mhurhangee/patent-ind-claim-en huggingface dataset:
A joining device for producing and testing a joined connection between a first joining partner and at least one second joining partner , comprising - a joining agent , - a testing means with which the produced joined connection can be checked using shearography, the testing means being designed to measure a thermally caused deformation of the joining partners by means of shearography, and characterized by : - at least one heat input means with which the joining partners can be heated in time sequence before or during the measurement of the thermally caused deformation of the joining partners , wherein the joining means , the testing means and the heat input means form a structural unit which is uniformly movable and/or handleable. - a joining agent , - a testing means with which the produced joined connection can be checked using shearography, the testing means being designed to measure a thermally caused deformation of the joining partners by means of shearography, and characterized by : - at least one heat input means with which the joining partners can be heated in time sequence before or during the measurement of the thermally caused deformation of the joining partners ,
An installation for treating packaging closure elements (C, B) each having a peripheral edge, the installation comprising a treatment zone and a transport device for transporting packaging closure elements (C, B), the device comprising both a slideway having two opposite longitudinal flanges (11.1, 11.2) receiving in slidable manner two opposite portions of the peripheral edge of each closure element, and also movement means for moving the closure elements along the slideway , the installation being characterized in that the device includes at least one transverse blow nozzle mounted in a hole (13.1, 13.2) in one of the flanges (11.1, 11.2) of the slideway in order to eject a flow of air towards the opposite flange (11.2, 11.1), the transverse nozzle being associated with a control element for selectively allowing or interrupting air feed to the transverse blow nozzle , and in that the slideway has a first segment upstream from the treatment zone, a second segment in the treatment zone, and a third segment downstream from the treatment zone, the transverse blow nozzle being mounted on the second segment .
A system, comprising: a hydraulic energy transfer system configured to exchange pressures between a first fluid and a second fluid , wherein pressure of the first fluid is greater than pressure of the second fluid ; and a lubrication system coupled to the hydraulic energy transfer system and configured to pump or direct a lubrication fluid into the hydraulic energy transfer system , characterized in that a filtration system is integrated with a housing of the hydraulic energy transfer system . a hydraulic energy transfer system configured to exchange pressures between a first fluid and a second fluid , wherein pressure of the first fluid is greater than pressure of the second fluid ; and a lubrication system coupled to the hydraulic energy transfer system and configured to pump or direct a lubrication fluid into the hydraulic energy transfer system , characterized in that a filtration system is integrated with a housing of the hydraulic energy transfer system .
A fastening device for fastening a shower partition wall to a wall , comprising: - a hollow profile fastenable to or in a wall , - at least one bracing strip connectable to the shower partition wall and arrangeable in the hollow profile and having at least two longitudinal legs stretching at a distance from one another in a longitudinal extension (L), wherein it is preferably provided that the at least two longitudinal legs are connected to one another by at least one transverse element , - at least one adjustably fastened clamping element which is arranged in the hollow profile and can be adjusted into a clamping position, wherein the at least one clamping element in its clamping position presses, in a state in which the at least one bracing strip is arranged in the hollow profile , against a longitudinal leg of the at least one bracing strip and thus clamps the at least one bracing strip relative to the hollow profile . - a hollow profile fastenable to or in a wall , - at least one bracing strip connectable to the shower partition wall and arrangeable in the hollow profile and having at least two longitudinal legs stretching at a distance from one another in a longitudinal extension (L), wherein it is preferably provided that the at least two longitudinal legs are connected to one another by at least one transverse element , - at least one adjustably fastened clamping element which is arranged in the hollow profile and can be adjusted into a clamping position,
A system, comprising: an aircraft recorder configured to be installed on an aircraft; and a plurality of memory units configured to be installed on the aircraft and remotely located from the aircraft recorder , wherein the memory units are configured to receive streaming audio and flight data from the aircraft recorder, characterized in that , the plurality of the memory units are connected to the aircraft recorder by an Ethernet network comprising at least one of a copper network or a fiber network, wherein the plurality of memory units are powered by power from the aircraft recorder . an aircraft recorder configured to be installed on an aircraft; and a plurality of memory units configured to be installed on the aircraft and remotely located from the aircraft recorder , wherein the memory units are configured to receive streaming audio and flight data from the aircraft recorder, characterized in that , the plurality of the memory units are connected to the aircraft recorder by an Ethernet network comprising at least one of a copper network or a fiber network, wherein the plurality of memory units are powered by power from the aircraft recorder .
