mhurhangee/ep-ind-claims huggingface dataset:
A service providing device (11, 21, 23, 24) comprising: a communicator (111, 211, 231, 241) configured to perform communication via a network; a service provider (112, 212, 232, 242) configured to provide a service via the communicator (111, 211, 231, 241) by exclusively assigning first identification information to one of the service providing device (11, 21, 23, 24) and an alternative service providing device (12, 22, 25) which provides the service instead of the service providing device (11, 21, 23, 24); and a heartbeat transmitter (113, 216, 236, 246) configured to transmit heartbeat information for notifying that the service is normal to the alternative service providing device (12, 22, 25) via a relaying device by using second identification information which is different from the first identification information, wherein if an abnormality occurs in a resource of the service providing device (11, 21, 23, 24), the alternative service providing device (12, 22, 25) changes from a standby state to an active state, and provides the service instead of the service providing device (11, 21, 23, 24), the first identification information assigned to the service providing device (11, 21, 23, 24) is the same as the first identification information assigned to the alternative service providing device (12, 22, 25), and the second identification information assigned to the service providing device (11, 21, 23, 24) is different from the second identification information assigned to the alternative service providing device (12, 22, 25). a communicator (111, 211, 231, 241) configured to perform communication via a network; a service provider (112, 212, 232, 242) configured to provide a service via the communicator (111, 211, 231, 241) by exclusively assigning first identification information to one of the service providing device (11, 21, 23, 24) and an alternative service providing device (12, 22, 25) which provides the service instead of the service providing device (11, 21, 23, 24); and a heartbeat transmitter (113, 216, 236, 246) configured to transmit heartbeat information for notifying that the service is normal to the alternative service providing device (12, 22, 25) via a relaying device by using second identification information which is different from the first identification information, wherein
Cooler for cooling hot bulk material, comprising: - a grate surface for accommodating the hot bulk material for treatment, - a first cooler wall and a second cooler wall which delimit the grate surface to the right and to the left, - a feeding-in point for the hot bulk material, - a first region which takes up between 20% and 30% of the grate surface, wherein the first region comprises the feeding-in point, and the first region has a positionally fixed first cover, - a second region which is upwardly open and which is situated between the first region and a third region, - an extraction point for the cooled bulk material, - the third region, which extends over at least 10% to 20% of the grate surface, wherein the third region comprises the extraction point and has a positionally fixed third cover, characterized in that the second region has a delimitation composed of a positionally fixed first wall and of a positionally fixed second wall, and said delimitation extends at least over a partial section of the second region, preferably over the entire second region, wherein the first wall and the second wall are suspended on a supporting structure, and the first wall lies on the first cooler wall or is separated from said first cooler wall by a gap, and the second wall lies on the second cooler wall or is separated from said second cooler wall by a gap, wherein the delimitation additionally has a perforated plate which is situated between the first wall and the second wall. - a grate surface for accommodating the hot bulk material for treatment, - a first cooler wall and a second cooler wall which delimit the grate surface to the right and to the left, - a feeding-in point for the hot bulk material, - a first region which takes up between 20% and 30% of the grate surface, wherein the first region comprises the feeding-in point, and the first region has a positionally fixed first cover, - a second region which is upwardly open and which is situated between the first region and a third region, - an extraction point for the cooled bulk material, - the third region, which extends over at least 10% to 20% of the grate surface, wherein the third region comprises the extraction point and has a positionally fixed third cover,
A method at an electronic device configured to couple to a first removable security module, the method comprising: detecting coupling of the first security module to the electronic device; sending a challenge to the first security module; receiving a response from the first security module; checking whether the response is valid at the electronic device; and providing a signal based on a result of the checking, wherein the electronic device is pairable only with a defined number of security modules for each security module type at one time, said security modules being configured to provide a valid response at the electronic device. detecting coupling of the first security module to the electronic device; sending a challenge to the first security module; receiving a response from the first security module; checking whether the response is valid at the electronic device; and providing a signal based on a result of the checking, wherein the electronic device is pairable only with a defined number of security modules for each security module type at one time, said security modules being configured to provide a valid response at the electronic device.
