mhurhangee/ep-ind-claims huggingface dataset:
A medical device for detecting at least one analyte in a body fluid, the medical device comprising: • at least one analyte sensor having an insertable portion adapted for at least partially being inserted into a body tissue of a user, • at least one insertion cannula, wherein the analyte sensor at least partially is placed inside the insertion cannula; • at least one electronics unit, wherein the analyte sensor is operably connected to the electronics unit; • at least one housing, wherein the housing comprises at least one electronics compartment configured to at least partially receive the electronics unit and at least one sensor compartment configured to at least partially receive the analyte sensor, wherein the sensor compartment forms a sealed compartment receiving at least the insertable portion of the analyte sensor, wherein the sealed compartment comprises at least one detachable upper cap and at least one detachable lower cap, wherein the detachable lower cap is configured for detachment before insertion, thereby opening the insertable portion for insertion, wherein the insertion cannula is attached to the detachable upper cap, wherein the detachable upper cap is configured for detachment after insertion, thereby removing the insertion cannula, wherein the electronics compartment at least partially surrounds the sensor compartment, wherein the electronics compartment and the sensor compartment are designed integrally, wherein the electronics compartment and the sensor compartment form a single piece. • at least one analyte sensor having an insertable portion adapted for at least partially being inserted into a body tissue of a user, • at least one insertion cannula, wherein the analyte sensor at least partially is placed inside the insertion cannula; • at least one electronics unit, wherein the analyte sensor is operably connected to the electronics unit; • at least one housing, wherein the housing comprises at least one electronics compartment configured to at least partially receive the electronics unit and at least one sensor compartment configured to at least partially receive the analyte sensor, wherein the sensor compartment forms a sealed compartment receiving at least the insertable portion of the analyte sensor, wherein the sealed compartment comprises at least one detachable upper cap and at least one detachable lower cap, wherein the detachable lower cap is configured for detachment before insertion, thereby opening the insertable portion for insertion, wherein the insertion cannula is attached to the detachable upper cap, wherein the detachable upper cap is configured for detachment after insertion, thereby removing the insertion cannula, wherein the electronics compartment at least partially surrounds the sensor compartment, wherein the electronics compartment and the sensor compartment are designed integrally, wherein the electronics compartment and the sensor compartment form a single piece.
A device comprising: a sensor; and a first circuit configured to detect when an acoustic input stimulus sensed by the sensor satisfies one or more detection criteria, and further configured to produce a signal upon detection, wherein the signal causes adjustment of performance of the device; and a second circuit configured for processing an input to the device following detection of the acoustic input stimulus, wherein the second circuit is configured to increase its power level following detection, relative to a power level of the second circuit prior to detection; a third circuit with logic configured for increasing, after detection of the acoustic stimulus, a power level of the second circuit, relative to the power level of the second circuit prior to detection, and characterized in that the third circuit is further configured for ii) reducing, after detection of the acoustic input stimulus, a power level of the first circuit, relative to a power level of the first circuit prior to detection. a sensor; and a first circuit configured to detect when an acoustic input stimulus sensed by the sensor satisfies one or more detection criteria, and further configured to produce a signal upon detection, wherein the signal causes adjustment of performance of the device; and a second circuit configured for processing an input to the device following detection of the acoustic input stimulus, wherein the second circuit is configured to increase its power level following detection, relative to a power level of the second circuit prior to detection; a third circuit with logic configured for increasing, after detection of the acoustic stimulus, a power level of the second circuit, relative to the power level of the second circuit prior to detection, and characterized in that the third circuit is further configured for ii) reducing, after detection of the acoustic input stimulus, a power level of the first circuit, relative to a power level of the first circuit prior to detection.
