mhurhangee/patent-ind-claim-en huggingface dataset:
A modular safety switching apparatus for controlling a plurality of electrical devices comprising: a first safety switching module comprising a first switching signal output for controlling a first electrical device; a second safety switching module comprising a second switching signal output for controlling a second electrical device; and a connection element , which is configured to electrically connect the first safety switching module to the second safety switching module ; wherein the second safety switching module with respect to signal transmission is downstream of the first safety switching module , and wherein the first safety switching module can be deactivated in response to receiving a first control signal and is configured to feed a second control signal to the second safety switching module in order to deactivate the second safety switching module , wherein the first safety switching module is configured to deactivate the first electrical device connected to the first switching signal output in response to receiving the first control signal, and wherein the first safety switching module is further configured to deactivate the second switching signal output of the second safety switching module in response to receiving the first control signal, characterized in that the first safety switching module is configured to feed a single-channel active control signal (AKTIV) to the first switching signal output of the first safety switching module and via the connection element to the second safety switching module . a first safety switching module comprising a first switching signal output for controlling a first electrical device; a second safety switching module comprising a second switching signal output for controlling a second electrical device; and a connection element , which is configured to electrically connect the first safety switching module to the second safety switching module ; wherein the second safety switching module with respect to signal transmission is downstream of the first safety switching module , and wherein the first safety switching module can be deactivated in response to receiving a first control signal and is configured to feed a second control signal to the second safety switching module in order to deactivate the second safety switching module , wherein the first safety switching module is configured to deactivate the first electrical device connected to the first switching signal output in response to receiving the first control signal, and wherein the first safety switching module is further configured to deactivate the second switching signal output of the second safety switching module in response to receiving the first control signal, characterized in that the first safety switching module is configured to feed a single-channel active control signal (AKTIV) to the first switching signal output of the first safety switching module and via the connection element to the second safety switching module .
A cooking oven comprising at least one oven cavity , wherein: - the oven cavity comprises a cavity wall enclosing an interior space of said oven cavity , - the cavity wall includes two side walls, a top wall, a bottom wall and a rear wall, - the cavity wall is enclosed by at least one insulating layer , - at least one air spacer is arranged between the insulating layer and at least one corresponding wall of the cavity wall , characterised in that - the air spacer is aligned at the corresponding wall of the cavity wall , - the air spacer includes at least one plane portion arranged parallel to the corresponding wall of the cavity wall , - the air spacer includes at least one flange enclosing the plane portion of said air spacer , - the flange extends from the plane portion towards the cavity wall , - the air spacer is formed as a shell and covers a plane part of the cavity wall , - one air chamber is formed between the at least one air spacer and said plane part of the corresponding wall of the cavity wall , and - the air chamber provides static air between the cavity wall and the air spacer . - the oven cavity comprises a cavity wall enclosing an interior space of said oven cavity , - the cavity wall includes two side walls, a top wall, a bottom wall and a rear wall, - the cavity wall is enclosed by at least one insulating layer , - at least one air spacer is arranged between the insulating layer and at least one corresponding wall of the cavity wall , - the air spacer is aligned at the corresponding wall of the cavity wall , - the air spacer includes at least one plane portion arranged parallel to the corresponding wall of the cavity wall , - the air spacer includes at least one flange enclosing the plane portion of said air spacer , - the flange extends from the plane portion towards the cavity wall , - the air spacer is formed as a shell and covers a plane part of the cavity wall , - one air chamber is formed between the at least one air spacer and said plane part of the corresponding wall of the cavity wall , and - the air chamber provides static air between the cavity wall and the air spacer .
