mhurhangee/ep-ind-claims huggingface dataset:
Actuator for a vehicle transmission system comprising: - an electric machine comprising a rotor and a stator, the machine being designed such that the ratio between a representative magnitude of the electromagnetic torque exerted on the machine and a representative magnitude of the current flowing through the electrical circuit of the rotor involves a constant, being the torque constant of the electric machine, - a static converter comprising a plurality of switching cells, the static converter being arranged such as to electrically connect the electrical circuit of the rotor to a source of electrical energy, and - a control system for the switching cells of the static converter, said system being designed to apply a first control mode to the switching cells such that the torque constant of the electric machine adopts a first value, and to apply a second control mode to the switching cells such that the torque constant of the electric machine varies continuously within a second range of values. - an electric machine comprising a rotor and a stator, the machine being designed such that the ratio between a representative magnitude of the electromagnetic torque exerted on the machine and a representative magnitude of the current flowing through the electrical circuit of the rotor involves a constant, being the torque constant of the electric machine, - a static converter comprising a plurality of switching cells, the static converter being arranged such as to electrically connect the electrical circuit of the rotor to a source of electrical energy, and - a control system for the switching cells of the static converter, said system being designed to apply a first control mode to the switching cells such that the torque constant of the electric machine adopts a first value, and to apply a second control mode to the switching cells such that the torque constant of the electric machine varies continuously within a second range of values.
A mobile wireless communications device comprising: a portable housing; a printed circuit board, PCB, carried by said portable housing; at least one electronic component (33a-33n) carried by said PCB; an electrically conductive enclosure coupled to said PCB and having a top spaced above said PCB over said at least one electronic component; the top of said electrically conductive enclosure having a slot therein defining a slot antenna; and a tuning element carried by said electrically conductive enclosure and positioned over the slot, characterised in that said tuning element comprises a dielectric material body and a conductive material layer on said dielectric material body. a portable housing; a printed circuit board, PCB, carried by said portable housing; at least one electronic component (33a-33n) carried by said PCB; an electrically conductive enclosure coupled to said PCB and having a top spaced above said PCB over said at least one electronic component; the top of said electrically conductive enclosure having a slot therein defining a slot antenna; and a tuning element carried by said electrically conductive enclosure and positioned over the slot, characterised in that said tuning element comprises a dielectric material body and a conductive material layer on said dielectric material body.
A method for transmitting from one base station (110,114) to two remote stations during a single timeslot on a same carrier frequency, characterized by: generating a first signal having a first amplitude for a non-DARP enabled remote station; generating a second signal having a second amplitude for a DARP enabled remote station with the second amplitude being less than the first amplitude by at least first threshold, wherein the difference between the first amplitude and the second amplitude is less than a second thershold; generating a third signal by adding the first and second signals; and transmitting the third signal, wherein the threshold within the third signal defines a minimum power difference between a wanted signal and an unwanted signal for the non-DARP enabled remote station to receive the wanted signal and treat the unwanted signal as interference. generating a first signal having a first amplitude for a non-DARP enabled remote station; generating a second signal having a second amplitude for a DARP enabled remote station with the second amplitude being less than the first amplitude by at least first threshold, wherein the difference between the first amplitude and the second amplitude is less than a second thershold; generating a third signal by adding the first and second signals; and transmitting the third signal, wherein the threshold within the third signal defines a minimum power difference between a wanted signal and an unwanted signal for the non-DARP enabled remote station to receive the wanted signal and treat the unwanted signal as interference.
Mixing device for a heating unit to mix combustion gas and air in a defined mixture ratio, comprising a mixing nozzle, preferably a Venturi nozzle which contains a first air channel with a first gas supply and a second air channel with a second gas supply, through which air can be conducted which air can be transported by means of a fan with changeable rotational speed through the mixing nozzle and comprising a sealing means which comprises at least one flap, wherein the sealing means is designed such that during operation at low air mass flows, the flap seals, in a sealing position, the second air channel and/or the second gas supply, whereby the sealing means is designed such that the air speed in the second air channel in the region of the second gas supply is low in the transition region between low air mass flows and high air mass flows such that enrichment of the combustion gas air mixture does not occur, characterised in that the flap has openings through which air can flow in the sealing position of the flap or in proximity to the sealing position of the flap such that the flow speed in the region of the second gas supply is reduced.
