mhurhangee/patent-ind-claim-en huggingface dataset:
Measuring module for a switching device, in particular for a load-break switch , wherein the measuring module has at least one contact piece , preferably a plurality of contact pieces , particularly preferably three contact pieces , for at least thermal contacting of at least one switch terminal of the switching device , the measuring module furthermore comprising at least one temperature sensor for determining the temperature of the at least one contact piece , wherein the measuring module is set up to monitor the temperature of the at least one contact piece and to output an error message if a temperature rise of the at least one contact piece is detected which is greater than or greater than or equal to a rise limit value or shows a specific progression over time, characterized in that the at least one contact piece is geometrically designed such that it can be clamped in the at least one switch terminal of the switching device .
A machine operating element with safety functionality comprising a safety parameter detection means on a support structure , wherein the support structure is arranged in or on an article of clothing, which article of clothing can be arranged on a body part performing machine operating actions, and wherein the article of clothing is a glove , and wherein a first communication connection is established between the safety parameter detection means and a safety circuit of a machine tool to be operated, characterized in that the safety parameter detection means has a hydraulic pressure transmitter and a hydraulic pressure sensor connected thereto, and in that , further, a control variable detection means is arranged on the support structure , wherein a second communication connection is established between the control variable detection means and a control module of the machine tool , which second communication connection is separate from the first communication connection .
A method carried out by a notification engine , for delivering to a user equipment incoming notifications from at least one application server (3.i) related to a corresponding application running on said user equipment , said application (3.i) running on the user equipment being registered on said notification engine , wherein the method comprises the steps of: - buffering received notifications within a group of notifications in a memory of the notification engine ; - defining at least one criterion for delivering the group of notifications, the at least one criterion comprising a maximum number N of notifications to be delivered at the same time, and a time period to deliver the group of notifications to the user equipment ; and - delivering, according to said at least one criterion, the group of notifications to the user equipment ; wherein the notifications of the group are delivered at the same time to the user equipment in the form of an ordered list upon expiration of said time period, if the number of notifications of the group is less than or equal to the maximum number N; else, if the number of notifications of the group is more than the maximum number N, delivering a number of buffered notifications of the group equal to the maximum number , at the same time to the user equipment in the form of an ordered list upon expiration of said time period, and delivering the other notifications of the group upon expiration of a next time period. - buffering received notifications within a group of notifications in a memory of the notification engine ; - defining at least one criterion for delivering the group of notifications, the at least one criterion comprising a maximum number N of notifications to be delivered at the same time, and a time period to deliver the group of notifications to the user equipment ; and - delivering, according to said at least one criterion, the group of notifications to the user equipment ;
A method of additive manufacturing of a three-dimensional object by inkjet printing, the method comprising: dispensing from a first array of nozzles of an inkjet printing apparatus a modeling material formulation containing a polyimide precursor that forms a polyimide upon exposure to a curing condition in a configured pattern corresponding to a shape of a slice of the object, thereby forming a layer of the object ; applying to said layer ultraviolet radiation and infrared radiation respectively from two different radiation sources , wherein said applying said infrared radiation is by performing a plurality of scans of said infrared radiation over said layer; and repeating said dispensing and said application of radiation to form a plurality of layers in configured patterns corresponding to shapes of other slices of the object . dispensing from a first array of nozzles of an inkjet printing apparatus a modeling material formulation containing a polyimide precursor that forms a polyimide upon exposure to a curing condition in a configured pattern corresponding to a shape of a slice of the object, thereby forming a layer of the object ; applying to said layer ultraviolet radiation and infrared radiation respectively from two different radiation sources , wherein said applying said infrared radiation is by performing a plurality of scans of said infrared radiation over said layer; and repeating said dispensing and said application of radiation to form a plurality of layers in configured patterns corresponding to shapes of other slices of the object .
A probe comprising: a housing defining a flow passage for a first fluid (A) and having an entrance port and an exit port ; a sensor configured to sense a parameter of the first fluid (A) and positioned within the flow passage , characterised in that the probe further comprises: a hoop ejector connected externally to the housing such that a channel of the hoop ejector surrounds the exit port , the hoop ejector having a plurality of holes configured to port a second fluid from the channel such that the first fluid (A) is aspirated from the flow passage and out through the exit port . a housing defining a flow passage for a first fluid (A) and having an entrance port and an exit port ; a sensor configured to sense a parameter of the first fluid (A) and positioned within the flow passage , characterised in that the probe further comprises: a hoop ejector connected externally to the housing such that a channel of the hoop ejector surrounds the exit port , the hoop ejector having a plurality of holes configured to port a second fluid from the channel such that the first fluid (A) is aspirated from the flow passage and out through the exit port .