An automatic card shuffler, comprising: a card input mechanism for inputting cards into the automatic card shuffler; a card storage device for receiving cards from the card input mechanism and temporarily storing cards within the automatic card shuffler; and a card output mechanism for outputting shuffled cards from the automatic card shuffler; wherein the card storage device comprises a movable rack configured to move vertically within the automatic card shuffler, the movable rack comprising a plurality of card storage compartments, each card storage compartment sized and configured to hold one or more cards therein; and wherein the card output mechanism comprises a movable ejector configured to simultaneously eject cards out from two or more card storage compartments of the movable rack. a card input mechanism for inputting cards into the automatic card shuffler; a card storage device for receiving cards from the card input mechanism and temporarily storing cards within the automatic card shuffler; and a card output mechanism for outputting shuffled cards from the automatic card shuffler; wherein the card storage device comprises a movable rack configured to move vertically within the automatic card shuffler, the movable rack comprising a plurality of card storage compartments, each card storage compartment sized and configured to hold one or more cards therein; and wherein the card output mechanism comprises a movable ejector configured to simultaneously eject cards out from two or more card storage compartments of the movable rack.
System for vertical farming, comprising at least one plant containment device, at least one light source and a frame with at least one rail extending horizontally from a back wall of the frame, wherein the at least one plant containment device comprises a plant holding compartment to hold at least one plant and an irrigation channel, wherein the at least one light source is arranged on a bottom side of the at least one rail, wherein a top side of the rail is shaped complementary to a bottom side of the plant containment device, wherein the plant containment device is configured to be arranged on the top side of the rail without fixing it to the rail, wherein the plant growing system is configured to control the temperature of the air surrounding the plant containment device by regulating the temperature of a liquid working medium circulated through the irrigation channel, characterised in that the at least one rail is shaped as a beam extending horizontally from the back wall of the frame in a direction parallel to a flowing direction of a liquid working medium inside the irrigation channel, wherein one side of the plant containment device comprises a outwardly protruding, downwardly sloped connection port for the irrigation channel, wherein a side wall of the frame comprises a corresponding drain in the shape of a hole, wherein the connection port is shaped and configured to create a watertight connection with the drain when pushed into the drain.
Process for synthesis of a compound according to Formula A: wherein R 1 is a substituted or unsubstituted aryl having 6 to 20 carbon atoms; preferably substituted or unsubstituted phenyl; R 2 is a straight or branched alkyl having 1 to 12 carbon atoms; and R 3 is a straight or branched alkyl having 1 to 12 carbon atoms; starting from a di-keto compound according to Formula B wherein R 3 is as shown above, which compound is converted into a ketoenamine compound according to Formula C wherein R 2 and R 3 are as shown above, which ketoenamine compound is then reduced to an amino alcohol according to Formula D, wherein R 2 and R 3 are as shown above, that is converted into a compound according to Formula A: characterized in that the ketoenamine is reduced into an amino alcohol using a nickel aluminium alloy in an aqueous solution of an inorganic base.
A load driving device driving a load, comprising: an output transistor connected between a power supply line and an output terminal, the output terminal being connected with a first ground line via the load; a control circuit connected between a gate of the output transistor and a second ground line, the control circuit controlling turning on/off of the output transistor; and a compensation transistor that turns on when the output transistor is in the off state and when a potential of the second ground line assumes a predetermined value or higher, to maintain an off state of the output transistor by short circuiting the second ground line with the output terminal, characterized in that the control circuit further comprises: a back gate control circuit (15, 18) that supplies a ground potential to a back gate of the compensation transistor when the potential of the second ground line is the ground potential, and supplies a potential at the output terminal to the back gate of the compensation transistor when the potential of the second ground line assumes the predetermined value or higher. an output transistor connected between a power supply line and an output terminal, the output terminal being connected with a first ground line via the load; a control circuit connected between a gate of the output transistor and a second ground line, the control circuit controlling turning on/off of the output transistor; and a compensation transistor that turns on when the output transistor is in the off state and when a potential of the second ground line assumes a predetermined value or higher, to maintain an off state of the output transistor by short circuiting the second ground line with the output terminal, characterized in that the control circuit further comprises: a back gate control circuit (15, 18) that supplies a ground potential to a back gate of the compensation transistor when the potential of the second ground line is the ground potential, and supplies a potential at the output terminal to the back gate of the compensation transistor when the potential of the second ground line assumes the predetermined value or higher. a back gate control circuit (15, 18) that supplies a ground potential to a back gate of the compensation transistor when the potential of the second ground line is the ground potential, and supplies a potential at the output terminal to the back gate of the compensation transistor when the potential of the second ground line assumes the predetermined value or higher.