Pipette head for a pipette device, in particular a pipette robot, with a pipette channel, to which a pipette tip, in particular a disposable pipette tip, can be coupled, wherein the pipette channel comprises a pressure generating device for producing pressure changes in the pipette tip for the aspirating or dispensing of sample fluid into the pipette tip or out of it respectively, and with at least one mechanical coupling means (72a, 72b, 72c) and at least one electrical coupling means (60a, 60b), which are arranged at the pipette head, and which are configured such as to be connected to a respective mechanical or electrical counter-coupling means (70a, 70b, 70c), wherein the at least one mechanical coupling means (72a, 72b, 72c) and the associated counter-coupling means (70a, 70b, 70c) are configured in such a way that the pipette head can be secured to the pipette device in a detachable manner and free of play, characterized in that the pipette head comprises a sealing actuation device, which is configured in such a way that a fluid-tight connection can be produced between a pipette tip and the pipette channel and/or released after the use of the pipette tip, wherein a drive means, which can be brought into work connection or is in work connection with the sealing actuation device, is not arranged at the pipette head, wherein the sealing actuation device of the pipette head and the drive means driving the sealing actuation device interact operationally in such a way that the fluid-tight connection between a pipette tip and the pipette channel is produced and/or can be detached after the use of the pipette tip. with at least one mechanical coupling means (72a, 72b, 72c) and at least one electrical coupling means (60a, 60b), which are arranged at the pipette head, and which are configured such as to be connected to a respective mechanical or electrical counter-coupling means (70a, 70b, 70c), wherein the at least one mechanical coupling means (72a, 72b, 72c) and the associated counter-coupling means (70a, 70b, 70c) are configured in such a way that the pipette head can be secured to the pipette device in a detachable manner and free of play, characterized in that the pipette head comprises a sealing actuation device, which is configured in such a way that a fluid-tight connection can be produced between a pipette tip and the pipette channel and/or released after the use of the pipette tip, wherein a drive means, which can be brought into work connection or is in work connection with the sealing actuation device, is not arranged at the pipette head, wherein the sealing actuation device of the pipette head and the drive means driving the sealing actuation device interact operationally in such a way that the fluid-tight connection between a pipette tip and the pipette channel is produced and/or can be detached after the use of the pipette tip.
Phosphorescent copolymers containing 0.05 to 10 mol% of at least one triplet emitter, characterised in that the triplet emitter has at least three links to the polymer, with the proviso that the polymer contains no 9,9-dioctylfluorene if the triplet emitter is an unsubstituted tris(phenylpyridine)iridium.
A service implementation method, comprising: receiving, by a mobility management entity, MME, a first downlink data notification message from a serving gateway, SGW; sending, by the MME, a first paging message to an evolved NodeB, eNodeB, to page a user equipment, UE, after receiving the first downlink data notification message; receiving, by the MME, a second downlink data notification message from the SGW before receiving a paging response message from the UE; characterized by: if there is no first serving priority in the first paging message and the second downlink data notification message includes information of a second serving priority, sending, by the MME, a second paging message with the second serving priority to the eNodeB to page the UE. receiving, by a mobility management entity, MME, a first downlink data notification message from a serving gateway, SGW; sending, by the MME, a first paging message to an evolved NodeB, eNodeB, to page a user equipment, UE, after receiving the first downlink data notification message; receiving, by the MME, a second downlink data notification message from the SGW before receiving a paging response message from the UE; characterized by: if there is no first serving priority in the first paging message and the second downlink data notification message includes information of a second serving priority, sending, by the MME, a second paging message with the second serving priority to the eNodeB to page the UE. if there is no first serving priority in the first paging message and the second downlink data notification message includes information of a second serving priority, sending, by the MME, a second paging message with the second serving priority to the eNodeB to page the UE.