A method for providing an output power of a switched mode power converter with a multiphase AC side (9.1, 9.2) having a number N of conductors for receiving a multiphase AC voltage (1.1,1.2,1.3), wherein the number N of conductors is at least three and wherein a power flows into the switched mode power converter through a combination of current-carrying conductors comprising the steps of: a. determining a block length which is defined by a time span between two subsequent changes of the combination of the current-carrying conductors, wherein a change of the combination of current-carrying conductors occurs if a current runs either through at least one conductor which was not present in the previous combination or if the current runs through the same conductors as before but changes its direction in at least two of the conductors, and b. if a set value of the output power is below a first power threshold, preventing a power flow through the converter in each period of the multiphase AC voltage for at least one blocking interval, wherein each blocking interval has a duration of one block length. a. determining a block length which is defined by a time span between two subsequent changes of the combination of the current-carrying conductors, wherein a change of the combination of current-carrying conductors occurs if a current runs either through at least one conductor which was not present in the previous combination or if the current runs through the same conductors as before but changes its direction in at least two of the conductors, and b. if a set value of the output power is below a first power threshold, preventing a power flow through the converter in each period of the multiphase AC voltage for at least one blocking interval, wherein each blocking interval has a duration of one block length.
Cutting device , in particular garden cutting device, having at least one first and one second cutting element that are movable relative to one another, having a first and a second handle element that are movable relative to one another, and having at least one drive unit that is intended, in at least one operating state, to at least assist a movement of the second cutting element relative to the first cutting element , characterized in that a protective device between the handle elements is arranged between a pivot joint , connecting the handle elements , and an opening spring , in order to receive a cable of the cutting device , and/or a protective device extends between the handle elements in order to delimit an intermediate space between the handle elements .
Method for the siliconization of the inner surface of hollow bodies which have at least one opening , wherein the inner surface is sprayed with a silicone fluid by way of a spray nozzle , characterized by the following method steps, a) the hollow bodies are transported, standing upright one behind the other, under the spray nozzle and are positioned with their upwardly pointing opening centred under the spray nozzle , b) the inner surface of the respective hollow body is sprayed with a spray mist of a silicone fluid from above by way of the spray nozzle in a spraying process, and c) the siliconized hollow bodies , in each case after the spraying process, are transported, standing upright, out of the region of the spray nozzle . a) the hollow bodies are transported, standing upright one behind the other, under the spray nozzle and are positioned with their upwardly pointing opening centred under the spray nozzle , b) the inner surface of the respective hollow body is sprayed with a spray mist of a silicone fluid from above by way of the spray nozzle in a spraying process, and c) the siliconized hollow bodies , in each case after the spraying process, are transported, standing upright, out of the region of the spray nozzle .
Support platform for accommodating a portable electronic device of Electronic Flight Bag (EFB) type in an aircraft , the support platform being designed to be fixed in the aircraft and such in that it comprises an airtight closure means configured to occupy at least a first, so-called open position, in which the portable electronic device can be inserted in or removed from the support platform, and a second, so-called closed position, in which the portable electronic device can be used by a user in the aircraft when the portable electronic device is inserted into the support platform, the support platform being fixed in the aircraft, said support platform being characterized in that it comprises a cooling system that can be commanded between a first, so-called active position, in which the cooling system allows a circulation of air between the interior and the exterior of the support platform, and a second, so-called inactive position, in which the cooling system prevents the circulation of air between the interior and the exterior of the support platform.
