mhurhangee/patent-ind-claim-en huggingface dataset:
A compound of the formula B-L-IA wherein B is a radical of a ligand of prostate specific membrane antigen (PSMA) of the formula L is a linker, wherein the linker is a peptide comprising a tripeptide of an aminoalkylcarboxylic acid and two Phe residues, or wherein the linker includes one or more hydrophilic linkers capable of interacting with one or more residues of PSMA, including amino acids that have hydrophilic side chains, said amino acids being chosen from the group consisting of: Ser, Thr, Cys, Arg, Orn, Lys, Asp, Glu and Gln; and IA is an imaging agent selected from the group consisting of a fluorescein, AlexaFluor 647, DyLight 680, DyLight 800, and CW 800; or a pharmaceutically acceptable salt thereof. B is a radical of a ligand of prostate specific membrane antigen (PSMA) of the formula L is a linker, wherein the linker is a peptide comprising a tripeptide of an aminoalkylcarboxylic acid and two Phe residues, or wherein the linker includes one or more hydrophilic linkers capable of interacting with one or more residues of PSMA, including amino acids that have hydrophilic side chains, said amino acids being chosen from the group consisting of: Ser, Thr, Cys, Arg, Orn, Lys, Asp, Glu and Gln; and IA is an imaging agent selected from the group consisting of a fluorescein, AlexaFluor 647, DyLight 680, DyLight 800, and CW 800; or a pharmaceutically acceptable salt thereof.
An apparatus comprising: a collection filter comprising a plurality of cords, strings or ropes made from poly-paraphenylene terephthalamide, the cords, strings or ropes having collection surfaces configured to contact with a mixture comprising water and valuable material, the valuable material comprising a plurality of mineral particles; and the collection surfaces comprising a coating material made of a siloxane derivative to attract the mineral particles to the collection surfaces. a collection filter comprising a plurality of cords, strings or ropes made from poly-paraphenylene terephthalamide, the cords, strings or ropes having collection surfaces configured to contact with a mixture comprising water and valuable material, the valuable material comprising a plurality of mineral particles; and the collection surfaces comprising a coating material made of a siloxane derivative to attract the mineral particles to the collection surfaces.
An isolated recombinant human lysosomal acid lipase (rhLAL) that contains N-linked glycans attached to Asn15, Asn80, Asn140, Asn252 and Asn300, as set forth in SEQ ID NO: 1, wherein the N-linked glycans comprise bi-, tri- and tetra-antennary structures with N-acetylglucosamine (GlcNAc), mannose and/or manose-6-phosphate (M6P), and wherein the rhLAL comprises M6P-containing glycans at Asn80, Asn140 and Asn252.
A method for rapid restarting of a plant or vehicle control system , wherein the plant or vehicle control system comprises a processor , said method comprising: storing at least one executable program on a read only memory, ROM, device ; copying the at least one executable program to a first random access memory, RAM, sector and a second RAM sector of a RAM device at a startup of said plant or vehicle control system , wherein the first RAM sector is a low-RAM sector on a low address space of one continuous bank of RAM of said RAM device and the second RAM sector is a high-RAM sector on a high-address space of the continuous bank of RAM; copying the at least one executable program from the second RAM sector to the first RAM sector after an error or fault with the processor ; and reinitializing processor operation by executing the at least one executable program copied from the second RAM sector to the first RAM sector , wherein the at least one executable program is executed from the first RAM sector . storing at least one executable program on a read only memory, ROM, device ; copying the at least one executable program to a first random access memory, RAM, sector and a second RAM sector of a RAM device at a startup of said plant or vehicle control system , wherein the first RAM sector is a low-RAM sector on a low address space of one continuous bank of RAM of said RAM device and the second RAM sector is a high-RAM sector on a high-address space of the continuous bank of RAM; copying the at least one executable program from the second RAM sector to the first RAM sector after an error or fault with the processor ; and reinitializing processor operation by executing the at least one executable program copied from the second RAM sector to the first RAM sector , wherein the at least one executable program is executed from the first RAM sector .
