mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a coating assembly for the automatic series coating of workpieces , for which the coating requires a plurality of consecutive coating processing steps, comprising • at least two coating stations with respective coating devices for performing respectively at least one coating processing step, • at least one transfer point , wherein an automatic transport system is provided, by means of which the workpieces can be moved individually and independently of one another between the at least two coating stations and the at least one transfer point , characterised by the following steps: • providing a dataset with a plurality of data about workpieces to be coated, comprising the respective type of the workpieces and the identification data about the coating processing steps required for the individual coating, • automatically setting up an optimised production plan for individually coating the workpieces according to the respectively required coating processing steps, wherein for each workpiece an individual sequence is defined, according to which the respective workpiece is to be moved by means of the automatic transport system for coating into respectively suitable processing stations or into the temporary storage , taking into consideration the following optimisation criteria: • avoiding moving workpieces into such coating stations , which are also provided at least for coating processing steps which are not necessary for the individual coating of the respective workpiece , • as far as possible a homogenous occupancy of the coating stations , • coating the workpieces according to the production plan. • at least two coating stations with respective coating devices for performing respectively at least one coating processing step, • at least one transfer point , • providing a dataset with a plurality of data about workpieces to be coated, comprising the respective type of the workpieces and the identification data about the coating processing steps required for the individual coating, • automatically setting up an optimised production plan for individually coating the workpieces according to the respectively required coating processing steps, wherein for each workpiece an individual sequence is defined, according to which the respective workpiece is to be moved by means of the automatic transport system for coating into respectively suitable processing stations or into the temporary storage , taking into consideration the following optimisation criteria: • avoiding moving workpieces into such coating stations , which are also provided at least for coating processing steps which are not necessary for the individual coating of the respective workpiece , • as far as possible a homogenous occupancy of the coating stations , • coating the workpieces according to the production plan. • avoiding moving workpieces into such coating stations , which are also provided at least for coating processing steps which are not necessary for the individual coating of the respective workpiece , • as far as possible a homogenous occupancy of the coating stations , • coating the workpieces according to the production plan.
A method performed by a user equipment, UE , for autonomously triggering transmission of an uplink sounding reference signal, SRS , that indicates, to a first base station , a selection of base stations for inclusion in an active coordination set, ACS , specific to the UE, the ACS comprising a set of two or more base stations that are determined by the UE to be usable for joint communication between the UE and the ACS, the method comprising: generating a link quality parameter for each broadcast signal in a set of broadcast signals received from a set of base stations ; selecting , from the set of base stations and based on the link quality parameter for each broadcast signal in the set of broadcast signals, one or more base stations for inclusion in the ACS ; identifying an SRS air interface resource that maps to the selected one or more base stations ; requesting the inclusion of the selected one or more base stations in the ACS by autonomously transmitting, to the first base station , the uplink SRS using the identified SRS air interface resource ; and communicating over a wireless network using the ACS formed with the selected one or more base stations . generating a link quality parameter for each broadcast signal in a set of broadcast signals received from a set of base stations ; selecting , from the set of base stations and based on the link quality parameter for each broadcast signal in the set of broadcast signals, one or more base stations for inclusion in the ACS ; identifying an SRS air interface resource that maps to the selected one or more base stations ; requesting the inclusion of the selected one or more base stations in the ACS by autonomously transmitting, to the first base station , the uplink SRS using the identified SRS air interface resource ; and communicating over a wireless network using the ACS formed with the selected one or more base stations .
Device for providing a sterile environment for the incubation of cell cultures comprising: a sealed warming chamber ; wherein the warming chamber comprises at least one heating element ; wherein the warming chamber comprises sensors for temperature and/or humidity and/or CO2 ; wherein the warming chamber has at least one connection for a gas supply on the outside, wherein the connection is connected to a line that provides a gas connection (130; 240) in the interior of the warming chamber; a sealed cultivation container for holding the cell cultures; wherein the cultivation container is located in the warming chamber ; wherein the cultivation container has a sealable passage (130; 310) in communication with the atmosphere in the cultivation container for each of said sensors of the warming chamber; wherein the cultivation container comprises at least one sealable gas inlet and/or outlet (130; 330) that is couplable to the at least one gas port (130; 240) in the interior of the warming chamber; wherein the sensors of the warming chamber are arranged to be introduced into the respective sealable passages (130; 310) of the warming chamber upon insertion of the cultivation container into the warming chamber ; and a water reservoir ; wherein the water reservoir is arranged in the cultivation container . a sealed warming chamber ; wherein the warming chamber comprises at least one heating element ; wherein the warming chamber comprises sensors for temperature and/or humidity and/or CO2 ; wherein the warming chamber has at least one connection for a gas supply on the outside, wherein the connection is connected to a line that provides a gas connection (130; 240) in the interior of the warming chamber; a sealed cultivation container for holding the cell cultures; wherein the cultivation container is located in the warming chamber ; wherein the cultivation container has a sealable passage (130; 310) in communication with the atmosphere in the cultivation container for each of said sensors of the warming chamber; wherein the cultivation container comprises at least one sealable gas inlet and/or outlet (130; 330) that is couplable to the at least one gas port (130; 240) in the interior of the warming chamber; wherein the sensors of the warming chamber are arranged to be introduced into the respective sealable passages (130; 310) of the warming chamber upon insertion of the cultivation container into the warming chamber ; and a water reservoir ; wherein the water reservoir is arranged in the cultivation container .