A method for generating a PWM voltage reference signal, the method comprising: calculating reference values from three phase voltage references; generating random variables; and applying compensation values, generated by using the random variables at every period of the voltage references, on the reference values to generate the PWM voltage reference signal; characterized in that the method comprises: scaling the random variables, wherein a maximum and a minimum of the reference values, used for scaling the random variables, are obtained by performing a PWM operation carried out by: V max ∗ + v sn = − V min ∗ + v sn v sn = − V max ∗ + V min ∗ 2 V* max being the maximum value of the reference values, V* min being the minimum value of the reference values, and v sn is an arbitrary value, and wherein the scaling comprises scaling the random variables so that a sum of the compensation values and the reference values is located within a range between a maximum limit and a minimum limit of the reference values in the applying of the compensation values on the reference values. calculating reference values from three phase voltage references; generating random variables; and applying compensation values, generated by using the random variables at every period of the voltage references, on the reference values to generate the PWM voltage reference signal; characterized in that the method comprises: scaling the random variables, wherein a maximum and a minimum of the reference values, used for scaling the random variables, are obtained by performing a PWM operation carried out by: V max ∗ + v sn = − V min ∗ + v sn v sn = − V max ∗ + V min ∗ 2 V* max being the maximum value of the reference values, V* min being the minimum value of the reference values, and v sn is an arbitrary value, and wherein the scaling comprises scaling the random variables so that a sum of the compensation values and the reference values is located within a range between a maximum limit and a minimum limit of the reference values in the applying of the compensation values on the reference values.
Method for operating an elevator system which comprises at least an upper elevator car (DU) and a lower elevator car (LU) that are arranged in the same elevator shaft , characterized by the following steps: a1) operating the elevator system in a normal mode, in the normal mode, the lower elevator car (LU) being provided for the passengers who have indicated by means of a destination call (Z.1) that they want to reach the lowermost floor (13.1), b1) checking whether at least one trigger condition is satisfied, and if this is the case, then switching to a downward alternative mode in order to temporarily provide the upper elevator car (DU) for passengers who want to reach the lowermost floor (13.1), and transporting these passengers in the upper elevator car (DU) to a floor (13.2 to 13.n-1) above the lowermost floor (13.1) and/or a2) operating the elevator system in a normal mode, in the normal mode the upper elevator car (DU) being provided for the passengers who have indicated by means of a destination call (Z.n) that they want to reach the uppermost floor (13.n), b2) checking whether at least one trigger condition is satisfied, and if this is the case, then switching to an upward alternative mode in order to temporarily provide the lower elevator car (DU) for passengers who want to reach the uppermost floor (13.n), and transporting these passengers in the lower elevator car (LU) to a floor (13.2 to 13.n-1) below the uppermost floor (13.n). a1) operating the elevator system in a normal mode, in the normal mode, the lower elevator car (LU) being provided for the passengers who have indicated by means of a destination call (Z.1) that they want to reach the lowermost floor (13.1), b1) checking whether at least one trigger condition is satisfied, and if this is the case, then switching to a downward alternative mode in order to temporarily provide the upper elevator car (DU) for passengers who want to reach the lowermost floor (13.1), and transporting these passengers in the upper elevator car (DU) to a floor (13.2 to 13.n-1) above the lowermost floor (13.1) and/or a2) operating the elevator system in a normal mode, in the normal mode the upper elevator car (DU) being provided for the passengers who have indicated by means of a destination call (Z.n) that they want to reach the uppermost floor (13.n), b2) checking whether at least one trigger condition is satisfied, and if this is the case, then switching to an upward alternative mode in order to temporarily provide the lower elevator car (DU) for passengers who want to reach the uppermost floor (13.n), and transporting these passengers in the lower elevator car (LU) to a floor (13.2 to 13.n-1) below the uppermost floor (13.n).
A device for the handling and/or manipulation of articles, groupings, packs, piece goods, or the like, the device comprising: - an upper suspension , to which at least three separately driven positioning arms are articulately fastened, wherein each of the at least three positioning arms is formed by at least two arm sections that are swivelable relative to one another, and wherein the at least three positioning arms can be operated independently of one another, - a manipulator , which comprises one or more means for the gripping of the articles, groupings, packs, or piece goods and which is mechanically coupled with the at least three positioning arms such that a position of the manipulator can be specified by a movement of one or more of the at least three positioning arms , wherein the upper suspension , together with the fastenings of the at least three positioning arms , is vertically adjustable and/or bringable into an angular position in relation to a vertical, characterised in that - the upper suspension is mounted in vertically adjustable linear guides in a frame and - the linear guides are each formed by spindle drives or linear drives, with which the upper suspension is mounted in the frame in a height-adjustable manner. - an upper suspension , to which at least three separately driven positioning arms are articulately fastened, wherein each of the at least three positioning arms is formed by at least two arm sections that are swivelable relative to one another, and wherein the at least three positioning arms can be operated independently of one another, - a manipulator , which comprises one or more means for the gripping of the articles, groupings, packs, or piece goods and which is mechanically coupled with the at least three positioning arms such that a position of the manipulator can be specified by a movement of one or more of the at least three positioning arms , - the upper suspension is mounted in vertically adjustable linear guides in a frame and - the linear guides are each formed by spindle drives or linear drives, with which the upper suspension is mounted in the frame in a height-adjustable manner.