Optical receiver , comprising a local oscillator configured to produce a local oscillator signal including a plurality of spaced frequency lines , and optoelectronic circuitry configured to receive an optical signal modulated with a baseband signal , downmix the optical signal with the local oscillator signal to obtain a downmixed signal , the downmixed signal comprising multiple replicas of the baseband signal , each replica being a beat product of the optical signal with one of the frequency lines , the optical receiver being characterised in that the optoelectronic circuitry is configured to extract, from each of two or more replicas in the downmixed signal , a part of the respective replica , thus obtaining two or more replica parts ; and combine the two or more replica parts to recover the baseband signal . a local oscillator configured to produce a local oscillator signal including a plurality of spaced frequency lines , and optoelectronic circuitry configured to receive an optical signal modulated with a baseband signal , downmix the optical signal with the local oscillator signal to obtain a downmixed signal , the downmixed signal comprising multiple replicas of the baseband signal , each replica being a beat product of the optical signal with one of the frequency lines , the optical receiver being characterised in that receive an optical signal modulated with a baseband signal , downmix the optical signal with the local oscillator signal to obtain a downmixed signal , the downmixed signal comprising multiple replicas of the baseband signal , each replica being a beat product of the optical signal with one of the frequency lines , the optical receiver being characterised in that the optoelectronic circuitry is configured to extract, from each of two or more replicas in the downmixed signal , a part of the respective replica , thus obtaining two or more replica parts ; and combine the two or more replica parts to recover the baseband signal . extract, from each of two or more replicas in the downmixed signal , a part of the respective replica , thus obtaining two or more replica parts ; and combine the two or more replica parts to recover the baseband signal .
Apparatus for processing data, comprising: processing circuitry to perform processing operations in a selected exception level state of a hierarchy of exception level state extending between a top exception level state and a bottom exception level state; and decoder circuitry to decode program instructions to generate control signals to control said processing circuitry to perform said processing operations, said processing operations including vector processing operations using at least one vector operand; wherein said decoder circuitry is responsive to a vector operand bit size dependent program instruction executed in said selected exception level state to control said processing circuitry to perform vector processing operations dependent upon a vector operand bit size limit value of said selected exception level state and at least one programmable vector operand bit size limit value of an exception level state closer to said top exception level state within said hierarchy than said selected exception level state. processing circuitry to perform processing operations in a selected exception level state of a hierarchy of exception level state extending between a top exception level state and a bottom exception level state; and decoder circuitry to decode program instructions to generate control signals to control said processing circuitry to perform said processing operations, said processing operations including vector processing operations using at least one vector operand; wherein said decoder circuitry is responsive to a vector operand bit size dependent program instruction executed in said selected exception level state to control said processing circuitry to perform vector processing operations dependent upon a vector operand bit size limit value of said selected exception level state and at least one programmable vector operand bit size limit value of an exception level state closer to said top exception level state within said hierarchy than said selected exception level state.
A formulation comprising an isolated strain of Bifidobacterium strain NCIMB 41003 and an isolated strain of Bifidobacterium strain NCIMB 41676 wherein the formulation is a freeze dried powder or a bacterial broth and wherein the formulation further comprises an ingestible carrier .
Child seat for a motor vehicle having a carry shell with a carrying grip and a seat unit arranged within the carry shell comprising: - a back portion , - a seat portion , - a leg portion , - an upper backrest , fitted on the back portion of the seat unit for movement in a direction to and from the seat portion , - a device for altering the position of the upper backrest relative to the back portion , and - a harness with two shoulder straps , each shoulder strap being passed through a corresponding slot in the back portion and in the upper backrest , characterised in that pivotally mounted strap guides are each assigned to the strap slots in the back portion . - a back portion , - a seat portion , - a leg portion , - an upper backrest , fitted on the back portion of the seat unit for movement in a direction to and from the seat portion , - a device for altering the position of the upper backrest relative to the back portion , and - a harness with two shoulder straps , each shoulder strap being passed through a corresponding slot in the back portion and in the upper backrest ,
A method performed in a baseband processing unit, BPU, for segmenting data to be transferred into data packets and transferring data packets to a radio processing unit via a communication link, the method comprising: selecting a certain amount of data among the data to be transferred; obtaining a packet loss pattern of the communication link based on the current load and user scenario; segmenting the data to be transferred into data packets based on the packet loss pattern of the communication link such that the selected data are distributed to data packets to be transferred in a packet region where packet loss rate is lower than a packet loss threshold; and transferring the data packets to the radio processing unit; obtaining power level per beam for beamforming weights data; and sorting the beamforming weights data based on beam power level, wherein selecting a certain amount of data among the data to be transferred comprises selecting a certain amount of beamforming weights data based on beam power level. selecting a certain amount of data among the data to be transferred; obtaining a packet loss pattern of the communication link based on the current load and user scenario; segmenting the data to be transferred into data packets based on the packet loss pattern of the communication link such that the selected data are distributed to data packets to be transferred in a packet region where packet loss rate is lower than a packet loss threshold; and transferring the data packets to the radio processing unit; obtaining power level per beam for beamforming weights data; and sorting the beamforming weights data based on beam power level, wherein selecting a certain amount of data among the data to be transferred comprises selecting a certain amount of beamforming weights data based on beam power level.