Holding head for releasable connection to the upper end of an upper support part of a formwork support for supporting a formwork carrier , comprising: - a base having a top for supporting the formwork carrier , - at least one holding element for holding a longitudinal region of the formwork carrier , - two securing elements for engaging in a corresponding securing element on a head part of the formwork support , the securing elements being securing pins which protrude downwards substantially immovably from a bottom of the base , and - a locking element which is displaceable at a distance from the base in order to fasten the holding head to the head part of the formwork support , the locking element being displaceable substantially in the longitudinal direction of the holding head , characterised in that a wedge is provided as a locking element and is displaceable between a clamping position which clamps the head part of the formwork support , and a release position which releases the head part of the formwork support , and a holding flange which projects downwards from each of the opposite transverse sides of the base , at least one of the holding flanges having at least one holding opening for displaceably receiving of the wedge . - a base having a top for supporting the formwork carrier , - at least one holding element for holding a longitudinal region of the formwork carrier , - two securing elements for engaging in a corresponding securing element on a head part of the formwork support , the securing elements being securing pins which protrude downwards substantially immovably from a bottom of the base , and - a locking element which is displaceable at a distance from the base in order to fasten the holding head to the head part of the formwork support , the locking element being displaceable substantially in the longitudinal direction of the holding head ,
A dressing for applying on a wound, comprising: an absorbent pad having a wound-facing surface and a second surface opposite from the wound-facing surface, wherein the absorbent pad consists essentially of cellulosic fibers and polymeric fibers; and a non-stick film secured to the absorbent pad on the wound-facing surface, the non-stick film having a first region consisting essentially of a first polyester and a second region consisting essentially of a second polyester having a lower melting point than the first polyester. an absorbent pad having a wound-facing surface and a second surface opposite from the wound-facing surface, wherein the absorbent pad consists essentially of cellulosic fibers and polymeric fibers; and a non-stick film secured to the absorbent pad on the wound-facing surface, the non-stick film having a first region consisting essentially of a first polyester and a second region consisting essentially of a second polyester having a lower melting point than the first polyester.
A terminal device comprising: a sound detection device arranged to receive at least ultrasonic sound waves; a network interface arranged to communicate via a data network; and a processor arranged to communicate via the network interface and the data network with another device using a network address of the other device and a random number code received via the sound detection device; wherein the processor is arranged to establish a secure communication session over the data network with the other device, the processor being configured to: generate a random number challenge code C0 ; encrypt the random number challenge code C0 with the public key of a certificate corresponding to the other device to generate an encrypted random number challenge C1; perform a second encryption of C1 to generate a doubly encrypted random number challenge C2 using the random number code received via the sound detection device; send the doubly encrypted random number challenge C2 to the other device via the data network; receive a response from the other device; and communicate with the other device in dependence on determining whether the response from the other device includes the original, unencrypted random number challenge C0. a sound detection device arranged to receive at least ultrasonic sound waves; a network interface arranged to communicate via a data network; and a processor arranged to communicate via the network interface and the data network with another device using a network address of the other device and a random number code received via the sound detection device; wherein the processor is arranged to establish a secure communication session over the data network with the other device, the processor being configured to: generate a random number challenge code C0 ; encrypt the random number challenge code C0 with the public key of a certificate corresponding to the other device to generate an encrypted random number challenge C1; perform a second encryption of C1 to generate a doubly encrypted random number challenge C2 using the random number code received via the sound detection device; send the doubly encrypted random number challenge C2 to the other device via the data network; receive a response from the other device; and communicate with the other device in dependence on determining whether the response from the other device includes the original, unencrypted random number challenge C0. generate a random number challenge code C0 ; encrypt the random number challenge code C0 with the public key of a certificate corresponding to the other device to generate an encrypted random number challenge C1; perform a second encryption of C1 to generate a doubly encrypted random number challenge C2 using the random number code received via the sound detection device; send the doubly encrypted random number challenge C2 to the other device via the data network; receive a response from the other device; and communicate with the other device in dependence on determining whether the response from the other device includes the original, unencrypted random number challenge C0.
A method of performing power management in vector-by-matrix multiplication system comprising an array of non-volatile memory cells arranged into rows and columns, the method comprising: receiving a plurality of inputs for the array ; dividing the array into sets of rows; organizing the plurality of inputs into a plurality of sets of inputs, each set in the plurality of sets of inputs corresponding to a different set of rows in the array ; sequentially providing each set of the plurality of sets of inputs to its corresponding set of rows in the array ; sequentially receiving a plurality of sets of outputs from the array, each set of outputs generated in response to a set of the plurality of sets of inputs ; converting the plurality of sets of outputs into a plurality of sets of digital bits ; and combining, by a timing control circuit, the plurality of sets of digital bits into a digital output. receiving a plurality of inputs for the array ; dividing the array into sets of rows; organizing the plurality of inputs into a plurality of sets of inputs, each set in the plurality of sets of inputs corresponding to a different set of rows in the array ; sequentially providing each set of the plurality of sets of inputs to its corresponding set of rows in the array ; sequentially receiving a plurality of sets of outputs from the array, each set of outputs generated in response to a set of the plurality of sets of inputs ; converting the plurality of sets of outputs into a plurality of sets of digital bits ; and combining, by a timing control circuit, the plurality of sets of digital bits into a digital output.
