mhurhangee/patent-ind-claim-en huggingface dataset:
A packaging system for a multi-component product preparation, comprising - a first container for holding a first product preparation component, - a second container for holding at least one second product preparation component, and - a closure element which sealingly closes the first container with respect to the surroundings and comprises a coupling device in order to couple the second container to the closure element and to establish a fluid connection between the first container and the second container , the closure element comprising a closure cap , the closure cap being blocked in a direction of rotation about an axis (L) of the closure element and being couplable to the second container so as to be able to slide in a direction parallel to the axis (L), characterized in that the closure cap can be separated from the closure element along a predetermined breaking point in order to release the fluid connection between the first container and the second container . - a first container for holding a first product preparation component, - a second container for holding at least one second product preparation component, and - a closure element which sealingly closes the first container with respect to the surroundings and comprises a coupling device in order to couple the second container to the closure element and to establish a fluid connection between the first container and the second container , the closure element comprising a closure cap , the closure cap being blocked in a direction of rotation about an axis (L) of the closure element and being couplable to the second container so as to be able to slide in a direction parallel to the axis (L), characterized in that the closure cap can be separated from the closure element along a predetermined breaking point in order to release the fluid connection between the first container and the second container .
A motor control system , comprising: a motor ; and a motor controller configured to control driving electric power for a motor comprising a plurality of safety function units configured to function simultaneously with each other, each of the plurality of safety function units being configured to, upon input of a safety request signal indicating whether to decelerate and/or stop the motor , monitor a relationship between a driving state quantity and an operation monitor pattern selected from a plurality of kinds of operation monitor patterns; wherein each of the plurality of safety function units is configured to select an input source of the safety request signal; and characterized in that each of the plurality of safety function units is configured to select another safety function unit as the input source and configured to receive, as the safety request signal, a monitor result obtained by the another safety function unit. a motor ; and a motor controller configured to control driving electric power for a motor comprising a plurality of safety function units configured to function simultaneously with each other, each of the plurality of safety function units being configured to, upon input of a safety request signal indicating whether to decelerate and/or stop the motor , monitor a relationship between a driving state quantity and an operation monitor pattern selected from a plurality of kinds of operation monitor patterns; wherein each of the plurality of safety function units is configured to select an input source of the safety request signal; and characterized in that each of the plurality of safety function units is configured to select another safety function unit as the input source and configured to receive, as the safety request signal, a monitor result obtained by the another safety function unit.
A theater ride system , comprising: a processor ; a center platform ; a plurality of actuator arms ; a plurality of maneuverable seating areas , wherein each maneuverable seating area of at least a first subset of the plurality of maneuverable seating areas is coupled to a respective portion of the center platform via a respective actuator arm of the plurality of actuator arms ; wherein the processor is configured to control the plurality of actuator arms to: position the plurality of maneuverable seating areas in a uniform theater configuration such that each of the plurality of maneuverable seating areas is adjacent to at least one other of the plurality of maneuverable seating areas and the center platform to resemble stationary seating sections of a theater at a beginning of a show; move the plurality of maneuverable seating areas into different configurations during the show; and position the plurality of maneuverable seating areas in the uniform theater configuration near an end of the show, wherein the plurality of actuator arms are controlled by the processor to move the plurality of maneuverable seating areas : horizontally with respect to the center platform ; and one or more of vertically or radially with respect to the center platform . a processor ; a center platform ; a plurality of actuator arms ; a plurality of maneuverable seating areas , wherein each maneuverable seating area of at least a first subset of the plurality of maneuverable seating areas is coupled to a respective portion of the center platform via a respective actuator arm of the plurality of actuator arms ; wherein the processor is configured to control the plurality of actuator arms to: position the plurality of maneuverable seating areas in a uniform theater configuration such that each of the plurality of maneuverable seating areas is adjacent to at least one other of the plurality of maneuverable seating areas and the center platform to resemble stationary seating sections of a theater at a beginning of a show; move the plurality of maneuverable seating areas into different configurations during the show; and position the plurality of maneuverable seating areas in the uniform theater configuration near an end of the show, position the plurality of maneuverable seating areas in a uniform theater configuration such that each of the plurality of maneuverable seating areas is adjacent to at least one other of the plurality of maneuverable seating areas and the center platform to resemble stationary seating sections of a theater at a beginning of a show; move the plurality of maneuverable seating areas into different configurations during the show; and position the plurality of maneuverable seating areas in the uniform theater configuration near an end of the show, wherein the plurality of actuator arms are controlled by the processor to move the plurality of maneuverable seating areas : horizontally with respect to the center platform ; and one or more of vertically or radially with respect to the center platform . horizontally with respect to the center platform ; and one or more of vertically or radially with respect to the center platform .