A capillary network device (CND) for a biological sample comprising: a substrate having a capillary network formed thereon; at least one inlet port for sample entry in fluid communication with at least one inlet microchannel that is in fluid communication with said capillary network; and at least one outlet port in fluid communication with at least one outlet microchannel in fluid communication with said capillary network for sample exit; wherein said at least one inlet microchannel and said at least one outlet microchannel comprise a tapered portion that tapers from about 5 micrometers to about 3 μm over its taper length and a variable dimension ranging in size from 3 micrometers to 70 μm along its length. a substrate having a capillary network formed thereon; at least one inlet port for sample entry in fluid communication with at least one inlet microchannel that is in fluid communication with said capillary network; and at least one outlet port in fluid communication with at least one outlet microchannel in fluid communication with said capillary network for sample exit; wherein said at least one inlet microchannel and said at least one outlet microchannel comprise a tapered portion that tapers from about 5 micrometers to about 3 μm over its taper length and a variable dimension ranging in size from 3 micrometers to 70 μm along its length.
A method of updating Electronic Control Units (ECUs) of vehicles using updates received via Vehicle to Vehicle, V2V, communication channels and verified by a vehicles consensus, comprising: using at least one processor of a vehicle executing a code for: receiving from at least one nearby vehicle , via at least one V2V communication channel, at least one of a plurality of update packages distributed for updating a plurality of ECUs deployed in a plurality of vehicles , the at least one nearby vehicle is within a reception area of the at least one V2V communication channel; analyzing an identifier extracted from the at least one update package; determining, based on the analysis, whether the at least one update package is directed to at least one ECU of the vehicle ; communicating, in case of positive determination, via the at least one V2V communication channel with at least a subset of the plurality of vehicles, wherein each of the plurality of vehicles maintains a local log associating each of the plurality of update packages with a respective verification code; validating the verification code extracted from the at least one update package according to a consensus of the subset of vehicles; and initiating update, in case of successful validation, of the at least one ECU using the at least one update package; wherein a predefined no transmission period is applied between subsequent transmissions of the update package during which the update package is not transmitted, and a predefined no reception period is applied following the reception of the update package during which reception of update packages is prohibited. receiving from at least one nearby vehicle , via at least one V2V communication channel, at least one of a plurality of update packages distributed for updating a plurality of ECUs deployed in a plurality of vehicles , the at least one nearby vehicle is within a reception area of the at least one V2V communication channel; analyzing an identifier extracted from the at least one update package; determining, based on the analysis, whether the at least one update package is directed to at least one ECU of the vehicle ; communicating, in case of positive determination, via the at least one V2V communication channel with at least a subset of the plurality of vehicles, wherein each of the plurality of vehicles maintains a local log associating each of the plurality of update packages with a respective verification code; validating the verification code extracted from the at least one update package according to a consensus of the subset of vehicles; and initiating update, in case of successful validation, of the at least one ECU using the at least one update package; wherein a predefined no transmission period is applied between subsequent transmissions of the update package during which the update package is not transmitted, and a predefined no reception period is applied following the reception of the update package during which reception of update packages is prohibited.
A method of controlling the operation of a hydrocyclone to maintain the hydrocyclone in a semi-roping or transition operational state as it separates a pumped fluid into an overflow stream and an underflow stream, the method comprising: measuring vibrations of the hydrocyclone at a selected frequency within a predetermined frequency range; comparing a characteristic of the measured vibrations at the selected frequency with a plurality of values representing transitions to a high efficiency state and a roping state, respectively, of the hydrocyclone to identify a current operational state of the hydrocyclone ; generating an adjustment setting to change the identified current operational state to the high efficiency state, where the adjustment setting increases or decreases an operational parameter, such as a pumped fluid parameter. measuring vibrations of the hydrocyclone at a selected frequency within a predetermined frequency range; comparing a characteristic of the measured vibrations at the selected frequency with a plurality of values representing transitions to a high efficiency state and a roping state, respectively, of the hydrocyclone to identify a current operational state of the hydrocyclone ; generating an adjustment setting to change the identified current operational state to the high efficiency state, where the adjustment setting increases or decreases an operational parameter, such as a pumped fluid parameter.
