mhurhangee/patent-ind-claim-en huggingface dataset:
A method of ionizing a first stream of liquid by an electrospray ion source having a nebulizer, wherein the first stream of liquid may comprise an analyte, the method comprising: a) providing the first stream of liquid to the nebulizer; b) adding a second stream of liquid to the first stream of liquid in the nebulizer, at an input end of the nebulizer, or upstream of the nebulizer; and wherein the second stream of liquid comprises a co-solvent and an enhancement solvent, the co-solvent having a boiling point between 4°C and 110 °C, and the enhancement solvent having a boiling point between 150 °C and 300 °C; and c) nebulizing and ionizing the resulting liquid, characterized in that the enhancement solvent is selected from the group consisting of DMSO, 2-(2-methoxyethoxy)ethanol and propylene glycol, and if the enhancement solvent is DMSO, then the electrospray ion source is run in negative ion mode. a) providing the first stream of liquid to the nebulizer; b) adding a second stream of liquid to the first stream of liquid in the nebulizer, at an input end of the nebulizer, or upstream of the nebulizer; and wherein the second stream of liquid comprises a co-solvent and an enhancement solvent, the co-solvent having a boiling point between 4°C and 110 °C, and the enhancement solvent having a boiling point between 150 °C and 300 °C; and c) nebulizing and ionizing the resulting liquid,
Method of performing an automatic rescue operation of an elevator system , the method comprising: (A) detecting a safety signal indicating a safety issue within the elevator system; (B) sending data comprising information about the current state of the elevator system to an external server ; (C) analyzing the transmitted data on the external server ; and (D) depending on the result of the analysis, sending commands to the elevator system , wherein the commands include instructing the elevator system : (a) to ignore the safety issue and resume normal operation of the elevator system , (b) to operate the elevator system in a restricted rescue mode, or (c) to stop operating of the elevator system ; wherein the analysis of the received data is based on a model of the elevator system ; characterized in that the model is implemented on the external server ; the model is configured for transferring the elevator system from its current state via at least one intermediate state into a state allowing normal operation or into a state allowing a restricted rescue operation of the elevator system ; and steps (B) to (D) are repeated in a loop for checking whether the elevator system has reached the respectively desired intermediate state before the next command is sent to the elevator system . (A) detecting a safety signal indicating a safety issue within the elevator system; (B) sending data comprising information about the current state of the elevator system to an external server ; (C) analyzing the transmitted data on the external server ; and (D) depending on the result of the analysis, sending commands to the elevator system , wherein the commands include instructing the elevator system : (a) to ignore the safety issue and resume normal operation of the elevator system , (b) to operate the elevator system in a restricted rescue mode, or (c) to stop operating of the elevator system ; wherein the analysis of the received data is based on a model of the elevator system ; characterized in that the model is implemented on the external server ; the model is configured for transferring the elevator system from its current state via at least one intermediate state into a state allowing normal operation or into a state allowing a restricted rescue operation of the elevator system ; and steps (B) to (D) are repeated in a loop for checking whether the elevator system has reached the respectively desired intermediate state before the next command is sent to the elevator system . (a) to ignore the safety issue and resume normal operation of the elevator system , (b) to operate the elevator system in a restricted rescue mode, or (c) to stop operating of the elevator system ;
Methylene blue for use in therapeutic killing of Acinetobacter baumannii organisms with colistin resistance.
An antennas-in-package, AiP, verification board, comprising: a carrier board configured for disposing an antenna array or an electronic circuit; and a plurality of push-on connectors arranged in an array on the carrier board , wherein the plurality of push-on connectors are configured to be electrically connected with the antenna array or the electronic circuit on the carrier board for testing characteristics of the antenna array on the carrier board or characteristics of the electronic circuit on the carrier board , wherein the plurality of push-on connectors are configured to be connected with a test equipment, characterised in that the plurality of push-on connectors are sub-miniature push-on micro, SMPM, connectors . a carrier board configured for disposing an antenna array or an electronic circuit; and a plurality of push-on connectors arranged in an array on the carrier board , wherein the plurality of push-on connectors are configured to be electrically connected with the antenna array or the electronic circuit on the carrier board for testing characteristics of the antenna array on the carrier board or characteristics of the electronic circuit on the carrier board , wherein the plurality of push-on connectors are configured to be connected with a test equipment, characterised in that the plurality of push-on connectors are sub-miniature push-on micro, SMPM, connectors .