Sodium 1-((6-bromoquinolin-4-yl)thio)cyclobutane-1-carboxylate of formula (I),
Sliding door having at least one panel displaceable in x direction relative to an opening and which is suspended on a carriage , wherein the carriage for guiding the panel rolls using several rollers (4a, b, c, d) on a guide rail located above the opening , and at least three runner segments in the guide rail in order to influence the movement of the rollers and hence also of the panel of the sliding door in y direction and z direction and to achieve required deflection or lowering of the sliding door in a defined region, whereby the rollers (4a, b, c, d) rolling on the guide rail are deflected for the transverse displacement and longitudinal displacement of the displaceable panel relative to the opening , wherein at least two rollers (4 a, b, d) are in contact with the guide rail and at least one further roller during the opening movement or closing movement due to the rigid suspension on the carriage rolls over individual runner segments and is located without contact above one of the runner segments, wherein in the closed position of the sliding door , the rollers (4a, b, c) are located in the associated runner segments (9a, b, c), characterised in that for floor-side guiding of the panel parallel to the opening , a lower guide groove is arranged on the underside of the panel , with a runner arranged on the end region of the guide groove , with a profile shape deviating from the guide groove , and at least one pin which is attached on the floor side in the direction of running of the panel and engages in the lower guide groove and during displacement of the panel and engagement with the runner , the sliding door deflects from its straight movement direction in y direction, and in that the runner is arranged opposite one of the runner segments , and in that the offset of lowering of the panel in z direction can be balanced by the correspondingly high guide groove which on reaching the maximum lowered position of the panel also leaves enough space for the movement of the pin in the guide groove.
A method of controlling data flow by a centralized unit-control plane, CU-CP, of a gNodeB, the method comprising: determining a mapping of a quality of service, QoS, flow to a data radio bearer, DRB; transmitting (7-105), to a centralized unit-user plane, CU-UP, connected to the CU-CP through an E1 interface, a bearer context configuration message including information of the determined mapping of the QoS flow to the DRB; wherein the information of the determined mapping of the QoS flow and the DRB includes service adaptation protocol, SDAP, configuration information of the DRB and a packet convergence protocol, PDCP, configuration information of the DRB; and, receiving (7-106), from the CU-UP through the E1 interface, a response to the bearer context configuration message, determining a mapping of a quality of service, QoS, flow to a data radio bearer, DRB; transmitting (7-105), to a centralized unit-user plane, CU-UP, connected to the CU-CP through an E1 interface, a bearer context configuration message including information of the determined mapping of the QoS flow to the DRB; wherein the information of the determined mapping of the QoS flow and the DRB includes service adaptation protocol, SDAP, configuration information of the DRB and a packet convergence protocol, PDCP, configuration information of the DRB; and, receiving (7-106), from the CU-UP through the E1 interface, a response to the bearer context configuration message,
A hydrophilic substrate, comprising on its surface a hydrophilic polymer layer formed of a hydrophilic polymer having a number average molecular weight of 40,000 or more, wherein the hydrophilic substrate is obtained by surface coating with a solution of the hydrophilic polymer, and wherein the hydrophilic polymer layer is formed of at least one hydrophilic polymer selected from the group consisting of polymers represented by the following formula (I) : wherein R 1 represents a hydrogen atom or a methyl group, R 2 represents an alkyl group, m represents 1 to 5, and n represents the number of repetitions.