Device for holding a component , in particular a display device in a motor vehicle, having: a peg which extends along a longitudinal axis and has a rotationally asymmetric cross section perpendicular to the longitudinal axis; an insert having a peg receptacle for placing the insert on the peg , wherein the insert has a rotationally asymmetric cross section perpendicular to the longitudinal axis, said cross section being matched to the rotationally asymmetric cross section of the peg such that the peg fixes the insert in a rotationally fixed manner with respect to the longitudinal axis, in particular in a play-free manner; and a carrier for carrying the component , wherein the carrier is in the form of a hollow body having an insert receptacle for receiving the insert , wherein the carrier has a rotationally asymmetric cross section perpendicular to the longitudinal axis, said cross section being matched to the rotationally asymmetric cross section of the insert such that the insert fixes the carrier in a rotationally fixed manner with respect to the longitudinal axis, in particular in a play-free manner, wherein a first latching connection is provided for releasably securing the insert to the peg and a second latching connection is provided for releasably securing the carrier to the insert , characterized in that the carrier has an opening , via which an unlocking mechanism of the first latching connection is accessible in order to release the first latching connection . a peg which extends along a longitudinal axis and has a rotationally asymmetric cross section perpendicular to the longitudinal axis; an insert having a peg receptacle for placing the insert on the peg , wherein the insert has a rotationally asymmetric cross section perpendicular to the longitudinal axis, said cross section being matched to the rotationally asymmetric cross section of the peg such that the peg fixes the insert in a rotationally fixed manner with respect to the longitudinal axis, in particular in a play-free manner; and a carrier for carrying the component , wherein the carrier is in the form of a hollow body having an insert receptacle for receiving the insert , wherein the carrier has a rotationally asymmetric cross section perpendicular to the longitudinal axis, said cross section being matched to the rotationally asymmetric cross section of the insert such that the insert fixes the carrier in a rotationally fixed manner with respect to the longitudinal axis, in particular in a play-free manner, wherein a first latching connection is provided for releasably securing the insert to the peg and a second latching connection is provided for releasably securing the carrier to the insert , characterized in that the carrier has an opening , via which an unlocking mechanism of the first latching connection is accessible in order to release the first latching connection .
A sheet processing machine for storing sheets transported by a transport unit , the sheet processing machine comprising: a reel on which a first end side of a tape (43; 43a; 43b) is wound; a first stepper motor for rotating the reel about a rotation axis of the reel ; a drum for winding up a second end side of the tape (43; 43a; 43b) together with the sheets to form a winding body together with the tape (43; 43a; 43b) and the sheets; a second stepper motor for rotating the drum about a rotation axis of the drum ; and a control unit for changing an interval between the sheets wound on the drum by controlling rotation of the first stepper motor and the second stepper motor based on a parameter indicating a condition of the winding body; characterized in that the control unit reduces a winding speed of the winding body from a first winding speed to a second winding speed and then increases the winding speed from the second winding speed to the first winding speed, between winding one of the sheets and winding next one of the sheets. a reel on which a first end side of a tape (43; 43a; 43b) is wound; a first stepper motor for rotating the reel about a rotation axis of the reel ; a drum for winding up a second end side of the tape (43; 43a; 43b) together with the sheets to form a winding body together with the tape (43; 43a; 43b) and the sheets; a second stepper motor for rotating the drum about a rotation axis of the drum ; and a control unit for changing an interval between the sheets wound on the drum by controlling rotation of the first stepper motor and the second stepper motor based on a parameter indicating a condition of the winding body; characterized in that the control unit reduces a winding speed of the winding body from a first winding speed to a second winding speed and then increases the winding speed from the second winding speed to the first winding speed, between winding one of the sheets and winding next one of the sheets.
A device for measuring the concentration of gases in exhaled air, comprising: - a first air inlet for introducing unfiltered ambient air and air exhaled by a patient in the device, - a second air inlet with a nitric oxide filter for introducing filtered ambient air in the device, - a pump for suctioning ambient air into the device, - a nitric oxide sensor for measuring the concentration of nitric oxide in the air, - a first valve located downstream from the first air inlet and upstream from the nitric oxide sensor , and - a second valve located downstream from the second air inlet and upstream from the nitric oxide sensor , characterized in that the device additionally comprises: - a third valve located downstream from the nitric oxide sensor in a first fluid line that conducts the air exhaled by the patient to a first air outlet , and - a fourth valve located downstream from the nitric oxide sensor in a second fluid line that conducts the ambient air to a second air outlet , and wherein the pump for suctioning ambient air is located in the second fluid line. - a first air inlet for introducing unfiltered ambient air and air exhaled by a patient in the device, - a second air inlet with a nitric oxide filter for introducing filtered ambient air in the device, - a pump for suctioning ambient air into the device, - a nitric oxide sensor for measuring the concentration of nitric oxide in the air, - a first valve located downstream from the first air inlet and upstream from the nitric oxide sensor , and - a second valve located downstream from the second air inlet and upstream from the nitric oxide sensor , characterized in that the device additionally comprises: - a third valve located downstream from the nitric oxide sensor in a first fluid line that conducts the air exhaled by the patient to a first air outlet , and - a fourth valve located downstream from the nitric oxide sensor in a second fluid line that conducts the ambient air to a second air outlet , and wherein the pump for suctioning ambient air is located in the second fluid line.
