mhurhangee/patent-ind-claim-en huggingface dataset:
Sensor component having a first sensor element and a second sensor element , wherein the first sensor element is designed to capture a first measurement variable, for example the ambient or air pressure, and the second sensor element is designed to capture a second measurement variable, for example the humidity, wherein the first sensor element and the second sensor element are accommodated in a common housing of the sensor component, wherein the sensor component comprises a conductor structure that furthermore comprises an electrode structure and a separate connection structure , wherein the connection structure is connected in an electrically conductive manner to the first sensor element and the electrode structure is allocated to the second sensor element and is part of the second sensor element , and wherein the housing defines an interior having internal surfaces , and wherein the connection structure and the electrode structure are arranged on the same internal surface or on different internal surfaces of the housing, characterized in that the same internal surface or different internal surfaces of the housing is/are provided with the conductor structure for the connection structure and the electrode structure by means of the same lithography steps or by means of a common sputtering or vapour deposition process.
A stem cylinder seal arrangement with triangular rings, for moving rod or shaft cylinders, including an equilaterally triangular ring seal, including a single turn anti-extrusion ring , a triangular soft ring truncated at its off-stem corner, a cylindrical stem or shaft , a stem housing and a hard metallic gland that are successively fitted over the cylindrical stem or shaft and, as the triangular soft ring is compressed on the stem cylinder and in a 120° conical seat of the stem housing at the same time by a 120° inner conical surface of the hard metallic gland , form a triangular ring-containing cavity consisting of the inner conical surface of the hard metallic gland, the stem cylinder and the conical surface of the seat and having an opening caused by cutting off the cavity's off-stem corner to enable the triangular soft ring therein to be fully compressed, wherein the single turn anti-extrusion ring made of either a bent turn of soft metallic wire with enough length and cross-sectional diameter or a molded turn of nonmetallic material with enough strength is used to resist the extrusion of the triangular soft ring through the gap between the stem and the stem housing , a sliding fit with a small enough clearance is used to resist the extrusion of the triangular soft ring through the gap between the gland and the stem, and an arc-shaped anti-extrusion, metallic or high strength plastic, C-ring attached to the truncated corner of the triangular soft ring is used to resist the extrusion of the triangular soft ring through the opening of the cavity.
Circuit for a refrigerant fluid for a vehicle, the circuit comprising at least a main pipe , a first leg , a second leg and a third leg all three of them in series with the main pipe , the main pipe comprising at least a compression device for compressing the refrigerant fluid and a main heat exchanger designed to have passing through it a flow of exterior air (FE) external to an interior of the vehicle, the first leg comprising at least a first heat exchanger thermally coupled to a loop for heat transport liquid , the second leg comprising at least a second heat exchanger thermally coupled to the loop for heat transport liquid , the third leg comprising at least a third heat exchanger designed to have passing through it a flow of interior air (FA) sent into the vehicle interior, said first leg and the second leg being in parallel, the circuit being characterized in that said first leg comprises an accumulator device for accumulating refrigerant fluid , in that the first leg and the second leg meet at a point of convergence positioned between the accumulator device and the compression device , and in that the first leg and the third leg meet at a first junction point positioned between the first heat exchanger and the accumulator device .
A method performed by a network services platform comprising: receiving by a reverse proxy module , from an electronic device , a request to access a network service ; obtaining , from an identity provider, a link and credentials to access the requested network service, wherein the credentials are useable by the reverse proxy module to allow the electronic device to access the network service; sending a response to the request to the electronic device, wherein the response includes the link to the network service, the credentials and a page redirect to a test network element; determining if the page redirect was successfully executed; classifying the electronic device as untrusted if the page redirect was not successfully executed and a test link to the test network element bypassed the network services platform; and classifying the electronic device as trusted if the page redirect was successfully executed and the test link to the test network element did not bypass the network services platform. receiving by a reverse proxy module , from an electronic device , a request to access a network service ; obtaining , from an identity provider, a link and credentials to access the requested network service, wherein the credentials are useable by the reverse proxy module to allow the electronic device to access the network service; sending a response to the request to the electronic device, wherein the response includes the link to the network service, the credentials and a page redirect to a test network element; determining if the page redirect was successfully executed; classifying the electronic device as untrusted if the page redirect was not successfully executed and a test link to the test network element bypassed the network services platform; and classifying the electronic device as trusted if the page redirect was successfully executed and the test link to the test network element did not bypass the network services platform.
