mhurhangee/patent-ind-claim-en huggingface dataset:
A communication system comprising: a communication gateway to receive a communication from a first device ; a communication controller coupled to the communication gateway; and a self-test server configured to send one or more test messages to one or more apparatus associated with a user of the first device, wherein the communication controller is configured to receive the communication from the first device via the communication gateway and communicatively connect the first device and a second device , wherein the communication controller is configured to receive identification information corresponding to the user of the first device and transfer the identification information to the self-test server, and wherein, based on the identification information, and before the communication is transferred from the call controller to the second device, the self-test server is configured to: based on customer apparatus information pulled by the self-test server from a customer database, push a test message to a modem associated with the user of the first device; after a period for response from the modem has elapsed with no response, push a test message to a router associated with the user of the first device; and after a period for response from the router has elapsed with no response, send a technician support ticket to a technician. a communication gateway to receive a communication from a first device ; a communication controller coupled to the communication gateway; and a self-test server configured to send one or more test messages to one or more apparatus associated with a user of the first device, wherein the communication controller is configured to receive the communication from the first device via the communication gateway and communicatively connect the first device and a second device , wherein the communication controller is configured to receive identification information corresponding to the user of the first device and transfer the identification information to the self-test server, and wherein, based on the identification information, and before the communication is transferred from the call controller to the second device, the self-test server is configured to: based on customer apparatus information pulled by the self-test server from a customer database, push a test message to a modem associated with the user of the first device; after a period for response from the modem has elapsed with no response, push a test message to a router associated with the user of the first device; and after a period for response from the router has elapsed with no response, send a technician support ticket to a technician. based on customer apparatus information pulled by the self-test server from a customer database, push a test message to a modem associated with the user of the first device; after a period for response from the modem has elapsed with no response, push a test message to a router associated with the user of the first device; and after a period for response from the router has elapsed with no response, send a technician support ticket to a technician.
A program for causing a computer to perform an image processing method (S401-S406) of embedding first information in printed matter and an image processing method (S501-S506) of extracting and processing first information embedded in printed matter, comprising: a selection step (S401) of selecting a type of first information in accordance with instructions by a user via a user interface; a creation step (S402-S404) of creating the first information of the selected type in accordance with instructions by the user via a user interface; an embedment step (S405) of embedding the first information and second information indicating the type selected at the selection step in a printing-target image as an electronic watermark; a printing control step (S406) of causing a printing apparatus to print the printing-target image in which the first information and the second information have been embedded at the embedment step; an acquisition step (S501) of acquiring captured image data obtained by capturing the printed matter; an extraction step (S502) of extracting first information and second information from the captured image data acquired at the acquisition step; a determination step (S503) of determining a type of first information from the second information extracted at the extraction step; and a processing step (S504-S506) of processing the first information extracted at the extraction step by different processing methods in accordance with the type determined at the determining step. a selection step (S401) of selecting a type of first information in accordance with instructions by a user via a user interface; a creation step (S402-S404) of creating the first information of the selected type in accordance with instructions by the user via a user interface; an embedment step (S405) of embedding the first information and second information indicating the type selected at the selection step in a printing-target image as an electronic watermark; a printing control step (S406) of causing a printing apparatus to print the printing-target image in which the first information and the second information have been embedded at the embedment step; an acquisition step (S501) of acquiring captured image data obtained by capturing the printed matter; an extraction step (S502) of extracting first information and second information from the captured image data acquired at the acquisition step; a determination step (S503) of determining a type of first information from the second information extracted at the extraction step; and a processing step (S504-S506) of processing the first information extracted at the extraction step by different processing methods in accordance with the type determined at the determining step.
Medical instrument having a shank , a tool which is arranged on the distal end of the shank and consists of two pivotable jaw parts , wherein the pivotable jaw parts can additionally be angled in relation to a longitudinal axis of the shank , and having a handle which is arranged on the proximal end of the shank , wherein two separate drives are arranged on the handle , wherein a first drive for pivoting a first jaw part relative to the second jaw part is designed as a grip part which is mounted pivotable on the handle and is operatively connected to the first pivotable jaw part of the tool via a first pull/push rod which is mounted in an axially displaceable manner in the shank , wherein the pivoting of the two jaw parts (5 and 6) relative to one another and the angling of the jaw parts (5 and 6) in relation to the longitudinal axis of the shank are effected about the same pivot axis , wherein the pivot axis is arranged eccentrically with respect to the longitudinal axis of the shank characterized in that the second drive for angling the two jaw parts in relation to the longitudinal axis of the shank is operatively connected to the second jaw part of the tool via a second rod which is mounted in an axially displaceable manner in the shank , and wherein, the rod which is arranged in the shank is fixedly connected to the handle on its proximal end and provides a fixed pivot about which second jaw part may pivot on its distal end and in that the pull/push rod and rod are arranged parallel side by side in a hollow shank tube of the shank , and in that the two rods (15 and 19) arranged parallel side by side together comprise a circular cross section.