An apparatus, comprising: - means for determining first information about at least one network slice supported by at least one neighboring cell; - means for determining second information regarding at least one network slice supported by a user equipment; characterized in that the apparatus further comprises - means for providing , via dedicated signaling, third information to the user equipment in a radio resource control, RRC, connected mode, wherein the third information is based on the first and the second information and the third information is useable by the user equipment in an RRC idle mode during a cell selection or reselection phase of an RRC re-establishment procedure or an RRC connection setup procedure. - means for determining first information about at least one network slice supported by at least one neighboring cell; - means for determining second information regarding at least one network slice supported by a user equipment; characterized in that the apparatus further comprises - means for providing , via dedicated signaling, third information to the user equipment in a radio resource control, RRC, connected mode, wherein the third information is based on the first and the second information and the third information is useable by the user equipment in an RRC idle mode during a cell selection or reselection phase of an RRC re-establishment procedure or an RRC connection setup procedure.
An electronic device, comprising: a touchscreen ; and processing circuitry configured to at least: receive a first touch interaction while a first task execution screen for a first task is displayed on the touchscreen; in response to the first touch interaction , display a stack of visual elements on the touchscreen, wherein the visual elements in the stack respectively correspond to a plurality of tasks, including the first task, and a visual element corresponding to the first task is positioned on top of the stack; receive a second touch interaction for removing a visual element corresponding to a task from the stack; in response to the second touch interaction, remove the visual element selected by the second touch interaction from the stack, re-size each remaining visual element, and adjust an interval between two consecutive visual elements of the visual elements remaining in the stack after removing the visual element corresponding to the task; receive a third touch interaction for selecting a visual element from the stack of visual elements; and in response to the third touch interaction , display on the touchscreen , a second task execution screen for a second task corresponding to the selected visual element. a touchscreen ; and processing circuitry configured to at least: receive a first touch interaction while a first task execution screen for a first task is displayed on the touchscreen; in response to the first touch interaction , display a stack of visual elements on the touchscreen, wherein the visual elements in the stack respectively correspond to a plurality of tasks, including the first task, and a visual element corresponding to the first task is positioned on top of the stack; receive a second touch interaction for removing a visual element corresponding to a task from the stack; in response to the second touch interaction, remove the visual element selected by the second touch interaction from the stack, re-size each remaining visual element, and adjust an interval between two consecutive visual elements of the visual elements remaining in the stack after removing the visual element corresponding to the task; receive a third touch interaction for selecting a visual element from the stack of visual elements; and in response to the third touch interaction , display on the touchscreen , a second task execution screen for a second task corresponding to the selected visual element.
Actuator for the actuation of at least one movable member of a motor vehicle transmission, said actuator comprising a housing and a cover defining an internal volume which accommodates at least one electric motor having a stator and a rotor which is mounted on a rotor shaft extending along an axis X1, a motor pinion fixed to the opposite end of the shaft from the rotor , a step-down mechanism driven by the motor pinion , the actuator also comprising a pin mounted rotatably at the end of a shaft extending along an axis X3 and able to be inserted into the movable member of the transmission, characterized in that the shaft of the pin is rotationally guided by a rolling bearing and a plain bearing .
Can changer , comprising a receiving region which is configured to receive three cans along its longitudinal extent, having a first can pusher which is configured to move along the entire receiving region and to receive two cans, wherein the first can pusher is configured to receive an empty can from a feed region and, by displacement along the receiving region , to press this empty can against a full can and thus push the full can into the region of a discharge path , wherein the empty can remains in a filling position as the can to be filled, characterised in that , in the region of the discharge path , the receiving region has a second can pusher which is configured to move the full can onto the discharge path .
Activator for increasing the early strength for cement, comprising: a hydraulically reactive very fine component with a fineness of at least 10,000 cm 2 /g according to Blaine, containing cement clinker, calcium sulphate and limestone a calcium sulphate with a fineness from 3,500 to 5,000 cm 2 /g according to Blaine an alkali sulphate and/or an alkali sulphite, and a complexing agent selected from the group of alkanolamines. a hydraulically reactive very fine component with a fineness of at least 10,000 cm 2 /g according to Blaine, containing cement clinker, calcium sulphate and limestone a calcium sulphate with a fineness from 3,500 to 5,000 cm 2 /g according to Blaine an alkali sulphate and/or an alkali sulphite, and a complexing agent selected from the group of alkanolamines.
Method for fault identification when driving a polyphase motor (M) by means of a frequency converter, wherein, in a rest state, the frequency converter controls the phase voltages (U a , U b , U c ) of the polyphase motor (M) and the phase currents (I a , I b , I c ) of the polyphase motor (M) are measured, characterized in that then in the rest state, the phase currents (I a , I b , I c ) or current variables derived therefrom are adjusted by closed-loop control to a predetermined setpoint current variable (i* q , i* d ), in that the frequency converter is controlled so as to output an interference voltage variable (U dref , U qref ) for the phase voltages (U a , U b , U c ), in that the response of the closed-loop control to the interference voltage variable (U dref , U qref ) is observed, and in that a conclusion is drawn from the response of the closed-loop control regarding a fault in the frequency converter and/or the phases of the polyphase motor (M).