Harvesting robot for picking fruit from trees, with at least two mutually parallel extending, protruding and offsetting rows of picking rods , that are held in their rear area in a support and collectively with their free, front ends , are able to slide into a tree and, with their front ends against each other, are pivotable and to be open again, and collectively can be pulled out in its entirety in every pivoted state of the tree, for picking fruits between the harvesting rods with the two rows of harvesting rods , characterized by the individual harvesting rods of each row mounted in the support so as to be translationally moveable against a spring force in their rear region, so that each harvesting rod within a row during the insertion of the harvesting rods into a tree, when striking its front end on a branch, is stoppable by the same, while harvesting rods able to avoid an obstacle can be moved further into the tree, after which the harvesting rods of the two rows can be swiveled against each other in their current translational position, and at the same time or subsequently can be pulled out of the tree through the rod extractor , whereby all harvesting rods are pushed forward through spring forces and thus can be brought into their original position.
A system for monitoring and controlling tissue ablation, the system comprising: a controller configured to selectively control energy emission from an electrode array of an ablation device based on ablation feedback received during an ablation procedure with the ablation device, the controller comprising a hardware processor coupled to memory containing instructions executable by the processor to cause the controller to: receive feedback data from one or more sensors during the ablation procedure, the feedback data comprising one or more measurements associated with at least one of operation of the electrode array of the ablation device and tissue adjacent to the electrode array; characterised in that the memory contains further instructions to analyze the feedback data in real-, or near-real-, time and generate ablation status mapping based on the analysis, the ablation status mapping comprising an ablation status of the adjacent tissue undergoing ablation; and generate an ablation pattern for controlling energy emission from the electrode array of the ablation device based on the ablation status mapping, wherein the ablation pattern is configured to either maintain energy emission from the electrode array or adjust energy emission from the electrode array for targeted ablation of the adjacent tissue. receive feedback data from one or more sensors during the ablation procedure, the feedback data comprising one or more measurements associated with at least one of operation of the electrode array of the ablation device and tissue adjacent to the electrode array; characterised in that the memory contains further instructions to analyze the feedback data in real-, or near-real-, time and generate ablation status mapping based on the analysis, the ablation status mapping comprising an ablation status of the adjacent tissue undergoing ablation; and generate an ablation pattern for controlling energy emission from the electrode array of the ablation device based on the ablation status mapping, wherein the ablation pattern is configured to either maintain energy emission from the electrode array or adjust energy emission from the electrode array for targeted ablation of the adjacent tissue.