A monoclonal antibody specifically binding to human B cell maturation antigen (BCMA), wherein the antibody comprises a CDR3H region of SEQ ID NO:17 and a CDR3L region of SEQ ID NO:20 and a CDR1H, CDR2H, CDR1L, and CDR2L region combination selected from the group of: a) CDR1H region of SEQ ID NO:21 and CDR2H region of SEQ ID NO:22, CDR1L region of SEQ ID NO:25, and CDR2L region of SEQ ID NO:26, and b) CDR1H region of SEQ ID NO:21 and CDR2H region of SEQ ID NO:22, CDR1L region of SEQ ID NO:27, and CDR2L region of SEQ ID NO:28. a) CDR1H region of SEQ ID NO:21 and CDR2H region of SEQ ID NO:22, CDR1L region of SEQ ID NO:25, and CDR2L region of SEQ ID NO:26, and b) CDR1H region of SEQ ID NO:21 and CDR2H region of SEQ ID NO:22, CDR1L region of SEQ ID NO:27, and CDR2L region of SEQ ID NO:28.
Brake device for a hydraulic motor vehicle brake system, having: - a master brake cylinder having at least one piston which is linearly displaceable therein and bounds at least one pressure chamber which is filled with a pressure medium and has the purpose of generating hydraulic brake pressure, - wherein at least one active face (A1) for generating brake pressure in the pressure chamber can be switched in a hydraulically ineffective fashion under the control of pressure in the master brake cylinder , as a result of which the brake pressure in the pressure chamber is built up incremented, wherein the deactivation of the active face (A1) is carried out by a valve arrangement which is controlled by the pressure in the pressure chamber , characterized in that during regular service braking an electronically controlled brake booster acts on the piston , and during irregular braking the muscle power of a driver acts on the piston , wherein the brake booster is assigned an electromotive drive unit , at whose activation a boosted braking force is generated, and the brake booster is provided without an energy store, such that when the drive unit is deactivated a boosted braking force is not generated. - a master brake cylinder having at least one piston which is linearly displaceable therein and bounds at least one pressure chamber which is filled with a pressure medium and has the purpose of generating hydraulic brake pressure, - wherein at least one active face (A1) for generating brake pressure in the pressure chamber can be switched in a hydraulically ineffective fashion under the control of pressure in the master brake cylinder , as a result of which the brake pressure in the pressure chamber is built up incremented,
Hand-held applicator for collecting, mixing, diluting and discharging a sample liquid, comprising a main body having an inlet-aperture , an outlet-aperture and a chamber for storing a liquid solution, wherein the chamber is connected to the inlet-aperture and the outlet-aperture ; a lid for covering the inlet-aperture ; and a tube , moveably supported in the inlet-aperture when the lid is covering the upper portion of the main body, wherein the tube is moveable between a predetermined position outside the chamber and a position, in which the tube is at least partly located in the chamber . characterized in that an outlet-opening of the chamber is provided on a protrusion on the bottom of the chamber or on a protrusion on top of a moveable plunger that is accommodated in a bottom portion of the main body .
A circuit component arrangement comprising: a base ; at least one circuit component mounted to the base ; and a bonding agent adhering the at least one circuit component in intimate thermal contact to the base , wherein the bonding agent is disposed in a respective open channel defined in an outward facing surface of the base in contact with each of the at least one circuit component , and characterized by the open channel being in fluid communication with a window opening defined in a surface of the base , wherein the window opening is visible for confirmation that the open channel is filled with bonding agent with a circuit component pressed against the open channel . a base ; at least one circuit component mounted to the base ; and
A chemical vapour deposition process for preparing a coated glass substrate, said process comprising at least the following steps in sequence: a) providing a glass substrate having a surface, b) depositing a layer based on SiCO and/or SiNO on the surface of the glass substrate, c) exposing the layer based on SiCO and/or SiNO to a gaseous mixture (i) comprising water, and d) subsequently depositing a layer based on a TCO over the layer based on SiCO and/or SiNO, wherein the gaseous mixture (i) comprises a ratio of water to oxygen of at least 1.5:1 by volume, preferably at least 3:1 by volume. a) providing a glass substrate having a surface, b) depositing a layer based on SiCO and/or SiNO on the surface of the glass substrate, c) exposing the layer based on SiCO and/or SiNO to a gaseous mixture (i) comprising water, and d) subsequently depositing a layer based on a TCO over the layer based on SiCO and/or SiNO, wherein the gaseous mixture (i) comprises a ratio of water to oxygen of at least 1.5:1 by volume, preferably at least 3:1 by volume.
Method for marking and identification of products including the following steps: - providing an ink formulation containing semiconducting inorganic nanocrystals that emit radiation in the range from 750-1800 nm, preferably from 800 to 1400 nm, most preferably from 850 nm to 1100 nm, upon photon excitation; - generating a unique code for identification of a product; - printing the ink formulation on at least one face of the product surface in the form of said unique code; - irradiating the product that was printed with the ink formulation to excite with blue or white light; - detecting the radiation emitted by the irradiated product in the range from 750-1800 nm, preferably from 800 to 1400 nm, most preferably from 850 nm to 1100 nm. - providing an ink formulation containing semiconducting inorganic nanocrystals that emit radiation in the range from 750-1800 nm, preferably from 800 to 1400 nm, most preferably from 850 nm to 1100 nm, upon photon excitation; - generating a unique code for identification of a product; - printing the ink formulation on at least one face of the product surface in the form of said unique code; - irradiating the product that was printed with the ink formulation to excite with blue or white light; - detecting the radiation emitted by the irradiated product in the range from 750-1800 nm, preferably from 800 to 1400 nm, most preferably from 850 nm to 1100 nm.