A method for adjusting bandwidth, comprising: using a slice logical port as a bandwidth borrowing logical port in response to monitoring that the slice logical port meets a preset bandwidth borrowing condition (S1010); searching for, in a physical port to which the bandwidth borrowing logical port belongs, a slice logical port that meets a preset bandwidth lending condition to act as a bandwidth lending logical port (S 1020); and extracting bandwidth from a bandwidth of the bandwidth lending logical port according to a preset bandwidth lending rule and allocating the extracted bandwidth to the bandwidth borrowing logical port (S1030); characterized in that , the preset bandwidth borrowing condition comprises that: an actual flow rate of services borne by the slice logical port is greater than a maximum flow rate threshold corresponding to the slice logical port; the preset bandwidth lending condition comprises that: the actual flow rate of services borne by the slice logical port is less than a minimum flow rate threshold corresponding to the slice logical port. using a slice logical port as a bandwidth borrowing logical port in response to monitoring that the slice logical port meets a preset bandwidth borrowing condition (S1010); searching for, in a physical port to which the bandwidth borrowing logical port belongs, a slice logical port that meets a preset bandwidth lending condition to act as a bandwidth lending logical port (S 1020); and extracting bandwidth from a bandwidth of the bandwidth lending logical port according to a preset bandwidth lending rule and allocating the extracted bandwidth to the bandwidth borrowing logical port (S1030); characterized in that , the preset bandwidth borrowing condition comprises that: an actual flow rate of services borne by the slice logical port is greater than a maximum flow rate threshold corresponding to the slice logical port; the preset bandwidth lending condition comprises that: the actual flow rate of services borne by the slice logical port is less than a minimum flow rate threshold corresponding to the slice logical port.
Method for the continuous, non-invasive determination of blood pressure by means of a photoplethysmographic system , wherein a mount having at least one light source and at least one light detector is arranged on a body part which contains an artery , characterised in that ▪ the contact pressure p(t) of the mount of the photoplethysmographic system is adapted to the mean arterial blood pressure MABP by determining, in a search phase, the initial contact pressure P 0 of the mount of the photoplethysmographic system , at which the initial photoplethysmographic signal V0 with the greatest amplitude is produced, ▪ the contact pressure p(t) of the mount of the photoplethysmographic system is controlled by a control system starting from the initial contact pressure, ▪ wherein the rate of change of the contact pressure of the mount of the photoplethysmographic system is smaller than that of the pulsatile blood pressure changes in the artery, and ▪ wherein the control system generates a filtered photoplethysmographic signal vLF(t) which is compared with the initial photoplethysmographic signal V0 and the contact pressure p(t) is varied until the filtered signal vLF(t) again corresponds to the initial signal V0. ▪ the contact pressure p(t) of the mount of the photoplethysmographic system is adapted to the mean arterial blood pressure MABP by determining, in a search phase, the initial contact pressure P 0 of the mount of the photoplethysmographic system , at which the initial photoplethysmographic signal V0 with the greatest amplitude is produced, ▪ the contact pressure p(t) of the mount of the photoplethysmographic system is controlled by a control system starting from the initial contact pressure, ▪ wherein the rate of change of the contact pressure of the mount of the photoplethysmographic system is smaller than that of the pulsatile blood pressure changes in the artery, and ▪ wherein the control system generates a filtered photoplethysmographic signal vLF(t) which is compared with the initial photoplethysmographic signal V0 and the contact pressure p(t) is varied until the filtered signal vLF(t) again corresponds to the initial signal V0.
An article , comprising: a substrate ; and a plurality of coatings disposed on the substrate , wherein at least one coating in the plurality of coatings comprises an oxide of nominal composition A x B 1-y D y O z , wherein A comprises a rare-earth element, B comprises tantalum or niobium, D comprises zirconium or hafnium, 2 ≤ x ≤3, 0.1≤y≤0.5, and 6 ≤ z ≤7; wherein the coating comprising an oxide is a thermal barrier coating wherein the oxide is included in an amount in a range from 50 wt% to 90wt%. a substrate ; and a plurality of coatings disposed on the substrate , wherein at least one coating in the plurality of coatings comprises an oxide of nominal composition A x B 1-y D y O z , wherein A comprises a rare-earth element, B comprises tantalum or niobium, D comprises zirconium or hafnium, 2 ≤ x ≤3, 0.1≤y≤0.5, and 6 ≤ z ≤7; wherein the coating comprising an oxide is a thermal barrier coating wherein the oxide is included in an amount in a range from 50 wt% to 90wt%.