A lighting means , comprising at least two OLEDs as light sources, comprising a circuit configuration for the power supply of the OLEDs during operation of the lighting means , with: - at least two electrical connections for in each case at least one OLED ; - at least one temperature sensor , which has an output signal that is proportional to a temperature detected by said temperature sensor ; - a circuit controlled by the output signal of the temperature sensor , which circuit controls the electrical switching of the electrical connections of the circuit configuration based on the temperature detected by the temperature sensor in such a manner that, during the operation of the lighting means , the circuit configuration switches: - at least two OLEDs in series to each other in the case of an output signal that is proportional to a temperature detected by the temperature sensor with the temperature being higher than a specified threshold temperature; - at least two OLEDs switched in series to each other above the threshold temperature parallel to each other in the case of an output signal that is proportional to a temperature detected by the temperature sensor with the temperature being lower than the threshold temperature; wherein at least one temperature sensor is arranged immediately on one of the at least two OLEDs . - at least two electrical connections for in each case at least one OLED ; - at least one temperature sensor , which has an output signal that is proportional to a temperature detected by said temperature sensor ; - a circuit controlled by the output signal of the temperature sensor , which circuit controls the electrical switching of the electrical connections of the circuit configuration based on the temperature detected by the temperature sensor in such a manner that, during the operation of the lighting means , the circuit configuration switches: - at least two OLEDs in series to each other in the case of an output signal that is proportional to a temperature detected by the temperature sensor with the temperature being higher than a specified threshold temperature; - at least two OLEDs switched in series to each other above the threshold temperature parallel to each other in the case of an output signal that is proportional to a temperature detected by the temperature sensor with the temperature being lower than the threshold temperature; wherein at least one temperature sensor is arranged immediately on one of the at least two OLEDs . - at least two OLEDs in series to each other in the case of an output signal that is proportional to a temperature detected by the temperature sensor with the temperature being higher than a specified threshold temperature; - at least two OLEDs switched in series to each other above the threshold temperature parallel to each other in the case of an output signal that is proportional to a temperature detected by the temperature sensor with the temperature being lower than the threshold temperature;
A process for preparing a dimethylcyclobutane compound the process comprising reacting a dimethylcyclobutanone compound of the following general formula : wherein X 2 represents a hydroxyl group, an acyloxy group having 1 to 10 carbon atoms including a carbon atom of a carbonyl group, an alkoxycarbonyloxy group having 2 to 10 carbon atoms including a carbon atom of a carbonyl group, an alkanesulfonyloxy group having 1 to 10 carbon atoms, an arenesulfonyloxy group having 6 to 20 carbon atoms, an alkoxy group having 1 to 12 carbon atoms, an aryloxy group having 6 to 12 carbon atoms, a silyloxy group having 3 to 20 carbon atoms or a halogen atom, with a phosphonic ester compound of the following general formula : R 1 O 2 C-(CH 3 )CH-P(O)(OR 2 ) 2 wherein R 1 and R 2 represent, independently of each other, a monovalent hydrocarbon group having 1 to 10 carbon atoms, to produce an unsaturated ester compound of the following general formula , having a dimethylcyclobutane ring, wherein R 1 and X 2 are as defined above; and subjecting the unsaturated ester compound , having a dimethylcyclobutane ring, to a reduction reaction to produce a dimethylcyclobutane compound of the following general formula : wherein X 3 represents a hydroxyl group, an alkanesulfonyloxy group having 1 to 10 carbon atoms, an arenesulfonyloxy group having 6 to 20 carbon atoms, an alkoxy group having 1 to 12 carbon atoms, an aryloxy group having 6 to 12 carbon atoms, a silyloxy group having 3 to 20 carbon atoms or a halogen atom. reacting a dimethylcyclobutanone compound of the following general formula : wherein X 2 represents a hydroxyl group, an acyloxy group having 1 to 10 carbon atoms including a carbon atom of a carbonyl group, an alkoxycarbonyloxy group having 2 to 10 carbon atoms including a carbon atom of a carbonyl group, an alkanesulfonyloxy group having 1 to 10 carbon atoms, an arenesulfonyloxy group having 6 to 20 carbon atoms, an alkoxy group having 1 to 12 carbon atoms, an aryloxy group having 6 to 12 carbon atoms, a silyloxy group having 3 to 20 carbon atoms or a halogen atom, with a phosphonic ester compound of the following general formula : R 1 O 2 C-(CH 3 )CH-P(O)(OR 2 ) 2 wherein R 1 and R 2 represent, independently of each other, a monovalent hydrocarbon group having 1 to 10 carbon atoms, to produce an unsaturated ester compound of the following general formula , having a dimethylcyclobutane ring, wherein R 1 and X 2 are as defined above; and subjecting the unsaturated ester compound , having a dimethylcyclobutane ring, to a reduction reaction to produce a dimethylcyclobutane compound of the following general formula : wherein X 3 represents a hydroxyl group, an alkanesulfonyloxy group having 1 to 10 carbon atoms, an arenesulfonyloxy group having 6 to 20 carbon atoms, an alkoxy group having 1 to 12 carbon atoms, an aryloxy group having 6 to 12 carbon atoms, a silyloxy group having 3 to 20 carbon atoms or a halogen atom.