An operating unit for a vehicle, comprising - a housing, - an operating element elastically mounted in or on the housing, - wherein the elastically mounted operating element forms a spring-mass system having a construction-related resonance frequency, - an actuator for pulse-shaped mechanical excitation of the operating element, and - a control unit for controlling the actuator when manually actuating the operating element, - wherein the resonance frequency is, due to construction, above the highest cut-off frequency that can typically still be detected by receptors for haptic feedback and/or for tactile sensation of a person, characterized in that - the frequency spectrum of the mechanical pulse at the resonance frequency excited by the actuator has no frequency components in that the power density spectrum of the mechanical pulse above the cut-off frequency is energy-free. - a housing, - an operating element elastically mounted in or on the housing, - wherein the elastically mounted operating element forms a spring-mass system having a construction-related resonance frequency, - an actuator for pulse-shaped mechanical excitation of the operating element, and - a control unit for controlling the actuator when manually actuating the operating element, - wherein the resonance frequency is, due to construction, above the highest cut-off frequency that can typically still be detected by receptors for haptic feedback and/or for tactile sensation of a person, - the frequency spectrum of the mechanical pulse at the resonance frequency excited by the actuator has no frequency components in that the power density spectrum of the mechanical pulse above the cut-off frequency is energy-free.
A magazine for surgical apparatus comprising plurality of chambers adapted to each store a medical intervention, each of the plurality of chambers comprising an inlet access port and an outlet access port; characterised in that the magazine further comprises a plurality of modules configured to be removable from the magazine wherein each module includes a chamber therein.
A method for a network node to configure Physical Uplink Control Channel, PUCCH, resources usable in communication with a user equipment, UE, in a wireless communication network, the method comprising: sending, to the UE, one or more control messages comprising: configuration of a plurality of PUCCH resources; and identification of a plurality of spatial relations for PUCCH resources, the plurality of spatial relations being associated with one or more reference signals, RS, transmitted by the network node or by the UE; and sending, to the UE, a further control message comprising: identification of a first spatial relation of the plurality of spatial relations; and an indication of whether the first spatial relation applies to: a single PUCCH resource of the configured PUCCH resources; or a group of PUCCH resources of the configured PUCCH resources. sending, to the UE, one or more control messages comprising: configuration of a plurality of PUCCH resources; and identification of a plurality of spatial relations for PUCCH resources, the plurality of spatial relations being associated with one or more reference signals, RS, transmitted by the network node or by the UE; and configuration of a plurality of PUCCH resources; and identification of a plurality of spatial relations for PUCCH resources, the plurality of spatial relations being associated with one or more reference signals, RS, transmitted by the network node or by the UE; and sending, to the UE, a further control message comprising: identification of a first spatial relation of the plurality of spatial relations; and an indication of whether the first spatial relation applies to: a single PUCCH resource of the configured PUCCH resources; or a group of PUCCH resources of the configured PUCCH resources. identification of a first spatial relation of the plurality of spatial relations; and an indication of whether the first spatial relation applies to: a single PUCCH resource of the configured PUCCH resources; or a group of PUCCH resources of the configured PUCCH resources. a single PUCCH resource of the configured PUCCH resources; or a group of PUCCH resources of the configured PUCCH resources.