An electronic device comprising: a display; a microphone configured to receive a voice input; a communication circuit configured to communicate with an external electronic device; a memory configured to store at least one application; and one or more processor(s) electrically connected to the microphone, the communication circuit, the display, and the memory, wherein the one or more processor(s) is configured to: obtain voice data corresponding to the voice input received through the microphone; transmit the voice data to the external electronic device through the communication circuit; receive a sequence of tasks for performing a first function of the at least one application, which is determined based on the voice data, from the external electronic device through the communication circuit; and the electronic device being characterised in that the one or more processor(s) is further configured for: while performing the tasks based on the sequence of tasks, when it is determined that execution of a first task in the sequence of tasks is not completed within a specified time, extending a time-out time of the first task and switching the execution of the first task to the execution in background. a display; a microphone configured to receive a voice input; a communication circuit configured to communicate with an external electronic device; a memory configured to store at least one application; and one or more processor(s) electrically connected to the microphone, the communication circuit, the display, and the memory, wherein the one or more processor(s) is configured to: obtain voice data corresponding to the voice input received through the microphone; transmit the voice data to the external electronic device through the communication circuit; receive a sequence of tasks for performing a first function of the at least one application, which is determined based on the voice data, from the external electronic device through the communication circuit; and the electronic device being characterised in that obtain voice data corresponding to the voice input received through the microphone; transmit the voice data to the external electronic device through the communication circuit; receive a sequence of tasks for performing a first function of the at least one application, which is determined based on the voice data, from the external electronic device through the communication circuit; and the electronic device being characterised in that the one or more processor(s) is further configured for: while performing the tasks based on the sequence of tasks, when it is determined that execution of a first task in the sequence of tasks is not completed within a specified time, extending a time-out time of the first task and switching the execution of the first task to the execution in background.
Method for producing a three-dimensionally shaped hybrid component of a metal/plastic composite, characterized by using a semifinished product (1, 1') in the form of a sheet blank or strip that can undergo deep drawing, which comprises at least one metal sheet (1.1) in the form of a sheet blank or strip and at least one layer of thermoplastic (1.2, 1.4) applied in a material-bonding manner on the metal sheet, the side of the metal sheet (1.1) on which the layer of plastic (1.2, 1.4) is applied having a surface (1.3, 1.5) that improves the adherence of the layer of plastic (1.2, 1.4), the layer of plastic (1.2, 1.4) being formed as a coupling layer for the material-bonding, adhesive-free attachment of at least one structural body produced or to be produced from plastic, and a structural body of plastic being molded in a material-bonding manner onto the layer of plastic (1.2, 1.4) formed as a coupling layer by injection molding or press-forming.
Set of elements for the realization of a lighting device to be mounted in a protruding way on a covering installation or structure, comprising at least one lighting element which includes: - a body inside which at least one light source is positioned, - at least a transmission portion which is configured to allow, at least in part, the transmission to the external environment of the light generated by said light source, - a cable for powering said light source, which protrudes from said body, said set of elements also comprising: - a casing configured to completely house the body of said at least one lighting element, said casing comprising at least one opening for insertion inside the casing itself of the body of a corresponding lighting element and at least one opening (8") of the cable of said at least one lighting element towards the outside of said casing, and - at least one visible annular element to be associated with the body of a corresponding lighting element so that, when the body of said lighting element is completely housed and hidden in said casing, said at least one visible annular element and said transmission portion of said at least one lighting element are visible from the outside of said casing, and characterized by the fact to be configured so that, when the body of said at least one lighting element, to which a corresponding visible annular element has been previously associated, is inserted inside the casing, said opening for the insertion of said body is completely closed and the area of said casing that surrounds said opening remains visible. - a body inside which at least one light source is positioned, - at least a transmission portion which is configured to allow, at least in part, the transmission to the external environment of the light generated by said light source, - a cable for powering said light source, which protrudes from said body, - a casing configured to completely house the body of said at least one lighting element, said casing comprising at least one opening for insertion inside the casing itself of the body of a corresponding lighting element and at least one opening (8") of the cable of said at least one lighting element towards the outside of said casing, and - at least one visible annular element to be associated with the body of a corresponding lighting element so that, when the body of said lighting element is completely housed and hidden in said casing, said at least one visible annular element and said transmission portion of said at least one lighting element are visible from the outside of said casing,
Hub having a hub body, the hub body comprising two end units (3, 4) and at least one center part, wherein the center part is disposed between and received at the end units (3, 4), characterized in that at least one end unit (3, 4) comprises a tubular inserting portion onto which the center part comprising a tubular slip-on portion is pushed wherein the inserting portion and the slip-on portion overlap in an overlapping region and a guiding portion and a gluing portion are provided in the overlapping region, and that the guiding portion is provided with a diameter tolerance that is lower between the inserting portion and the slip-on portion than at the gluing portion.