Method for creating a digital road model for at least one road section, comprising: - receiving at least one trajectory of a vehicle for the at least one road section in a database outside the vehicle, - receiving at least one image which shows at least parts of the at least one road section, wherein the image has a perspective which corresponds to an image recorded from an elevated position substantially vertically downwards, - superimposing the at least one image on the at least one trajectory in such a manner that the at least one trajectory corresponds to the course of a road in the at least one image, - analysing the at least one image in a corridor which extends along the trajectory and encloses the latter, and identifying driving-relevant or positioning-relevant features of the road section in the corridor , - generating the digital road model from the driving-relevant or positioning-relevant features which have been identified in the at least one image aligned on the basis of the at least one trajectory and in the corridor enclosing the trajectory . - receiving at least one trajectory of a vehicle for the at least one road section in a database outside the vehicle, - receiving at least one image which shows at least parts of the at least one road section, wherein the image has a perspective which corresponds to an image recorded from an elevated position substantially vertically downwards, - superimposing the at least one image on the at least one trajectory in such a manner that the at least one trajectory corresponds to the course of a road in the at least one image, - analysing the at least one image in a corridor which extends along the trajectory and encloses the latter, and identifying driving-relevant or positioning-relevant features of the road section in the corridor , - generating the digital road model from the driving-relevant or positioning-relevant features which have been identified in the at least one image aligned on the basis of the at least one trajectory and in the corridor enclosing the trajectory .
A method of deoxygenating metal, comprising: forming a mixture by mixing: (a) a metal having oxygen dissolved therein in a solid solution, wherein the metal is titanium or a titanium alloy, wherein the metal includes less than 50% by weight of metal oxides, (b) at least one of metallic magnesium and MgH2, and (c) a magnesium-containing salt; heating the mixture at a deoxygenation temperature for a period of time under a hydrogen-containing atmosphere to form a deoxygenated metal, wherein the deoxygenation temperature is from 550 °C to 800 °C; and cooling the deoxygenated metal, wherein the deoxygenated metal has a dissolved oxygen content of less than 0.2% by weight. (a) a metal having oxygen dissolved therein in a solid solution, wherein the metal is titanium or a titanium alloy, wherein the metal includes less than 50% by weight of metal oxides, (b) at least one of metallic magnesium and MgH2, and (c) a magnesium-containing salt; heating the mixture at a deoxygenation temperature for a period of time under a hydrogen-containing atmosphere to form a deoxygenated metal, wherein the deoxygenation temperature is from 550 °C to 800 °C; and cooling the deoxygenated metal, wherein the deoxygenated metal has a dissolved oxygen content of less than 0.2% by weight.
An inverted pillar plate for assaying microarrays, comprising: a plurality of chip mounts, each chip mount comprising at least one chip holder and configured to affix at least one of a plurality of microarrays and to prevent the at least one microarray from being displaced from the chip mount when the chip mount is placed facing downwards into a well containing an assay solution; a clip configured to attach the microarrays to the chip mounts; and a plate comprising a plurality of inverted plate pillars that extend from the plate, each inverted plate pillar configured to be coupled to one of the plurality of chip mounts, wherein each chip mount is configured to be affixed to at least one of the plurality of inverted plate pillars so that each chip mount is prevented from being displaced from the at least one inverted plate pillar when the plate is turned upside down. a plurality of chip mounts, each chip mount comprising at least one chip holder and configured to affix at least one of a plurality of microarrays and to prevent the at least one microarray from being displaced from the chip mount when the chip mount is placed facing downwards into a well containing an assay solution; a clip configured to attach the microarrays to the chip mounts; and a plate comprising a plurality of inverted plate pillars that extend from the plate, each inverted plate pillar configured to be coupled to one of the plurality of chip mounts, wherein each chip mount is configured to be affixed to at least one of the plurality of inverted plate pillars so that each chip mount is prevented from being displaced from the at least one inverted plate pillar when the plate is turned upside down.