A method for manufacturing a pourer provided with a pour spout that serves as a spout for a content liquid stored in a container main body, and is used by attaching to a mouth part of the container main body, comprising: molding the pourer in a prescribed shape by using a thermoplastic resin, and forming a surplus resin part that protrudes outwardly in the radial direction from an outer peripheral edge of a top surface of the pour spout in at least a part of said top surface of the pour spout through which the content liquid passes by heating press in which a heating plate is pressed against said top surface of the pour spout and by solidifying a molten resin which is pushed out outwardly in the radial direction from the outer peripheral edge of said top surface of the pour spout. molding the pourer in a prescribed shape by using a thermoplastic resin, and forming a surplus resin part that protrudes outwardly in the radial direction from an outer peripheral edge of a top surface of the pour spout in at least a part of said top surface of the pour spout through which the content liquid passes by heating press in which a heating plate is pressed against said top surface of the pour spout and by solidifying a molten resin which is pushed out outwardly in the radial direction from the outer peripheral edge of said top surface of the pour spout.
A method comprising: receiving, by a computing system (102, 202), a software development kit bundle, wherein the software development kit bundle includes one or more software development kit builds; packaging, by the computing system, the software development kit bundle into a software development kit package configured to be installed on a device (120, 220) for access by one or more applications installed on the device, wherein each application from the one or more applications installed on the device is dependent upon a software development kit build from the one or more software development kit builds during runtime; and providing, by the computing system and to the device, the software development kit package including the one or more software development kit builds, wherein each software development kit build from the one or more software development kit builds is configured to run in a process on the device distinct from one or more processes in which the one or more applications run on the device. receiving, by a computing system (102, 202), a software development kit bundle, wherein the software development kit bundle includes one or more software development kit builds; packaging, by the computing system, the software development kit bundle into a software development kit package configured to be installed on a device (120, 220) for access by one or more applications installed on the device, wherein each application from the one or more applications installed on the device is dependent upon a software development kit build from the one or more software development kit builds during runtime; and providing, by the computing system and to the device, the software development kit package including the one or more software development kit builds, wherein each software development kit build from the one or more software development kit builds is configured to run in a process on the device distinct from one or more processes in which the one or more applications run on the device.
A container for pizzas, comprising a plastic tray having a circular base, characterised in that the base is provided with a continuous circular step, in such a manner as to define an external crown part disposed at a different height than a central disc part, both parts being provided with spherical cap-shaped reliefs.
Method for operating an entire energy supply network, wherein the energy supply network has three supply levels (VE1, VE2, VE3), wherein energy is generated and fed into each supply level (VE1, VE2, VE3) by producers (EZ, LZ1, LZ2, LZ3, K1, K2, K3), and wherein each of the three supply levels (VE1, VE2, VE3) is considered as an independent regulating unit (RE1, RE2, RE3) which is connected or disconnected via interfaces between the respective regulating units (RE1, RE2, RE3) as required, characterised in that each of the regulating units (RE1, RE2, RE3) is assigned its own operator region (TS, DS, LVS), wherein in the respective operator region (TS, DS, LVS) energy feed-in by generators and energy consumption by consumers of the respective supply level (VE1, VE2, VE3) is combined and the respective regulating unit (RE1, RE2, RE3) controlled by the respective operator region (TS, DS, LVS), and in that an exchange of energy amounts between the regulating units (RE1, RE2, RE3) is supervised by the associated operator region (TS, DS, LVS) in each case, via the interface between the respective regulating units (RE1, RE2, RE3), by controlling parameters that are defined between the respective regulating units (RE1, RE2, RE3).
A synthetic jet muffler comprising: an exit end; a propagation path for conducting a first sound wave emitted by a synthetic jet generator to the exit end; and a shroud surrounding the synthetic jet, the shroud having an open end and characterised by a waveguide structure having propagation paths (215, 270) of different lengths for the sound waves (220, 245) to effect noise cancellation at the open end, the shroud conducting a second sound wave emitted from the synthetic jet generator in a direction opposite to the first sound wave to the exit end, wherein the shroud is disposed so that the first and second sound waves (220, 245) travel different distances to effect noise cancellation at the exit end. an exit end; a propagation path for conducting a first sound wave emitted by a synthetic jet generator to the exit end; and a shroud surrounding the synthetic jet, the shroud having an open end and characterised by a waveguide structure having propagation paths (215, 270) of different lengths for the sound waves (220, 245) to effect noise cancellation at the open end, the shroud conducting a second sound wave emitted from the synthetic jet generator in a direction opposite to the first sound wave to the exit end, wherein the shroud is disposed so that the first and second sound waves (220, 245) travel different distances to effect noise cancellation at the exit end.