Deformable structural component for a fluid-dynamic body of a vehicle, comprising a skin to be deformed, a drive mechanism for producing a deformation force, and a rotatably mounted load introduction device for introducing the deformation force into the skin, wherein the drive mechanism has a linearly movably driven linear movement unit and a transmission element for converting a linear movement of the linear movement unit into a rotary movement of the load introduction device, wherein the transmission element has a conversion lever which, to convert the linear movement into a rotatory movement, is articulated on the linear movement unit and on the load introduction device, wherein the conversion lever is mounted in an articulated manner in such a way that it can move both in a plane and can move out of the plane in that it is mounted on the load introduction device with a plurality of degrees of freedom or in a multiaxially articulated manner, characterized in that the conversion lever is either a) mounted on the linear movement unit with a plurality of degrees of freedom or in a multiaxially articulated manner, or is b) mounted on the linear movement unit in a uniaxially articulated manner and the linear movement unit is mounted so as to be rotatable about an axis of rotation extending substantially in the movement direction of the linear movement unit. a) mounted on the linear movement unit with a plurality of degrees of freedom or in a multiaxially articulated manner, or is b) mounted on the linear movement unit in a uniaxially articulated manner and the linear movement unit is mounted so as to be rotatable about an axis of rotation extending substantially in the movement direction of the linear movement unit.
A method for the production of a hydrotalcite-like granular material, comprising: removing moisture from a material that contains at least a hydrotalcite-like substance having a crystallite size of 20 nm or smaller and water by applying a predetermined pressure until the water content becomes 70 % or smaller, the hydrotalcite-like substance being formed by mixing an acidic solution and an alkaline solution without ripening, the acidic solution containing a divalent metal and a trivalent metal; drying the material at a temperature which is lower than the temperature at which the hydrotalcite-like substance is dehydrated of crystal water contained therein and in an ambient humidity of 90% or higher; wherein the drying is performed such that the hydrotalcite-like granular material maintains a water content of 10% or higher; and adjusting the grain size to be 0.24 mm or larger. removing moisture from a material that contains at least a hydrotalcite-like substance having a crystallite size of 20 nm or smaller and water by applying a predetermined pressure until the water content becomes 70 % or smaller, the hydrotalcite-like substance being formed by mixing an acidic solution and an alkaline solution without ripening, the acidic solution containing a divalent metal and a trivalent metal; drying the material at a temperature which is lower than the temperature at which the hydrotalcite-like substance is dehydrated of crystal water contained therein and in an ambient humidity of 90% or higher; wherein the drying is performed such that the hydrotalcite-like granular material maintains a water content of 10% or higher; and adjusting the grain size to be 0.24 mm or larger.
A service routing method, comprising: receiving, by a first routing node, a first packet, wherein the first packet carries service identifier information and first service node address information, the service identifier information is used to indicate an identifier of a first service provided by at least two service nodes, the first service node address information is used to indicate an address of a first service node, and the at least two service nodes comprise the first service node; and forwarding, by the first routing node, the first packet based on the first service node address information. receiving, by a first routing node, a first packet, wherein the first packet carries service identifier information and first service node address information, the service identifier information is used to indicate an identifier of a first service provided by at least two service nodes, the first service node address information is used to indicate an address of a first service node, and the at least two service nodes comprise the first service node; and forwarding, by the first routing node, the first packet based on the first service node address information.
