandwidth and/or channel latency to carry the branding elements; and sending , by the display optimization engine platform, the branding elements to the communications channel for rendering on the communications device with the requested communication. selecting , by the display optimization engine platform, from a database, branding elements associated with the enterprise, the selecting being based at least in part on characteristics of the consumer; selecting , by the display optimization engine platform, a communications channel from a choice of communication channels, for provision of the branding elements based on an optimal choice of channel bandwidth and/or channel latency to carry the branding elements; and sending , by the display optimization engine platform, the branding elements to the communications channel for rendering on the communications device with the requested communication.
A process for the preparation of a masonry composite material, comprising: (a) mixing at least one type of absorbable mineral composition in particulate form, with at least one type of cement composition and a quantity of water to thereby obtain a first mixture; at least 50 % weight of the absorbable mineral composition particles having a size of less than about 2mm; wherein the absorbable mineral composition is limestone; the absorbable mineral composition having liquid absorbance of at least 25% by weight as measured by British Standards BS EN 1925:1999 or BS EN 13755:2008; the cement being present in the first mixture in an amount of between 5 and 15 wt%, and said quantity of water is between about 15 and 30 wt% of the total weight of the first mixture; (b) transferring the first mixture into a mold having a predetermined shape; (c) applying pressure of between about 5 and 20 N/mm 2 at a load rate of between about 0.5 and 2 N/mm 2 /sec onto the first mixture for draining at least 10 vol% of liquid from the first mixture, thereby providing a drained first mixture; said draining of at least 10 vol% liquid denotes draining of at least 10 vol% from the total amount of liquid components in said first mixture prior to application of said pressure; and (d) curing said drained first mixture under curing conditions permitting to obtain said masonry composite material, the masonry composite material having a water content of up to 10 wt% water. (a) mixing at least one type of absorbable mineral composition in particulate form, with at least one type of cement composition and a quantity of water to thereby obtain a first mixture; at least 50 % weight of the absorbable mineral composition particles having a size of less than about 2mm; wherein the absorbable mineral composition is limestone; the absorbable mineral composition having liquid absorbance of at least 25% by weight as measured by British Standards BS EN 1925:1999 or BS EN 13755:2008; the cement being present in the first mixture in an amount of between 5 and 15 wt%, and said quantity of water is between about 15 and 30 wt% of the total weight of the first mixture; (b) transferring the first mixture into a mold having a predetermined shape; (c) applying pressure of between about 5 and 20 N/mm 2 at a load rate of between about 0.5 and 2 N/mm 2 /sec onto the first mixture for draining at least 10 vol% of liquid from the first mixture, thereby providing a drained first mixture; said draining of at least 10 vol% liquid denotes draining of at least 10 vol% from the total amount of liquid components in said first mixture prior to application of said pressure; and (d) curing said drained first mixture under curing conditions permitting to obtain said masonry composite material, the masonry composite material having a water content of up to 10 wt% water.
A pellicle comprising: a pellicle frame ; a pellicle membrane disposed on one end surface of the pellicle frame ; and a mask adhesive layer including a mask adhesive, the mask adhesive layer being disposed on the other end surface of the pellicle frame , wherein the mask adhesive includes 100 parts by mass of a thermoplastic elastomer (A) having a temperature of -20°C to 30°C at which a maximum value of a loss tangent is measured under a frequency of 1 Hz, and 20 to 150 parts by mass of a tackifying resin (B), the thermoplastic elastomer (A) is at least one selected from the group consisting of a styrene thermoplastic elastomer, a (meth)acrylate ester thermoplastic elastomer, and an olefin thermoplastic elastomer, and the mask adhesive has a temperature of -10°C to 30°C at which the maximum value of loss tangent is measured under a frequency of 1 Hz. a pellicle frame ; a pellicle membrane disposed on one end surface of the pellicle frame ; and a mask adhesive layer including a mask adhesive, the mask adhesive layer being disposed on the other end surface of the pellicle frame , wherein the mask adhesive includes 100 parts by mass of a thermoplastic elastomer (A) having a temperature of -20°C to 30°C at which a maximum value of a loss tangent is measured under a frequency of 1 Hz, and 20 to 150 parts by mass of a tackifying resin (B), the thermoplastic elastomer (A) is at least one selected from the group consisting of a styrene thermoplastic elastomer, a (meth)acrylate ester thermoplastic elastomer, and an olefin thermoplastic elastomer, and the mask adhesive has a temperature of -10°C to 30°C at which the maximum value of loss tangent is measured under a frequency of 1 Hz.