An apparatus for directed pollination of a maize plant, wherein the maize plant defines a tassel and an ear shoot, the apparatus comprising: a rigid tube having a first end, a second end, and a channel defined therebetween, and characterised in that : the rigid tube is a telescoping rigid tube such that the overall length of the rigid tube is adjustable, wherein the rigid tube is configured to receive a tassel of a maize plant proximate the first end, the rigid tube is configured to interact with an ear shoot of a maize plant proximate the second end, and wherein the channel defines a path between the tassel and the ear shoot so as to enable transfer of pollen from the tassel to the ear shoot, and the apparatus further comprises a fan fluidly connected to the channel, wherein the fan is configured to create air flow to transfer the pollen through the channel to the ear shoot. the rigid tube is a telescoping rigid tube such that the overall length of the rigid tube is adjustable, wherein the rigid tube is configured to receive a tassel of a maize plant proximate the first end, the rigid tube is configured to interact with an ear shoot of a maize plant proximate the second end, and wherein the channel defines a path between the tassel and the ear shoot so as to enable transfer of pollen from the tassel to the ear shoot, and the apparatus further comprises a fan fluidly connected to the channel, wherein the fan is configured to create air flow to transfer the pollen through the channel to the ear shoot.
A method for wireless communication at a user equipment, UE, comprising: receiving, via a first radio, a configuration for a discovery reference signal, DRS, measurement timing window for a first cell associated with a first frequency band ; identifying, based on the configuration for the DRS measurement timing window, a DRS timing offset for a second cell associated with a second frequency band, the second frequency band comprising higher frequencies than the first frequency band ; and monitoring, via a second radio, for a second DRS associated with the second cell based at least in part on the DRS measurement timing window for the first cell and the DRS timing offset for the second cell . receiving, via a first radio, a configuration for a discovery reference signal, DRS, measurement timing window for a first cell associated with a first frequency band ; identifying, based on the configuration for the DRS measurement timing window, a DRS timing offset for a second cell associated with a second frequency band, the second frequency band comprising higher frequencies than the first frequency band ; and monitoring, via a second radio, for a second DRS associated with the second cell based at least in part on the DRS measurement timing window for the first cell and the DRS timing offset for the second cell .
An aerogel blanket having a moisture impregnation rate of 28 days (MIR-28D) of 100 wt% or less, which is calculated by Equation 1 below: Moisture impregnation rate of 28 days MIR − 28 D , wt % = Aerogel blanket weight after impregnation in distilled water of 21 ± 2 ° C for 28 days − Aerogel blanket weight before impregnation in distilled water / Aerogel blanket weight before impregnation in distilled water × 100 .
Apparatus for the production of radioisotopes that has a connection element that may be connected to a radiation source, a foil holder block connected to this connection element and a first foil secured by the foil holder block in a beam channel delimited by the connection element , the foil holder block and a cooling connection block connected to this, a target holder connected to the cooling connection block and a target holder actuator driving this, a dissolution chamber that may be connected to the target holder , characterised by that the target holder has two or more cavities , which cavities are adapted for accommodating a target and a dissolution chamber actuator is connected to the dissolution chamber .
A method for encoding source video, comprising: receiving, by a computing system, a source frame of a source video; encoding, by the computing system, the source frame to form a plurality of virtual frames , each of the plurality of virtual frames encoded using at least one different coding standard; and transmitting, by the computing system, a container frame over a network , the container frame comprising the plurality of virtual frames and a container timestamp common to each of the plurality of virtual frames. receiving, by a computing system, a source frame of a source video; encoding, by the computing system, the source frame to form a plurality of virtual frames , each of the plurality of virtual frames encoded using at least one different coding standard; and transmitting, by the computing system, a container frame over a network , the container frame comprising the plurality of virtual frames and a container timestamp common to each of the plurality of virtual frames.