A container storage and retrieval system including: ▪ a first storage zone storing containers of product in frames, each frame including a plurality of stacks of containers; ▪ a second storage zone storing containers of product in rows of stacks; ▪ a first automated retrieval system arranged and configured to retrieve selected stacks of containers from the second storage zone by moving complete stacks from the second storage zone to a conveyor without separating the stacks into partial stacks, and to replenish the second storage zone with at least one frame of containers from the first zone; ▪ a third storage zone storing containers in partial stacks or stacks; ▪ a second automated retrieval system arranged and configured to stack partial stacks together, and to retrieve selected partial stacks or stacks of containers, and to replenish the third storage zone with at least one stack of containers from the second storage zone without separating the at least one stack into partial stacks; and ▪ an order accumulation zone arranged and configured to collate orders, wherein an order includes a required number of complete frames received from the first storage zone, a required number of complete stacks received from the second storage zone, wherein the complete stacks are not separated into partial stacks and the required number of stacks retrieved from the second zone is less than the number of stacks in a frame, and a required number of stacks or partial stacks received from the third zone. ▪ a first storage zone storing containers of product in frames, each frame including a plurality of stacks of containers; ▪ a second storage zone storing containers of product in rows of stacks; ▪ a first automated retrieval system arranged and configured to retrieve selected stacks of containers from the second storage zone by moving complete stacks from the second storage zone to a conveyor without separating the stacks into partial stacks, and to replenish the second storage zone with at least one frame of containers from the first zone; ▪ a third storage zone storing containers in partial stacks or stacks; ▪ a second automated retrieval system arranged and configured to stack partial stacks together, and to retrieve selected partial stacks or stacks of containers, and to replenish the third storage zone with at least one stack of containers from the second storage zone without separating the at least one stack into partial stacks; and ▪ an order accumulation zone arranged and configured to collate orders, wherein an order includes a required number of complete frames received from the first storage zone, a required number of complete stacks received from the second storage zone, wherein the complete stacks are not separated into partial stacks and the required number of stacks retrieved from the second zone is less than the number of stacks in a frame, and a required number of stacks or partial stacks received from the third zone.
A method for jamming a communication system (EM, REC) involving generating at least one dummy synchronisation sequence (SYNC F) in a signal intended to be transmitted by at least one transmitter (EM_B1, EM_B2,..., EM_B3) compatible with said communication system (EM, REC), said signal comprising data (D U,T) generated by an application and intended to be transmitted to a receiver, said method comprising the following steps: - defining said dummy synchronisation sequence (SYNC F) and its time and/or frequency position within said signal to be transmitted; - estimating the value and the position of the dummy bits (B F) to be inserted into the sequence of data (D U,T) to be transmitted at the input of the transmission chain or of a sub-part of the transmission chain so as to obtain, in the sequence produced at the output of said transmission chain, the predefined value and time position of the symbols of said dummy synchronisation sequence (SYNC F); - inserting said dummy bits (B F) into said sequence of data (D U,T) at the obtained positions. - defining said dummy synchronisation sequence (SYNC F) and its time and/or frequency position within said signal to be transmitted; - estimating the value and the position of the dummy bits (B F) to be inserted into the sequence of data (D U,T) to be transmitted at the input of the transmission chain or of a sub-part of the transmission chain so as to obtain, in the sequence produced at the output of said transmission chain, the predefined value and time position of the symbols of said dummy synchronisation sequence (SYNC F); - inserting said dummy bits (B F) into said sequence of data (D U,T) at the obtained positions.
A stent graft delivery system comprising: an inner lumen including an elongate inner lumen body and an inner lumen tip at a distal longitudinal end of the inner lumen body; a stent graft positionable over the inner lumen; a stent graft cover slidably positionable over the stent graft and the inner lumen, the stent graft cover configured to retract proximally to expose a longitudinal portion of the stent graft, the stent graft cover including an elongate cover body having a distal longitudinal end; and a thermal stent graft cutter coupled to the inner lumen and configured to selectively generate and direct heat from the inner lumen tip to circumferentially cut the stent graft and shorten the length of the stent graft to a desired length. an inner lumen including an elongate inner lumen body and an inner lumen tip at a distal longitudinal end of the inner lumen body; a stent graft positionable over the inner lumen; a stent graft cover slidably positionable over the stent graft and the inner lumen, the stent graft cover configured to retract proximally to expose a longitudinal portion of the stent graft, the stent graft cover including an elongate cover body having a distal longitudinal end; and a thermal stent graft cutter coupled to the inner lumen and configured to selectively generate and direct heat from the inner lumen tip to circumferentially cut the stent graft and shorten the length of the stent graft to a desired length.
Method for operating a longitudinal guidance driver assistance system, in particular an ACC system, in a motor vehicle, comprising a clutch pedal as an actuator for manually operating a clutch, the driver assistance system being configured to carry out at least one driving intervention for controlling the speed of the motor vehicle, a clutch actuator provided as an additional actuator for the clutch being used for automatically disengaging and engaging the clutch, the control of the speed also determining a desired clutch slip, and the clutch actuator being correspondingly activated, characterised in that, when a clutch slip is required, a target deceleration which is between a drag torque deceleration of the engine and a coasting mode deceleration provided in coasting mode with the clutch disengaged is generated without activating an additional brake system of the motor vehicle.