A compressor comprising a piston structure, which comprises a guide member configured to reciprocate inside a cylinder in an axial direction, and a magnet frame configured to support a mover that moves together with the piston structure, wherein the piston structure comprises the guide member and a mount member connected to the magnet frame , and the guide member is coupled to be relatively rotatable with respect to the mount member , wherein the piston structure further comprises a rotational coupling member rotatably coupling the guide member to the mount member , characterized in that the rotational coupling member includes a support portion supported inside the guide member and a shaft member coupled to the support portion , and in that the shaft member is disposed to cross an inner space of the guide member and pass through a center of mass of the guide member . wherein the piston structure comprises the guide member and a mount member connected to the magnet frame , and the guide member is coupled to be relatively rotatable with respect to the mount member , wherein the piston structure further comprises a rotational coupling member rotatably coupling the guide member to the mount member , characterized in that the rotational coupling member includes a support portion supported inside the guide member and a shaft member coupled to the support portion , and in that the shaft member is disposed to cross an inner space of the guide member and pass through a center of mass of the guide member .
A biomimetic nanocluster comprising a cell membrane structure comprising a first cell membrane component; and a core structure comprising a plurality of unimolecular core-shell nanoparticles, wherein each unimolecular core-shell nanoparticle comprises a functionalized polymer, wherein the functionalized polymer comprises a core-forming segment and a shell-forming segment, wherein the functionalized polymer is PAMAM-PVL-COOH, and a first pharmaceutical agent, wherein the first pharmaceutical agent is attached to the core-forming polymer, the shell-forming polymer, or both the core-forming polymer and the shell-forming polymer, wherein the first pharmaceutical agent is a bromo and extraterminal (BET) protein inhibitor. a cell membrane structure comprising a first cell membrane component; and a core structure comprising a plurality of unimolecular core-shell nanoparticles, wherein each unimolecular core-shell nanoparticle comprises a functionalized polymer, wherein the functionalized polymer comprises a core-forming segment and a shell-forming segment, wherein the functionalized polymer is PAMAM-PVL-COOH, and a first pharmaceutical agent, wherein the first pharmaceutical agent is attached to the core-forming polymer, the shell-forming polymer, or both the core-forming polymer and the shell-forming polymer, wherein the first pharmaceutical agent is a bromo and extraterminal (BET) protein inhibitor.
A radio resource configuration method, comprising: sending, by a base station, a downlink system bandwidth of one carrier in a broadcast message, wherein the downlink system bandwidth of the one carrier is a bandwidth used for establishing a connection between a user equipment, UE, and the base station; determining , by the base station for the UE, resource configuration of the one carrier used for communication between the UE and the base station, wherein the resource configuration comprises a downlink resource allocation bandwidth, and the downlink resource allocation bandwidth is a bandwidth used to generate resource block allocation information of a physical data channel, PDSCH, when a logical channel carried by the PDSCH is a non-common logical channel, and the resource block allocation information is included in downlink control information; and sending , by the base station to the UE by using a radio resource control, RRC, reconfiguration message, the resource configuration of the one carrier; wherein a value of the downlink resource allocation bandwidth is independent from a value of the downlink system bandwidth, and when a logical channel carried by the PDSCH is a common logical channel, the bandwidth used to generate the resource block allocation information of the PDSCH is the downlink system bandwidth. sending, by a base station, a downlink system bandwidth of one carrier in a broadcast message, wherein the downlink system bandwidth of the one carrier is a bandwidth used for establishing a connection between a user equipment, UE, and the base station; determining , by the base station for the UE, resource configuration of the one carrier used for communication between the UE and the base station, wherein the resource configuration comprises a downlink resource allocation bandwidth, and the downlink resource allocation bandwidth is a bandwidth used to generate resource block allocation information of a physical data channel, PDSCH, when a logical channel carried by the PDSCH is a non-common logical channel, and the resource block allocation information is included in downlink control information; and sending , by the base station to the UE by using a radio resource control, RRC, reconfiguration message, the resource configuration of the one carrier; wherein a value of the downlink resource allocation bandwidth is independent from a value of the downlink system bandwidth, and when a logical channel carried by the PDSCH is a common logical channel, the bandwidth used to generate the resource block allocation information of the PDSCH is the downlink system bandwidth.