An auxiliary power unit (APU) control system for an aircraft , the APU control system including an APU , the APU control system comprising: one or more processors ; and a memory coupled to the one or more processors, the memory storing data comprising a database and program code that, when executed by the one or more processors, causes the APU control system to: receive one or more ambient signals indicative of an air density value and one or more power signals indicative of a specific amount of power generated by the APU; determine a variable rotational speed of the APU based on the air density value; and instruct the APU to operate at the variable rotational speed, wherein the APU continues to generate the specific amount of power when operating at the variable rotational speed. one or more processors ; and a memory coupled to the one or more processors, the memory storing data comprising a database and program code that, when executed by the one or more processors, causes the APU control system to: receive one or more ambient signals indicative of an air density value and one or more power signals indicative of a specific amount of power generated by the APU; determine a variable rotational speed of the APU based on the air density value; and instruct the APU to operate at the variable rotational speed, wherein the APU continues to generate the specific amount of power when operating at the variable rotational speed. receive one or more ambient signals indicative of an air density value and one or more power signals indicative of a specific amount of power generated by the APU; determine a variable rotational speed of the APU based on the air density value; and instruct the APU to operate at the variable rotational speed, wherein the APU continues to generate the specific amount of power when operating at the variable rotational speed.
An optical wireless communications, OWC, transmitter, comprising: a laser diode ; a bias current delivery circuit for delivering a bias current to the laser diode suitable for bipolar modulation; a modulator for injecting a bipolar modulation current to the laser diode superposed with the bias current; a temperature sensor for sensing a temperature associated with the laser diode; and a controller adapted to set the bias current and the current modulation depth in dependence on the sensed temperature, where the modulation depth is selected based on the sensed temperature and to achieve a target operating condition, the target operating condition being a data transmissions rate and where the bias current is set to a lowest possible level with the current modulation depth selected, and when a higher data transmission rate is needed the modulation depth is increased taking into account a current upper limit. a laser diode ; a bias current delivery circuit for delivering a bias current to the laser diode suitable for bipolar modulation; a modulator for injecting a bipolar modulation current to the laser diode superposed with the bias current; a temperature sensor for sensing a temperature associated with the laser diode; and a controller adapted to set the bias current and the current modulation depth in dependence on the sensed temperature, where the modulation depth is selected based on the sensed temperature and to achieve a target operating condition, the target operating condition being a data transmissions rate and where the bias current is set to a lowest possible level with the current modulation depth selected, and when a higher data transmission rate is needed the modulation depth is increased taking into account a current upper limit.
A computer-implemented method for seismic surveying using a time-distributed firing source array (200, 201-206, 801-807) comprising a plurality of source elements , the method comprising the steps of: a. using the time-distributed firing source array (200,201-206, 801-807) to acquire time-distributed seismic data; b. determining a time-distributed source signature of the time-distributed firing source array (200, 201-206, 801-807); c. selecting a window of frequencies (512-514) in the time-distributed source signature ; d. setting up basis functions with multiple frequencies within the window of frequencies (512-514); e. convolving the time-distributed source signature with the basis functions to form a basis for the acquired time-distributed seismic data; f. inverting weighting factors from the acquired time-distributed seismic data and the basis for the acquired time-distributed seismic data; g. selecting an impulsive source signature; h. convolving the impulsive source signature with the basis functions and applying the weighting factors to form impulsive seismic data from the acquired time-distributed seismic data; and i. processing the formed impulsive seismic data to determine properties of an interior section of the Earth. a. using the time-distributed firing source array (200,201-206, 801-807) to acquire time-distributed seismic data; b. determining a time-distributed source signature of the time-distributed firing source array (200, 201-206, 801-807); c. selecting a window of frequencies (512-514) in the time-distributed source signature ; d. setting up basis functions with multiple frequencies within the window of frequencies (512-514); e. convolving the time-distributed source signature with the basis functions to form a basis for the acquired time-distributed seismic data; f. inverting weighting factors from the acquired time-distributed seismic data and the basis for the acquired time-distributed seismic data; g. selecting an impulsive source signature; h. convolving the impulsive source signature with the basis functions and applying the weighting factors to form impulsive seismic data from the acquired time-distributed seismic data; and i. processing the formed impulsive seismic data to determine properties of an interior section of the Earth.