A light emitter board, comprising: a substrate having a mount surface on which a first light emitter and a second light emitter of a pixel unit are mountable; at least one pixel unit on the mount surface , the at least one pixel unit including a drive circuit , a first drive line , and a second drive line , the first drive line and the second drive line being connected in parallel to each other to the drive circuit , the first drive line inputting a drive signal into the first light emitter and being a constant line to constantly drive the first light emitter , the second drive line inputting the drive signal into the second light emitter and being a redundant line to redundantly drive the second light emitter ; a first positive electrode pad and a first negative electrode pad on the mount surface , the first positive electrode pad and the first negative electrode pad being connectable to the first light emitter , one of the first positive electrode pad or the first negative electrode pad being connected to the first drive line ;and a second positive electrode pad and a second negative electrode pad on the mount surface , the second positive electrode pad and the second negative electrode pad being connectable to the second light emitter , one of the second positive electrode pad or the second negative electrode pad being connected to the second drive line ; characterized in that the second positive electrode pad has a greater area than the first positive electrode pad and/or the second negative electrode pad has a greater area than the first negative electrode pad . a substrate having a mount surface on which a first light emitter and a second light emitter of a pixel unit are mountable; at least one pixel unit on the mount surface , the at least one pixel unit including a drive circuit , a first drive line , and a second drive line , the first drive line and the second drive line being connected in parallel to each other to the drive circuit , the first drive line inputting a drive signal into the first light emitter and being a constant line to constantly drive the first light emitter , the second drive line inputting the drive signal into the second light emitter and being a redundant line to redundantly drive the second light emitter ; a first positive electrode pad and a first negative electrode pad on the mount surface , the first positive electrode pad and the first negative electrode pad being connectable to the first light emitter , one of the first positive electrode pad or the first negative electrode pad being connected to the first drive line ;and a second positive electrode pad and a second negative electrode pad on the mount surface , the second positive electrode pad and the second negative electrode pad being connectable to the second light emitter , one of the second positive electrode pad or the second negative electrode pad being connected to the second drive line ; characterized in that the second positive electrode pad has a greater area than the first positive electrode pad and/or the second negative electrode pad has a greater area than the first negative electrode pad .
An arrangement for an electrical switching device with at least one contact spring , a further component , the further component being an armature , with at least two switching states , wherein, in one switching state , the contact spring is moved with respect to the other switching state , and with a transition phase between the two switching states , wherein in the transition phase the contact spring and the further component abut one another at an edge having an abutting location , wherein the edge runs in an inclined manner with respect to a longitudinal direction of the contact spring , characterised in that the edge is formed as a protrusion.
Method for controlling a technical installation , in which, on the basis of a control command , a first computing apparatus provides a first program code and a second computing apparatus provides a second program code , wherein the first computing apparatus forms a secure computing environment and the second computing apparatus forms a fast computing environment, and a test apparatus , which executes the second program code and determines at least one verification parameter for the second program code , is provided, and a control apparatus executes either the first program code or the second program code depending on whether a predetermined criterion for the at least one verification parameter is met, and generates at least one control instruction for controlling the technical installation and records at least one operating parameter of the technical installation , characterized in that a monitoring apparatus determines at least one monitoring parameter , which is selected from the group consisting of the second program code , the at least one verification parameter , the at least one control instruction and the at least one operating parameter , and an emulation platform determines at least one model , which is employed by a statistical emulator comprised by the second computing apparatus to determine the second program code . and a test apparatus , which executes the second program code and determines at least one verification parameter for the second program code , is provided, and a control apparatus executes either the first program code or the second program code depending on whether a predetermined criterion for the at least one verification parameter is met, and generates at least one control instruction for controlling the technical installation and records at least one operating parameter of the technical installation , characterized in that a monitoring apparatus determines at least one monitoring parameter , which is selected from the group consisting of the second program code , the at least one verification parameter , the at least one control instruction and the at least one operating parameter , and an emulation platform determines at least one model , which is employed by a statistical emulator comprised by the second computing apparatus to determine the second program code .