A method for determining a care product individually derived for a user , based on a determined condition of the skin, comprising: determining a skin lipid content, comprising: for at least one skin region of a user , contacting the skin region using a test surface , wherein the test surface is designed such that its transparency changes depending on a skin lipid content; recording an amount of light using a digital camera , wherein the recorded light is emitted by a light source , passes through the test surface , and reaches the camera , wherein the digital camera is part of a portable device; comparing the amount of light recorded with a reference light amount for a non-contacted test surface ; determining skin lipid content using the comparison; determining the condition of the skin based on the determined skin lipid content; and determining the care product by means of a product configurator, wherein the product configurator is configured to output a selection of ingredients suitable for the determined skin lipid content and/or condition of the skin, and to avoid the selection of chemically and/or physically incompatible ingredients, or the selection of ingredients unsuitable for the determined skin lipid content and/or condition of the skin. for at least one skin region of a user , contacting the skin region using a test surface , wherein the test surface is designed such that its transparency changes depending on a skin lipid content; recording an amount of light using a digital camera , wherein the recorded light is emitted by a light source , passes through the test surface , and reaches the camera , wherein the digital camera is part of a portable device; comparing the amount of light recorded with a reference light amount for a non-contacted test surface ; determining skin lipid content using the comparison; determining the condition of the skin based on the determined skin lipid content; and determining the care product by means of a product configurator, wherein the product configurator is configured to output a selection of ingredients suitable for the determined skin lipid content and/or condition of the skin, and to avoid the selection of chemically and/or physically incompatible ingredients, or the selection of ingredients unsuitable for the determined skin lipid content and/or condition of the skin.
An arrangement for controlling a device , said arrangement comprising: - a first measuring device , - a first non-deterministic, self-learning system , wherein the first non-deterministic, self-learning system is set up to process first measurement data from the first measuring device and to output a first signal for controlling the device , - a monitoring device, wherein the monitoring device is set up to process the first measurement data from the first measuring device and to output a second signal containing information concerning the plausibility of the first signal of the first non-deterministic, self-learning system , and - a control unit which is set up to receive and process the first signal of the first non-deterministic, self-learning system and the second signal of the monitoring device, characterised in that - the monitoring device is a second non-deterministic, self-learning system and a predecessor version of the first system . - a first measuring device , - a first non-deterministic, self-learning system , wherein the first non-deterministic, self-learning system is set up to process first measurement data from the first measuring device and to output a first signal for controlling the device , - a monitoring device, wherein the monitoring device is set up to process the first measurement data from the first measuring device and to output a second signal containing information concerning the plausibility of the first signal of the first non-deterministic, self-learning system , and - a control unit which is set up to receive and process the first signal of the first non-deterministic, self-learning system and the second signal of the monitoring device, - the monitoring device is a second non-deterministic, self-learning system and a predecessor version of the first system .
A method for quantitative monitoring of bacterial endospores in an aqueous environment of a paper or board mill, the method comprising at least the following steps: - obtaining at least a first aqueous sample and at least a second aqueous sample originating from the industrial aqueous environment, - destroying bacteria in vegetative form in the first sample by a suitable treatment, preferably by heating the first sample to a desired temperature, - adding intercalating agent to the treated first sample and allowing it to interact with the destroyed bacteria, - determining the endospore level in the first sample by using quantitative polymerase chain reaction (qPCR), - determining the amount of bacterial cells in vegetative form in the second sample, and - comparing the determined endospore level from the first sample to the determined amount of vegetative bacterial cells in the second sample and using the obtained information for adjustment of biocide feeding regime for endospore control in paper or board making process. - obtaining at least a first aqueous sample and at least a second aqueous sample originating from the industrial aqueous environment, - destroying bacteria in vegetative form in the first sample by a suitable treatment, preferably by heating the first sample to a desired temperature, - adding intercalating agent to the treated first sample and allowing it to interact with the destroyed bacteria, - determining the endospore level in the first sample by using quantitative polymerase chain reaction (qPCR), - determining the amount of bacterial cells in vegetative form in the second sample, and - comparing the determined endospore level from the first sample to the determined amount of vegetative bacterial cells in the second sample and using the obtained information for adjustment of biocide feeding regime for endospore control in paper or board making process.
Building construction , comprising a shell made of a flexible, e.g. textile, material, acting as a mould, which has an interior filled with a foam concrete mass in the assembled state, wherein the shell is provided with a support layer on its inner wall and/or on its outer wall , which strengthens the building construction in a preassembled state before the filling of the shell with the foam concrete mass and/or in a final assembled state after the filling of the shell with the foam concrete mass, characterised in that the support layer comprises a mat structure or a textile reinforcement as well as cement or concrete.