A method of treating cellulose pulp for use in regeneration of cellulose, characterized in that said method comprises the steps of: i) preparing an alkaline metal hydroxide solution having a concentration of 4-10% by weight; ii) adding cellulose pulp to form a slurry; iii) heating said slurry to a temperature of 40-100°C, preferably 50-90°C, and more preferably 60-80°C; and iv) dissolving the treated cellulose pulp in an alkaline solution having a temperature within the range of -10°C to 12°C; wherein the percentage by weight is based on the total weight of said slurry. i) preparing an alkaline metal hydroxide solution having a concentration of 4-10% by weight; ii) adding cellulose pulp to form a slurry; iii) heating said slurry to a temperature of 40-100°C, preferably 50-90°C, and more preferably 60-80°C; and iv) dissolving the treated cellulose pulp in an alkaline solution having a temperature within the range of -10°C to 12°C;
A soft contact lens comprising a solid component, based on a polymer, which is provided for conferring shape and structure on the contact lens and a liquid component which is distributed in the solid component, characterized in that the liquid component comprises tyrosine at a concentration between 1 and 200 mg/l.
A plug assembly , in particular for use in a vehicle, comprising a tube , a sealing element and a plug connector , which comprises a connector body , wherein the connector body comprises an annulus located between a sleeve-shaped first casing section annularly surrounding a central longitudinal axis of the plug connector in cross section and a sleeve-shaped second casing section of the plug connector annularly surrounding the central longitudinal axis , wherein the first casing section is surrounded by the second casing section and the first casing section of the connector body is connected to the second casing section on a first end section by a first front wall section and the casing sections are open to one another on a second end section , thereby forming a tube receiving side of the connector body , wherein a connection section of the tube is introduced into the annulus of the connector body from the tube receiving side and the sealing element is arranged between the first casing section and the connection section of the tube , wherein the first casing section of the connector body is deformed in such a way that an interlocking connection is established between a shaping region of the first casing section of the connector body and the tube , wherein the sealing element protrudes at least partially into the shaping region of the first casing section , such that the sealing element is clamped at least sectionally between the first casing section and the tube , wherein the first casing section directly rests on the tube at least sectionally in a contact region , characterized in that the sealing element is arranged at a distance to the center of the contact region , said distance being selected such that the sealing element is clamped between a first flank of the deformed first casing section adjoining the contact region and the tube , however, does not protrude into a second flank adjoining the contact region and opposing the first flank .
A method of increasing a heat transfer of a cooling fluid passing through a component of a gas turbine engine, comprising: directing a cooling fluid between an interior surface of an internal cooling cavity of the component and an exterior surface of a baffle insert located in the internal cooling cavity; and creating a plurality of vortices in the cooling fluid as it passes between the exterior surface of the baffle insert and the interior surface of the internal cooling cavity; characterised in that the internal cooling cavity is elliptical in shape and/or the exterior surface of the baffle insert is elliptical in shape. directing a cooling fluid between an interior surface of an internal cooling cavity of the component and an exterior surface of a baffle insert located in the internal cooling cavity; and creating a plurality of vortices in the cooling fluid as it passes between the exterior surface of the baffle insert and the interior surface of the internal cooling cavity; characterised in that the internal cooling cavity is elliptical in shape and/or the exterior surface of the baffle insert is elliptical in shape.
A mechanical thrombectomy device, comprising: a guidewire-like delivery portion, an expandable treatment portion having a body portion and a flow block element in the body portion, all made from a single piece of tubing of biocompatible material, so as to provide a seamless transition from the delivery portion to the treatment portion, and a proximal flow restrictor is attached onto the proximal end of the body portion, wherein the proximal flow restrictor , when in the expanded state, is adapted to have an expanded profile spaced a distance away from the proximal end of the treatment portion . a guidewire-like delivery portion, an expandable treatment portion having a body portion and a flow block element in the body portion, all made from a single piece of tubing of biocompatible material, so as to provide a seamless transition from the delivery portion to the treatment portion, and a proximal flow restrictor is attached onto the proximal end of the body portion, wherein the proximal flow restrictor , when in the expanded state, is adapted to have an expanded profile spaced a distance away from the proximal end of the treatment portion .
A method for monitoring a virtual document object model (VDOM), comprising: generating , via a first thread, a first VDOM node and sending the first VDOM node to a second thread; comparing , via the second thread, the first VDOM node to a second VDOM node to be updated so as to determine whether the first VDOM node is the same as the second VDOM node to be updated, and returning a comparison result to the first thread; and sending , via the first thread, the first VDOM node to a third thread when the comparison result received from the second thread indicates that the first VDOM node is different from the second VDOM node to be updated, wherein the third thread is configured to perform page rendering based on the first VDOM node. generating , via a first thread, a first VDOM node and sending the first VDOM node to a second thread; comparing , via the second thread, the first VDOM node to a second VDOM node to be updated so as to determine whether the first VDOM node is the same as the second VDOM node to be updated, and returning a comparison result to the first thread; and sending , via the first thread, the first VDOM node to a third thread when the comparison result received from the second thread indicates that the first VDOM node is different from the second VDOM node to be updated, wherein the third thread is configured to perform page rendering based on the first VDOM node.