A method for determining a position of a living being in an interior of a vehicle , said method comprising a) transmitting a first signal into said interior of said vehicle , b) receiving a first reflected signal from a first object, c) determining whether or not said first object is a living being based on said first reflected signal by determining if there is a movement associated with said first object, d) associating said first object with a first distance, e) receiving a second reflected signal from a second object, said second reflected signal at least partly following another signal path than said first reflected signal, f) determining whether or not said second object is a living being based on said second reflected signal by determining if there is a movement associated with said second object, g) associating said second object with a second distance, characterized by said method further comprising h) comparing said second reflected signal to said first reflected signal by comparing the movement associated with said first object to the movement associated with said second object, i) from said comparison determining whether said living being of said second reflected signal is the same as said living being of said first reflected signal, j) if the same, using said first and second distances for determining the position of said living being . a) transmitting a first signal into said interior of said vehicle , b) receiving a first reflected signal from a first object, c) determining whether or not said first object is a living being based on said first reflected signal by determining if there is a movement associated with said first object, d) associating said first object with a first distance, e) receiving a second reflected signal from a second object, said second reflected signal at least partly following another signal path than said first reflected signal, f) determining whether or not said second object is a living being based on said second reflected signal by determining if there is a movement associated with said second object, g) associating said second object with a second distance, characterized by said method further comprising h) comparing said second reflected signal to said first reflected signal by comparing the movement associated with said first object to the movement associated with said second object, i) from said comparison determining whether said living being of said second reflected signal is the same as said living being of said first reflected signal, j) if the same, using said first and second distances for determining the position of said living being .
Process for producing a polyester using recycled polyester flakes, comprising the following steps: i. branching off an intermediate product stream from an intermediate stage in a virgin polyester production process upstream of the filtration step and upstream of the postcondensation of the prepolymer in a final reactor , wherein the intermediate product forming the intermediate product stream is at a temperature above its melting point and contains residues of free diol; ii. mixing the intermediate product stream with recycled polyester flakes in a dynamic mixer ; iii. feeding the mixture into a downstream stage downstream of the intermediate stage and/or recycling the mixture into that reaction stage from which the intermediate product stream has been taken in step i); iv. converting the mixture up to a desired level of polycondensation; wherein, in step ii), not more than 60% of the melting energy required to melt all the recycled polyester flakes is generated and/or supplied. i. branching off an intermediate product stream from an intermediate stage in a virgin polyester production process upstream of the filtration step and upstream of the postcondensation of the prepolymer in a final reactor , wherein the intermediate product forming the intermediate product stream is at a temperature above its melting point and contains residues of free diol; ii. mixing the intermediate product stream with recycled polyester flakes in a dynamic mixer ; iii. feeding the mixture into a downstream stage downstream of the intermediate stage and/or recycling the mixture into that reaction stage from which the intermediate product stream has been taken in step i); iv. converting the mixture up to a desired level of polycondensation;
Method for producing a demineralized milk protein composition, characterized in that it comprises at least the steps of: - preparation or provision of a milk protein composition , - ultrafiltration of said milk protein composition , - nanofiltration of the ultrafiltration retentate obtained in the preceding step, and - electrodialysis of the nanofiltration retentate obtained in the preceding step, said method being devoid of any step of passing over ion exchange resins. - preparation or provision of a milk protein composition , - ultrafiltration of said milk protein composition , - nanofiltration of the ultrafiltration retentate obtained in the preceding step, and - electrodialysis of the nanofiltration retentate obtained in the preceding step,
Cantilever for mounting on a drilling installation, wherein the cantilever comprises a drilling floor for performing drilling operations, wherein the cantilever is extendible outside of the drilling installation; further comprising - an independent operations handling system arranged for handling equipment underneath the cantilever independent of the drilling operations on the drilling floor ; - wherein the independent operations handling system comprises a handling element for cooperation with the equipment to be handled; characterized in that the handling element is movable underneath the cantilever and the handling system is mounted to a side of the cantilever , such that the equipment for the independent operations is positioned and handled underneath the drilling floor, wherein the handling system is vertically adjustable at least between a first position in which the handling element is movable underneath the cantilever , and a second position in which the handling element is aside the cantilever. - an independent operations handling system arranged for handling equipment underneath the cantilever independent of the drilling operations on the drilling floor ; - wherein the independent operations handling system comprises a handling element for cooperation with the equipment to be handled; characterized in that the handling element is movable underneath the cantilever and the handling system is mounted to a side of the cantilever , such that the equipment for the independent operations is positioned and handled underneath the drilling floor,