A method for sterilizing a liquid peptide composition characterized in that the composition has an initial storage modulus within the range of 300 to 5,000 Pa at 1 rad/sec of frequency and 1 Pa of oscillation stress as measured with 20mm plates, the method comprising the steps of: subjecting the liquid peptide composition to high shear stress within a range of 30 to 200 Pa so that the storage modulus of the composition is temporarily reduced to a level within a range of 0.01% to 80% of the initial storage modulus; and subjecting the composition to sterilizing filtration while its viscosity is at the reduced level, wherein the peptide composition is in aqueous solution and comprises a peptide at a concentration range of 1% to 2.5% having the amino acid sequence selected from: Arg-Ala-Asp-Ala-Arg-Ala-Asp-Ala-Arg-Ala-Asp-Ala-Arg-Ala-Asp-Ala (RADA16); Ile-Glu-Ile-Lys-Ile-Glu-Ile-Lys-Ile-Glu-Ile-Lys-Ile (IEIK13); and Lys-Leu-Asp-Leu-Lys-Leu-Asp-Leu-Lys-Leu-Asp-Leu (KLD12), wherein the step of subjecting the composition to high shear stress utilizes at least one shear-thinning unit selected from: a needle, a screen with micro- or nano-sized holes and a membrane with micro- or nano-sized pores. subjecting the liquid peptide composition to high shear stress within a range of 30 to 200 Pa so that the storage modulus of the composition is temporarily reduced to a level within a range of 0.01% to 80% of the initial storage modulus; and subjecting the composition to sterilizing filtration while its viscosity is at the reduced level, wherein the peptide composition is in aqueous solution and comprises a peptide at a concentration range of 1% to 2.5% having the amino acid sequence selected from: Arg-Ala-Asp-Ala-Arg-Ala-Asp-Ala-Arg-Ala-Asp-Ala-Arg-Ala-Asp-Ala (RADA16); Ile-Glu-Ile-Lys-Ile-Glu-Ile-Lys-Ile-Glu-Ile-Lys-Ile (IEIK13); and Lys-Leu-Asp-Leu-Lys-Leu-Asp-Leu-Lys-Leu-Asp-Leu (KLD12), wherein the step of subjecting the composition to high shear stress utilizes at least one shear-thinning unit selected from: a needle, a screen with micro- or nano-sized holes and a membrane with micro- or nano-sized pores.
Method for optimized working with a machine tool, wherein the machine tool is pressed onto a substrate by a user with a contact pressure p(t) at a time t during its operation, comprising the following steps: S1) indirectly determining the contact pressure p(t) using a power consumption of the machine tool, S2) adding the indirectly determined values for the contact pressure p(t), wherein the data and values from a day counter are used to determine the contact pressure p(t), which day counter respectively records different operating parameters of the machine tool for a working day, and wherein it is possible to determine which operating period should be considered, S3) comparing the added contact pressure values p ad (t) with a normal distribution, wherein the normal distribution is determined by means of comparative measurements on a multiplicity of comparable devices, S4) determining a recommendation for a contact pressure p(t) to be applied, S5) displaying the added contact pressure values p ad (t) and the recommendation for the contact pressure p(t) to be applied. S1) indirectly determining the contact pressure p(t) using a power consumption of the machine tool, S2) adding the indirectly determined values for the contact pressure p(t), wherein the data and values from a day counter are used to determine the contact pressure p(t), which day counter respectively records different operating parameters of the machine tool for a working day, and wherein it is possible to determine which operating period should be considered, S3) comparing the added contact pressure values p ad (t) with a normal distribution, wherein the normal distribution is determined by means of comparative measurements on a multiplicity of comparable devices, S4) determining a recommendation for a contact pressure p(t) to be applied, S5) displaying the added contact pressure values p ad (t) and the recommendation for the contact pressure p(t) to be applied.
A controller for an energy plant comprising a plurality of heat, ventilation and air conditioning, HVAC, devices, the controller comprising: - a processing circuit comprising a processor and memory storing instructions executed by the processor , the processing circuit configured to: - determine schematic relationships of a plurality of the HVAC devices of the energy plant based on connections of the plurality of HVAC devices, each HVAC device configured to operate according to a corresponding operating parameter, by: - removing a first HVAC device of the plurality of HVAC devices; - detecting a stranded node after removing the first HVAC device; and - determining one or more second HVAC devices coupled to the stranded node to be schematically dependent on the first HVAC device; - determine a reduced subset of the plurality of HVAC devices based on the schematic relationships; - predict thermodynamic states of the reduced subset; - determine a set of operating parameters of the plurality of HVAC devices based on the predicted thermodynamic states; and - operate the plurality of HVAC devices according to the set of operating parameters. - a processing circuit comprising a processor and memory storing instructions executed by the processor , the processing circuit configured to: - determine schematic relationships of a plurality of the HVAC devices of the energy plant based on connections of the plurality of HVAC devices, each HVAC device configured to operate according to a corresponding operating parameter, by: - removing a first HVAC device of the plurality of HVAC devices; - detecting a stranded node after removing the first HVAC device; and - determining one or more second HVAC devices coupled to the stranded node to be schematically dependent on the first HVAC device; - determine schematic relationships of a plurality of the HVAC devices of the energy plant based on connections of the plurality of HVAC devices, each HVAC device configured to operate according to a corresponding operating parameter, by: - removing a first HVAC device of the plurality of HVAC devices; - detecting a stranded node after removing the first HVAC device; and - determining one or more second HVAC devices coupled to the stranded node to be schematically dependent on the first HVAC device; - removing a first HVAC device of the plurality of HVAC devices; - detecting a stranded node after removing the first HVAC device; and - determining one or more second HVAC devices coupled to the stranded node to be schematically dependent on the first HVAC device; - determine a reduced subset of the plurality of HVAC devices based on the schematic relationships; - predict thermodynamic states of the reduced subset; - determine a set of operating parameters of the plurality of HVAC devices based on the predicted thermodynamic states; and - operate the plurality of HVAC devices according to the set of operating parameters.