An accumulator for storing fluid, comprising: a shell that defines an interior volume, the shell including at least one port (25a,25b) for providing fluid to a fluid system; an accumulator shaft disposed in the interior volume and extending at least partially across the interior volume from a first interior surface of the shell along a longitudinal axis (A-A) of the shell; and a piston-plate disposed in the interior volume such that the piston-plate and a second interior surface of the shell define a chamber in the interior volume, the chamber to be in fluid communication with the fluid system via the at least one port (25a,25b); a motor coupled to the piston-plate and having a shaft that interfaces to the accumulator shaft, wherein a rotational movement of the motor translates to a linear movement of the piston-plate along the accumulator shaft such that a volume of the chamber varies based on a position of the piston-plate along the accumulator shaft, a decreasing chamber volume to inject fluid into the system via the at least one port (25a,25b) and an increasing chamber volume to receive fluid from the system via the at least one port (25a,25b) for storage in the chamber, characterised in that: the motor has an outer radial surface that interfaces to an interior surface of the shell, and in that the motor is an outer-rotor type motor and the interface between the interior surface of the shell and the outer radial surface of the motor is a threaded surface. a shell that defines an interior volume, the shell including at least one port (25a,25b) for providing fluid to a fluid system; an accumulator shaft disposed in the interior volume and extending at least partially across the interior volume from a first interior surface of the shell along a longitudinal axis (A-A) of the shell; and a piston-plate disposed in the interior volume such that the piston-plate and a second interior surface of the shell define a chamber in the interior volume, the chamber to be in fluid communication with the fluid system via the at least one port (25a,25b); a motor coupled to the piston-plate and having a shaft that interfaces to the accumulator shaft, wherein a rotational movement of the motor translates to a linear movement of the piston-plate along the accumulator shaft such that a volume of the chamber varies based on a position of the piston-plate along the accumulator shaft, a decreasing chamber volume to inject fluid into the system via the at least one port (25a,25b) and an increasing chamber volume to receive fluid from the system via the at least one port (25a,25b) for storage in the chamber, characterised in that: the motor has an outer radial surface that interfaces to an interior surface of the shell, and in that the motor is an outer-rotor type motor and the interface between the interior surface of the shell and the outer radial surface of the motor is a threaded surface.
Procedure for trimming a tube - particularly made of metal and/or serving as the measuring tube of a vibronic-type transducer, with a tube wall particularly made of metal and/or at least partially circular cylindrical and with at least a reinforcement body, particularly made of metal and/or from a material which can be connected via a substance-to-substance connection to the material of the tube and/or platelet-shaped, fitted on the tube wall, particularly on an outer lateral surface of the tube wall and/or via a substance-to-substance connection - to a target bending stiffness, wherein the tube has an interim bending stiffness which is greater than the target bending stiffness, wherein said procedure comprises a step involving the removal of a partial volume of the reinforcement body to reduce the interim bending stiffness of the tube to the target bending stiffness.
A process for producing styrene monomers from styrene oligomers comprising the following steps: a) providing a composition comprising at least one type of styrene oligomer, wherein the composition comprises at least 15 wt.-%, based on the total weight of composition, of styrene dimers and/or styrene trimers; b) providing a depolymerization reactor with a reaction zone; c) feeding the composition into the reaction zone of the reactor; d) depolymerizing (at least a portion of) the at least one type of styrene oligomer in the reaction zone to obtain a composition, comprising styrene monomers; e) removing the composition from the reaction zone; and f) isolating (at least a portion of) the styrene monomers from the composition; wherein the temperature inside the reaction zone of the reactor is set to a value of above 500 °C to 670 °C; and wherein the average residence time (tA) of the composition in the reaction zone of the reactor is set to a value greater than 0.01 s but less than 60 s. a) providing a composition comprising at least one type of styrene oligomer, wherein the composition comprises at least 15 wt.-%, based on the total weight of composition, of styrene dimers and/or styrene trimers; b) providing a depolymerization reactor with a reaction zone; c) feeding the composition into the reaction zone of the reactor; d) depolymerizing (at least a portion of) the at least one type of styrene oligomer in the reaction zone to obtain a composition, comprising styrene monomers; e) removing the composition from the reaction zone; and f) isolating (at least a portion of) the styrene monomers from the composition; wherein the temperature inside the reaction zone of the reactor is set to a value of above 500 °C to 670 °C; and wherein the average residence time (tA) of the composition in the reaction zone of the reactor is set to a value greater than 0.01 s but less than 60 s.