A method comprising: sending, by a container executed by processing circuitry of a host computing device of a first private network of a plurality of private networks to a cloud exchange executed by processing circuitry of at least one computing device via an application programming interface exposed by an interconnection platform of the cloud exchange, container registration data for the container to enable the cloud exchange to perform at least one of a hot swap service, a hot scaling service, or a disaster recovery service of the container to a second private network of the plurality of private networks that is different from the first private network, wherein the container registration data comprises a network address for the host computing device that executes the container and a container identifier for the container, wherein the plurality of private networks includes an enterprise network coupled to the cloud exchange and one or more cloud service provider networks coupled to the cloud exchange, and wherein the cloud exchange is configured to interface the enterprise network to cloud services of the one or more cloud service provider networks.
A life raft system for an aircraft , comprising: a storage container , an inflatable life raft that is stored in the storage container in normal operation mode, an inflation device for inflating the inflatable life raft in an emergency mode, and a control unit for activating the inflation device in the emergency mode; wherein the control unit comprises a floatable control buoy with an activation member that is operable for activating the inflation device , wherein the floatable control buoy is provided for operation at a predetermined distance remote from an associated aircraft in an emergency mode and connected to a deployable connection line having a length of at least 2m, and wherein the deployable connection line is rigidly mounted to an associated storage compartment that accommodates the floatable control buoy in the normal operation mode, for coupling the floatable control buoy to the associated storage compartment , characterized in that an ejection device is provided that is configured to eject the floatable control buoy from the associated storage compartment in an emergency mode. a storage container , an inflatable life raft that is stored in the storage container in normal operation mode, an inflation device for inflating the inflatable life raft in an emergency mode, and a control unit for activating the inflation device in the emergency mode; wherein the control unit comprises a floatable control buoy with an activation member that is operable for activating the inflation device , wherein the floatable control buoy is provided for operation at a predetermined distance remote from an associated aircraft in an emergency mode and connected to a deployable connection line having a length of at least 2m, and wherein the deployable connection line is rigidly mounted to an associated storage compartment that accommodates the floatable control buoy in the normal operation mode, for coupling the floatable control buoy to the associated storage compartment , characterized in that an ejection device is provided that is configured to eject the floatable control buoy from the associated storage compartment in an emergency mode.
A safety device in a vehicle, said safety device comprising a housing having a first end and a second end , a piston adapted to fit in the housing and being configured to be moved from a retracted position to an extended position, and a gas generator , wherein the piston has a first end forming a pressure surface facing the first end of the housing ; a gas chamber is formed between the pressure surface of the piston and an inner wall of the housing , and the gas generator is in fluid connection with the gas chamber ; and wherein the housing at its second end comprises a gas evacuation arrangement (20; 20'; 20") allowing gas generated by the gas generator to be evacuated from the gas chamber in a condition when the piston is situated in a full or substantially full extended position, characterized in that the gas evacuation arrangement (20; 20'; 20") comprises an axially extending and radially outwardly projecting dent , the dent being configured to allow gas generated by the gas generator to axially bypass the piston in a condition when the piston is situated in said full or substantially full extended position. the piston has a first end forming a pressure surface facing the first end of the housing ; a gas chamber is formed between the pressure surface of the piston and an inner wall of the housing , and the gas generator is in fluid connection with the gas chamber ; and wherein the housing at its second end comprises a gas evacuation arrangement (20; 20'; 20") allowing gas generated by the gas generator to be evacuated from the gas chamber in a condition when the piston is situated in a full or substantially full extended position, characterized in that the gas evacuation arrangement (20; 20'; 20") comprises an axially extending and radially outwardly projecting dent , the dent being configured to allow gas generated by the gas generator to axially bypass the piston in a condition when the piston is situated in said full or substantially full extended position.