A method of transmitting random access channel, RACH, signals from a wireless device, comprising: identifying a first timing advance, TA, value; transmitting a RACH signal based on the first TA value on a first resource to a second wireless device; identifying a second TA value, wherein the second TA value is different from the first TA value; and transmitting the RACH signal based on the second TA value on a second resource to the second wireless device, wherein transmitting the RACH signal based on the second TA value is performed in response to identifying a failure of decoding the RACH signal transmitted based on the first TA value. identifying a first timing advance, TA, value; transmitting a RACH signal based on the first TA value on a first resource to a second wireless device; identifying a second TA value, wherein the second TA value is different from the first TA value; and transmitting the RACH signal based on the second TA value on a second resource to the second wireless device, wherein transmitting the RACH signal based on the second TA value is performed in response to identifying a failure of decoding the RACH signal transmitted based on the first TA value.
A method of preparing a precursor compound having the formula comprising: where E= Si, n1 = 1 to (2(k+1)-n2); n2 = 0 to (2(k + 1)_n1); k = 2 to 6; R 1 , and R 3 are independently selected from the group consisting of H, linear or branched C1 to C6 alkyl, linear or branched C1 to C8 alkenyl, linear or branched C1 to C8 alkynyl, C6 to C10 aryl, linear or branched C1 to C6 alkyl ether, silyl, trimethyl silyl, or linear or branched C1 to C6 alkyl-substituted silyl;_R 2 , and R 4 are independently selected from the group consisting of linear or branched C1 to C6 alkyl, linear or branched C1 to C8 alkenyl, linear or branched C1 to C8 alkynyl, C6 to C10 aryl, linear or branched C1 to C6 alkyl ether, silyl, trimethyl silyl, or linear or branched C1 to C6 alkyl-substituted silyl ; the amino groups may be bound to any E atom, comprising: a) contacting the reactants R 1 R 2 NH and R 3 R 4 NH and EkH2(k+1) in the presence of a transition metal catalyst forming a reaction mixture; b) optionally adding a solvent to the reaction mixture; c) maintaining the reaction mixture at a temperature between 0 °C to 300 °C; d) allowing the reaction to proceed to form the (R 1 R 2 N)n1(R 3 R 4 N)n2EkH(2(k+1)_n1_n2) precursor compound; e) separating the (R 1 R 2 N)n1(R 3 R 4 N)n2EkH(2(k+1)_n1_n2) precursor compound from the reaction mixture; wherein the reaction mixture temperature may vary during the synthesis and is maintained such that the temperature of the reaction mixture is not allowed to drop below 0°C and not exceed 300°C. a) contacting the reactants R 1 R 2 NH and R 3 R 4 NH and EkH2(k+1) in the presence of a transition metal catalyst forming a reaction mixture; b) optionally adding a solvent to the reaction mixture; c) maintaining the reaction mixture at a temperature between 0 °C to 300 °C; d) allowing the reaction to proceed to form the (R 1 R 2 N)n1(R 3 R 4 N)n2EkH(2(k+1)_n1_n2) precursor compound; e) separating the (R 1 R 2 N)n1(R 3 R 4 N)n2EkH(2(k+1)_n1_n2) precursor compound from the reaction mixture; wherein the reaction mixture temperature may vary during the synthesis and is maintained such that the temperature of the reaction mixture is not allowed to drop below 0°C and not exceed 300°C.
A sensing device comprising: a microwave sensor configured to emit microwave radiation and to receive microwave radiation reflected by a moving body in the field of detection of the microwave sensor; a wireless data transmitter configured to transmit data to a remote receiver, a main power supply for providing electrical power at a first voltage to the sensing device, characterised in that the sensing device further comprises: a first voltage regulator provided between the main power supply and the microwave sensor for providing a sensor power supply to the microwave sensor at a voltage below the voltage of the main power supply, wherein the wireless data transmitter is powered from the main power supply via a transmitter power supply connection arranged in parallel with the first voltage regulator . a microwave sensor configured to emit microwave radiation and to receive microwave radiation reflected by a moving body in the field of detection of the microwave sensor; a wireless data transmitter configured to transmit data to a remote receiver, a main power supply for providing electrical power at a first voltage to the sensing device, a first voltage regulator provided between the main power supply and the microwave sensor for providing a sensor power supply to the microwave sensor at a voltage below the voltage of the main power supply, wherein the wireless data transmitter is powered from the main power supply via a transmitter power supply connection arranged in parallel with the first voltage regulator .