Power train with a drive shaft of a working machine (1, 38), with a drive machine (4, 42) and with a differential gear (3, 7 to 9, 40) with three drives or power take-offs, wherein one power take-off is connected to the drive shaft, a first drive is connected to a drive machine (4, 42) and a second drive is connected to a differential drive, wherein the first drive is connected to the internal gear (8, 14) and the second drive is connected to a sun gear or a planetary carrier of the differential gear (3, 7 to 9, 40), wherein one drive is connected at the same time to the other drive or to the power take-off by means of an auxiliary gear (20, 30, 42, 52, 53, 61, 62, 68, 70), and wherein the differential drive is connected to the first drive and/or the power take-off via a clutch (22, 31, 54), characterized in that the clutch (22, 31, 54) is a trip-free mechanism.
A vibration damper for a vehicle, comprising a wheel carrier made of metal for rotatably receiving a wheel, a damper tube arrangement made at least in part of fibre-reinforced plastic for forming a damper fluid volume, a piston, which is guided in the damper tube arrangement and which has a piston rod connectable to a body of the vehicle, wherein the damper tube arrangement is fixedly connected to the wheel carrier in that a pocket or blind bore is formed in the wheel carrier and the damper tube arrangement is inserted into said pocket or bore, characterised in that the damper tube arrangement is open on the end face so that the damper fluid volume transitions directly into a wheel carrier fluid volume which is formed in the wheel carrier and which is in turn in direct contact with the metal of the wheel carrier for heat transfer.
A mixer for use in a chemical process comprising; a first chamber having a first chamber inlet and a first chamber outlet; a second chamber having a second chamber inlet and a second chamber outlet; and a flow pattern development zone characterized in that the flow pattern development zone comprises a first tube within a second tube wherein the first tube is fluidly connected to the first chamber outlet and the second tube is fluidly connected to the second chamber outlet; and an expander zone having an inner diameter that expands outwardly at an expander angle (β) of less than 90°; wherein the chamber inlet angle (α) of at least one of the first or second chamber inlet(s) (304, 305) is less than 90°, the first chamber outlet is arranged concentrically within the second chamber outlet, the flow pattern development zone is upstream of the expander zone and the first tube of the flow pattern development zone is fluidly connected to the expander zone.
A system comprising: a plurality of solar cells (401a..n; 501); a plurality of voltage controllers (402a..n), wherein each of the plurality of voltage controllers (402a..n) is connected to at least one of the plurality of solar cells (401a..n; 501); and a plurality of panels, each of the plurality of panels containing more than one of the plurality of voltage controllers (402a..n); wherein one of the plurality of voltage controllers (402a..n) includes a controller chip, wherein a second transistor is coupled to one of the plurality of cells (401a..n; 501) through an inductor and wherein a first transistor is coupled to a capacitor; wherein the controller chip includes a first drive connection coupled to the first transistor, and a second drive connection coupled to the second transistor, and wherein the controller chip further includes a sense pin coupled to the second transistor to sense current delivered during an on phase of the second transistor. a plurality of solar cells (401a..n; 501); a plurality of voltage controllers (402a..n), wherein each of the plurality of voltage controllers (402a..n) is connected to at least one of the plurality of solar cells (401a..n; 501); and a plurality of panels, each of the plurality of panels containing more than one of the plurality of voltage controllers (402a..n); wherein one of the plurality of voltage controllers (402a..n) includes a controller chip, wherein a second transistor is coupled to one of the plurality of cells (401a..n; 501) through an inductor and wherein a first transistor is coupled to a capacitor; wherein the controller chip includes a first drive connection coupled to the first transistor, and a second drive connection coupled to the second transistor, and wherein the controller chip further includes a sense pin coupled to the second transistor to sense current delivered during an on phase of the second transistor.