An assembly for a gas turbine engine , comprising: a fuel injector including a nozzle ; the nozzle extending axially along an axis to a nozzle tip ; wherein the fuel injector includes a plurality of discrete fuel circuits including a first fuel circuit , a second fuel circuit and a third fuel circuit ; the first fuel circuit comprising a first fuel outlet disposed at the nozzle tip ; characterized in that the second fuel circuit comprising a plurality of second fuel outlets arranged circumferentially about the axis at the nozzle tip in a second fuel outlet array; and the third fuel circuit comprising a plurality of third fuel outlets arranged circumferentially about the axis at the nozzle tip in a third fuel outlet array. a fuel injector including a nozzle ; the nozzle extending axially along an axis to a nozzle tip ; wherein the fuel injector includes a plurality of discrete fuel circuits including a first fuel circuit , a second fuel circuit and a third fuel circuit ; the first fuel circuit comprising a first fuel outlet disposed at the nozzle tip ; characterized in that the second fuel circuit comprising a plurality of second fuel outlets arranged circumferentially about the axis at the nozzle tip in a second fuel outlet array; and the third fuel circuit comprising a plurality of third fuel outlets arranged circumferentially about the axis at the nozzle tip in a third fuel outlet array.
An expression vector comprising: (a) a first expression cassette comprising the following elements in the order of upstream to downstream: a promoter operably linked to an insertion site for a gene of interest (GOI), an internal ribosome entry site (IRES) wherein the IRES consists of a polynucleotide sequence of SEQ ID NO: 3, a polynucleotide encoding a eukaryotic selectable marker, and a polyadenylation (polyA) signal; (b) a second expression cassette comprising a polynucleotide encoding a bacterial selectable marker; and (c) a bacterial plasmid origin of replication; wherein optionally the first expression cassette further comprises one or more regulatory element; and wherein optionally the regulatory element is an enhancer, an insulator, a locus control region (LCR), a matrix attachment region (MAR), a scaffold attachment region (SAR), an expression augmenting sequence element (EASE), an adenovirus tripartite leader (TPL), or a ubiquitous chromatin opening element (UCOE). (a) a first expression cassette comprising the following elements in the order of upstream to downstream: a promoter operably linked to an insertion site for a gene of interest (GOI), an internal ribosome entry site (IRES) wherein the IRES consists of a polynucleotide sequence of SEQ ID NO: 3, a polynucleotide encoding a eukaryotic selectable marker, and a polyadenylation (polyA) signal; (b) a second expression cassette comprising a polynucleotide encoding a bacterial selectable marker; and (c) a bacterial plasmid origin of replication; wherein optionally the first expression cassette further comprises one or more regulatory element; and wherein optionally the regulatory element is an enhancer, an insulator, a locus control region (LCR), a matrix attachment region (MAR), a scaffold attachment region (SAR), an expression augmenting sequence element (EASE), an adenovirus tripartite leader (TPL), or a ubiquitous chromatin opening element (UCOE).
Method for tempering air in a room , whereby, in at least one freestanding and/or in-built wall element , air of an air supply of the wall element is passed through at least one heat exchanger of the wall element to at least one air outlet of the wall element and introduced from there into the room , whereby a first airstream exits at least from a portion of at least one front wall face of the wall element and/or a second airstream exits at least from a portion of at least one end side wall of the wall element , whereby the first and/or the second airstream exits approximately horizontally and/or, by way of guide measures, in a desired direction, whereby a third airstream exits approximately vertically upwards and/or diagonally upwards at least from a portion of a head part of the wall element , characterised in that , as a function of a variable intensity of the volume flow rate of the air supply , the flow shape of the third airstream is varied, whereby a displacement airflow transitions into a mixed airflow or vice versa when the flow shape is varied, whereby the third airstream , which exits as a mixed airflow , breaks down in a pulsed manner over the course of the path thereof into an residence zone so as to transition into a displacement airflow , and in that , independently of the volume flow rate of the air supply , the first airstream and/or the second airstream enters the room as displacement ventilation, in such a way that there is always displacement ventilation present in the residence zone of the room located in front of the wall element .