Sensor head for a sensor system for the early detection of mechanical changes, in particular of material fatigue and wear, wherein the sensor head comprises a breaking body with at least one electric measuring conductor , characterized in that - the breaking body comprises an ampoule having a shell which enclosed a receptacle containing a medium , - wherein the at least one measuring conductor extends in or on the shell , and - wherein the medium comprises a liquid and/or a gas and the medium is provided with a visually and/or optically and/or olfactorily discernible marker. - the breaking body comprises an ampoule having a shell which enclosed a receptacle containing a medium , - wherein the at least one measuring conductor extends in or on the shell , and - wherein the medium comprises a liquid and/or a gas and the medium is provided with a visually and/or optically and/or olfactorily discernible marker.
Base station of a communication system (102_1), wherein the communication system (102_1) communicates wirelessly in a frequency band used for communication by a plurality of communication systems (102_2, 102_3), wherein the base station is configured to transmit a signal , wherein the signal comprises information about a channel access pattern , wherein the channel access pattern indicates a frequency-hop-based and/or time-hop-based occupancy of resources (112_1-112_m) of the frequency band that is usable for the communication of the base station and several end points (106_1-106J) of the communication system (102_1), wherein at least part of the resources (112_1-112_m) of the channel access pattern are allocated to a contention-free transmission portion in which the base station controls access to the resources (112_1-112_l) of the contention-free transmission portion and allocates one or more end points (106_1-106J) of the communication system (102_1) for exclusive use, wherein the signal further comprises control information for controlling the access of the one or more end points (106_1-106J) to the resources (112_1-112_I), allocated for exclusive use, of the contention-free transmission portion , wherein resources exclusively allocated to an end point of the communication system (102_2) are determinable from the resources (112_1-112_l) of the contention-free transmission portion based on a mapping function that maps control parameters of the control information and previously known base parameters to the exclusively allocated resources. wherein the communication system (102_1) communicates wirelessly in a frequency band used for communication by a plurality of communication systems (102_2, 102_3), wherein the base station is configured to transmit a signal , wherein the signal comprises information about a channel access pattern , wherein the channel access pattern indicates a frequency-hop-based and/or time-hop-based occupancy of resources (112_1-112_m) of the frequency band that is usable for the communication of the base station and several end points (106_1-106J) of the communication system (102_1), wherein at least part of the resources (112_1-112_m) of the channel access pattern are allocated to a contention-free transmission portion in which the base station controls access to the resources (112_1-112_l) of the contention-free transmission portion and allocates one or more end points (106_1-106J) of the communication system (102_1) for exclusive use, wherein the signal further comprises control information for controlling the access of the one or more end points (106_1-106J) to the resources (112_1-112_I), allocated for exclusive use, of the contention-free transmission portion , wherein resources exclusively allocated to an end point of the communication system (102_2) are determinable from the resources (112_1-112_l) of the contention-free transmission portion based on a mapping function that maps control parameters of the control information and previously known base parameters to the exclusively allocated resources.
Diaphragm spring clutch for selectively connecting a first and a second shaft , in particular a drive shaft and an output shaft, comprising a bistable diaphragm spring arrangement, by means of which, without application of an external force, both a closed state establishing a force-fitting connection between the two shafts and an open state disconnecting the two shafts from one another are maintained, wherein a first clutch element is fixedly attached to the first shaft and a second clutch element is connected to the second shaft fixedly for conjoint rotation and axially displaceably, wherein the diaphragm spring arrangement comprises at least one diaphragm spring , characterized in that an inner circumferential edge of the diaphragm spring is rotatably held in a first groove provided on the first shaft , wherein an outer circumferential edge of the diaphragm spring is held in a second groove provided on a sliding clutch , wherein a driver for holding the diaphragm spring in the circumferential direction is provided on the sliding clutch , and wherein a driver element engages in the driver , as a result of which (i) a rotationally fixed connection is formed between the diaphragm spring and the sliding clutch , or (ii) the diaphragm spring is connected to the second clutch element fixedly for conjoint rotation by means of a driver and a driver element .