A method of making a metal product , comprising: exposing an elongated metal substrate , which is a metal sheet, shate or plate, to a first time-varying magnetic field or first laser radiation to heat at least a first portion of the elongated metal substrate by induction heating or laser heating as the elongated metal substrate is moved along a rolling direction past a first magnetic field source generating the first time-varying magnetic field or laser source generating the first laser radiation, wherein the first time-varying magnetic field or first laser radiation heats at least the first portion of the elongated metal substrate to a first temperature sufficient to increase formability or plasticity of at least the first portion of the elongated metal substrate; wherein the first temperature is from 150 °C to 250 °C, characterized therein by, passing the elongated metal substrate between at least two rollers of a first roll-forming stand to bend the first portion of the elongated metal substrate , and that passing the elongated metal substrate between at least two rollers of the first roll-forming stand to bend the first portion of the elongated metal substrate occurs after the first portion of the elongated metal substrate cools below the first temperature or to ambient temperature. exposing an elongated metal substrate , which is a metal sheet, shate or plate, to a first time-varying magnetic field or first laser radiation to heat at least a first portion of the elongated metal substrate by induction heating or laser heating as the elongated metal substrate is moved along a rolling direction past a first magnetic field source generating the first time-varying magnetic field or laser source generating the first laser radiation, wherein the first time-varying magnetic field or first laser radiation heats at least the first portion of the elongated metal substrate to a first temperature sufficient to increase formability or plasticity of at least the first portion of the elongated metal substrate; wherein the first temperature is from 150 °C to 250 °C, characterized therein by, passing the elongated metal substrate between at least two rollers of a first roll-forming stand to bend the first portion of the elongated metal substrate , and that passing the elongated metal substrate between at least two rollers of the first roll-forming stand to bend the first portion of the elongated metal substrate occurs after the first portion of the elongated metal substrate cools below the first temperature or to ambient temperature.
A method for preparing chlorine gas through catalytic oxidation of hydrogen chloride, comprising the steps of: 1) providing two or more reactors (preferably adiabatic reactors) filled with a catalyst that are connected in series; 2) providing a gas stream containing hydrogen chloride and a gas stream containing oxygen for oxidation of the gas stream containing hydrogen chloride to a first reactor of the two or more reactors, and providing a gas stream containing hydrogen chloride to downstream reactors of the two or more reactors, for the catalytic oxidation of hydrogen chloride; 3) directly returning a part of a product gas stream from the last reactor of the reactors from the catalytic oxidation to any of the two or more reactors without separation thereof; 4) separating a remainder of the product gas stream from the last reactor of the reactors to obtain chlorine gas. 1) providing two or more reactors (preferably adiabatic reactors) filled with a catalyst that are connected in series; 2) providing a gas stream containing hydrogen chloride and a gas stream containing oxygen for oxidation of the gas stream containing hydrogen chloride to a first reactor of the two or more reactors, and providing a gas stream containing hydrogen chloride to downstream reactors of the two or more reactors, for the catalytic oxidation of hydrogen chloride; 3) directly returning a part of a product gas stream from the last reactor of the reactors from the catalytic oxidation to any of the two or more reactors without separation thereof; 4) separating a remainder of the product gas stream from the last reactor of the reactors to obtain chlorine gas.
A valve gate assembly for an injection molding apparatus having a least one hotrunner, comprising: a manifold defining a resin channel for conveying liquid resin from an injection molding machine toward a mold cavity; a nozzle disposed on a lower surface of the heated manifold; a valve pin configured for linear movement within and along a longitudinal axis of the nozzle to control flow through the nozzle; an electric motor and transmission configured to drive the valve pin; and a cooling block or cooling blocks assembled on the heated manifold ( 2 6 ) and supporting the electric motor and transmission, an adaptor plate is disposed between the manifold and the cooling block, characterized in that : - the adaptor plate is made of a material resistant to conductive heat transfer having a thermal conductivity less than 20W/mK, comprising one of the materials stainless steels, titanium alloys, ceramic materials. a manifold defining a resin channel for conveying liquid resin from an injection molding machine toward a mold cavity; a nozzle disposed on a lower surface of the heated manifold; a valve pin configured for linear movement within and along a longitudinal axis of the nozzle to control flow through the nozzle; an electric motor and transmission configured to drive the valve pin; and a cooling block or cooling blocks assembled on the heated manifold ( 2 6 ) and supporting the electric motor and transmission, an adaptor plate is disposed between the manifold and the cooling block, characterized in that : - the adaptor plate is made of a material resistant to conductive heat transfer having a thermal conductivity less than 20W/mK, comprising one of the materials stainless steels, titanium alloys, ceramic materials. - the adaptor plate is made of a material resistant to conductive heat transfer having a thermal conductivity less than 20W/mK, comprising one of the materials stainless steels, titanium alloys, ceramic materials.