Biocompatible polymeric nanoparticles (NP) for the controlled co-release of the natural actives trans -resveratrol (RSV) and celastrol (CL), at least comprising: - a biocompatible polymeric blend of poly(ε-caprolactone) (PCL) and poly(D,L-lactic-co-glycolic acid)-poly(ethylene glycol) conjugate co-polymer (PLGA-PEG-COOH); and - an effective amount of a blend of trans -resveratrol (RSV) and celastrol (CL). - a biocompatible polymeric blend of poly(ε-caprolactone) (PCL) and poly(D,L-lactic-co-glycolic acid)-poly(ethylene glycol) conjugate co-polymer (PLGA-PEG-COOH); and - an effective amount of a blend of trans -resveratrol (RSV) and celastrol (CL).
Container comprising a single unit dose of a detergent composition containing at least two complexing agents (A) dissolved in an aqueous medium that is liquid or gel-type at ambient temperature, said complexing agents (A) being (A1) at least one alkali metal salt of methyl glycine diacetic acid (MGDA), and (A2) at least one alkali metal salt of glutamic acid diacetic acid (GLDA), the weight ratio of (A1) and (A2) being in the range of from 1:9 to 9:1, wherein said container is made from a polymer, and wherein such aqueous medium comprises at least 25% by weight of water, referring to the entire liquid phase without complexing agent (A1) and without complexing agent (A2), wherein the total amount of optically inactive impurities selected from propionic acid, formic acid, glycolic acid, lactic acid, glutamate, alanine, and nitrilotriacetic acid (NTA) and their respective alkali metal salts is in the range of from 0.1 to 5% by weight, referring to complexing agent (A), and wherein complexing agents (A1) and (A2) are partially neutralized with alkali. (A1) at least one alkali metal salt of methyl glycine diacetic acid (MGDA), and (A2) at least one alkali metal salt of glutamic acid diacetic acid (GLDA),
Method for creating bumps , wherein the method comprises: providing a first component having a first metallic surface area , creating bumps at the first component , wherein the bumps project beyond an infinite geometric plane which is spanned by the first metallic surface area , providing a conical tool or a number of conical tools , wherein each bump is created by pressing a conical tool or one of the conical tools against the first component in a respective surface region of the first component , characterized in that the first component is an injector cup, wherein the first metallic surface area is located at an outside of a face wall of the injector cup and extends around a first via hole which is provided in the face wall , or that the first component is a fuel rail which has a flat plane interface extending around a second via hole, wherein the second metallic surface area is located at a surface of the flat plane interface and extends around the second via hole. providing a first component having a first metallic surface area , creating bumps at the first component , wherein the bumps project beyond an infinite geometric plane which is spanned by the first metallic surface area , providing a conical tool or a number of conical tools , wherein each bump is created by pressing a conical tool or one of the conical tools against the first component in a respective surface region of the first component , characterized in that the first component is an injector cup, wherein the first metallic surface area is located at an outside of a face wall of the injector cup and extends around a first via hole which is provided in the face wall , or that the first component is a fuel rail which has a flat plane interface extending around a second via hole, wherein the second metallic surface area is located at a surface of the flat plane interface and extends around the second via hole.
A method for determining the permeability of a sample through observation of a diffusive process by electrochemical means, the method comprising the following steps: placing the sample between a first and a second volume to form a barrier between the two volumes , providing a first medium in the first volume and a second medium in the second volume , wherein at least one of the first and second media contains at least one kind of electrochemically active molecules, and wherein the concentrations of said electrochemically active molecules in said first and second media are different from each other, measuring a first electrical signal between at least two electrodes in contact with the second volume at different points in time while the electrochemically active molecules are allowed to diffuse through the sample , said first electrical signal depending on the concentration of electrochemically active molecules at at least one position in the second volume , determining from said measured first electrical signal at the different points in time a first measure for the permeability of the sample , said first measure characterizing a permeability of the sample with respect to said electrochemically active molecules. placing the sample between a first and a second volume to form a barrier between the two volumes , providing a first medium in the first volume and a second medium in the second volume , wherein at least one of the first and second media contains at least one kind of electrochemically active molecules, and wherein the concentrations of said electrochemically active molecules in said first and second media are different from each other, measuring a first electrical signal between at least two electrodes in contact with the second volume at different points in time while the electrochemically active molecules are allowed to diffuse through the sample , said first electrical signal depending on the concentration of electrochemically active molecules at at least one position in the second volume , determining from said measured first electrical signal at the different points in time a first measure for the permeability of the sample , said first measure characterizing a permeability of the sample with respect to said electrochemically active molecules.