Use of ash to alkalise an aqueous system, wherein the aqueous system is selected from a group consisting of industrial, communal and domestic wastewater, wherein the wastewater is stabilised at a pH > 7 by the addition of 0.001 to 1 wt.% ash, relative to the wastewater.
Method for controlling the velocity of movement or the position of a driven element of an ultrasonic motor (M) from a first adjustment state which is defined by at least one of a starting velocity or a starting position of the driven element into a second adjustment state which is defined by one or both of an end velocity of the driven element or an end position of the driven element , the ultrasonic motor (M) comprising an ultrasonic actuator with at least one first and a second acoustic wave generator , wherein one of the generators or both generators are subjected to an electrical excitation voltage, the method comprising the steps of: - starting from the first adjustment state of the driven element adjusting the frequency fu of the electrical excitation voltage such that it is equal to or close to a mechanical resonance frequency frm of the ultrasonic actuator ; - changing the frequency fu of the electrical excitation voltage using a signal of at least one of a velocity sensor or a position sensor towards an anti-resonance frequency fa of the ultrasonic actuator until the second adjustment state is reached; - controlling the end velocity or the end position of the driven element with a predetermined accuracy by means of an antiphase frequency change. - starting from the first adjustment state of the driven element adjusting the frequency fu of the electrical excitation voltage such that it is equal to or close to a mechanical resonance frequency frm of the ultrasonic actuator ; - changing the frequency fu of the electrical excitation voltage using a signal of at least one of a velocity sensor or a position sensor towards an anti-resonance frequency fa of the ultrasonic actuator until the second adjustment state is reached; - controlling the end velocity or the end position of the driven element with a predetermined accuracy by means of an antiphase frequency change.
A computing device shared among a plurality of users for enabling global sign-out comprising a plurality of mobile applications, including a first application; a memory connected to at least one processor , the device being characterized in that the at least one processor is configured to change the behavior of the first application on the shared device by: determining by heuristics that an alternate behavior of a sign-out mechanism of the first application is desired; in response to positive determining, replacing a sign-out link of the first application with a global sign-out link; and in response to a selection of the global sign-out link, signing out a user from all mobile applications into which the user is signed in. determining by heuristics that an alternate behavior of a sign-out mechanism of the first application is desired; in response to positive determining, replacing a sign-out link of the first application with a global sign-out link; and in response to a selection of the global sign-out link, signing out a user from all mobile applications into which the user is signed in.
A transistor (10; 50; 60), comprising: an active region having a channel; source and drain electrodes in contact with said active region; a gate between said source and drain electrodes and directly on said active region; a plurality of spacer layers; a plurality of field plates, the first of said spacer layers on said gate and on the entire part of the surface of said active region between said gate and said drain and source electrodes , the first of said field plates on said first of said spacer layers , and the remaining of said spacer layers and field plates arranged alternately over said first of said spacer layers and said first of said field plates , the topmost of said field plates electrically connected to said source electrode and each of said field plates below said topmost of said field plates electrically connected to said gate or said source electrode , wherein said first of said field plates is separated laterally from said gate by said first spacer layer such that said first field plate is isolated from and does not overlap said gate, and wherein said topmost of said field plates extends over said gate and on either side of said gate toward said source and said drain electrodes . an active region having a channel; source and drain electrodes in contact with said active region; a gate between said source and drain electrodes and directly on said active region; a plurality of spacer layers; a plurality of field plates, the first of said spacer layers on said gate and on the entire part of the surface of said active region between said gate and said drain and source electrodes , the first of said field plates on said first of said spacer layers , and the remaining of said spacer layers and field plates arranged alternately over said first of said spacer layers and said first of said field plates , the topmost of said field plates electrically connected to said source electrode and each of said field plates below said topmost of said field plates electrically connected to said gate or said source electrode , wherein said first of said field plates is separated laterally from said gate by said first spacer layer such that said first field plate is isolated from and does not overlap said gate, and wherein said topmost of said field plates extends over said gate and on either side of said gate toward said source and said drain electrodes .