Method for detecting and/or avoiding collisions between at least one first machine element , moving in a working space in which collisions can occur, in particular driven by means of an electric motor, of an apparatus for producing packages, in particular for cigarettes or other tobacco products, or between on the one hand products moving in this working space that are handled by the first machine element and on the other hand a second part of the apparatus , preferably a second moving machine element , comprising the following measures: a) generating working-space data , depicting the working space, wherein within the working-space data a working-space data region in which collisions would occur is defined as a subset of the working-space data and/or a working-space data region in which no collisions can occur is defined as a subset of the working-space data, b) monitoring the movement of the moving first machine element , possibly also the movement of the second moving machine element for collisions or possible collisions on the basis of the generated working-space data , characterized in that for monitoring the movement of the moving first machine element for collisions or possible collisions during the operation of the apparatus , the actual working-space data, which describe the current actual positions of the moving first machine element in the working space, possibly also the actual positions of the second moving machine element , and/or the actual positions of respective products in the working space that the moving first machine element handles, are detected, wherein prognostic working-space data describing these actual working-space data or future positions of the moving first machine element or of the products derived from the actual working-space data are compared with the generated working-space data to ascertain whether the actual working-space data belong to the working-space data region in which collisions would occur or whether they belong to the working-space data region in which no collisions would occur. a) generating working-space data , depicting the working space, wherein within the working-space data a working-space data region in which collisions would occur is defined as a subset of the working-space data and/or a working-space data region in which no collisions can occur is defined as a subset of the working-space data, b) monitoring the movement of the moving first machine element , possibly also the movement of the second moving machine element for collisions or possible collisions on the basis of the generated working-space data ,
A dishwasher comprising a body , a washing tub provided on the body , in which washing is performed, a spray arm of circular structure, enabling spraying of water in the washing tub , and a plurality of nozzles arranged on the spray arm , enabling guiding of water, characterized in that the dishwasher further comprises bya covering member configured to obstruct exiting of water by covering some of the nozzles , thereby enabling spraying of water with a high flow rate through the rest of the nozzles , the covering member being movable on the spray arm due to the compressive force of water coming out of the nozzles .
A corrugated radio frequency ablation catheter having a wall-attaching adjustment wire , provided with a strip-shaped connecting catheter, an electrode frame provided at the front extremity of the connecting catheter, and a control handle provided at the rear extremity of the connecting catheter; characterized in that : the electrode frame is a corrugated electrode frame consisting of multiple corrugations, where multiple electrodes are distributed on the corrugations; each corrugation is in the shape of a fold line composed of several straight line segments, or each corrugation is composed of several curve segments, or each corrugation is composed of several curves and straight lines; the rear section of the wall-attaching adjustment wire is slidably provided within one lumen of the connecting catheter and is connected at the rear extremity onto a control element provided on the control handle or connected onto a control element provided outside of the control handle; the front section of the wall-attaching adjustment wire protrudes to the outside of the electrode frame and either runs through one or more holes provided on the corrugations or runs around the multiple corrugations, and then the front extremity returns to the interior of the electrode frame to be fixed. the electrode frame is a corrugated electrode frame consisting of multiple corrugations, where multiple electrodes are distributed on the corrugations; each corrugation is in the shape of a fold line composed of several straight line segments, or each corrugation is composed of several curve segments, or each corrugation is composed of several curves and straight lines; the rear section of the wall-attaching adjustment wire is slidably provided within one lumen of the connecting catheter and is connected at the rear extremity onto a control element provided on the control handle or connected onto a control element provided outside of the control handle; the front section of the wall-attaching adjustment wire protrudes to the outside of the electrode frame and either runs through one or more holes provided on the corrugations or runs around the multiple corrugations, and then the front extremity returns to the interior of the electrode frame to be fixed.