mhurhangee/ep-ind-claims huggingface dataset:
Control method for a hybrid drive in a vehicle comprising an internal combustion engine and an electric motor for determining a torque distribution between the internal combustion engine and the electric motor, wherein - operating state information (FW, SB), - state-of-charge information (SOC, SOCref) of a traction battery, and - a difference (δ) between an emission upper limit (EM G) and a cumulated actual emission variable (EM K) are taken into account in a cost function and an operating state of the internal combustion engine, and thus the internal-combustion-engine drive torque (M VKM), is influenced by means of a reference variable (x(t)) such that at least two actual emission variables (EM 1, EM 2) are set in such a way that the corresponding cumulated actual emission variables (EM K) in an operating period with a combination of arbitrary different operating states of the hybrid drive, and thus of the internal combustion engine, set in a random order do not exceed emission upper limits (EM G) for this operating period, wherein the cost function is minimized in that the reference variable (x(t)) is selected from Pareto-optimal alternatives by means of an indifference curve determined from a differential function (δ(t)), and therefore the internal-combustion-engine torque component (M VKM) can be set so as to be optimized with respect to emissions. - operating state information (FW, SB), - state-of-charge information (SOC, SOCref) of a traction battery, and - a difference (δ) between an emission upper limit (EM G) and a cumulated actual emission variable (EM K) are taken into account in a cost function and
A dispenser, comprising: an actuating section having a first moveable member; wherein said actuating section comprises an electrical section wherein said first moveable member is an armature adapted to move in response to an electrical signal; a hydraulic section coupled with said actuating section and having a second moveable member, said hydraulic section adapted to dispense a liquid from an outlet and said actuating section adapted to control dispensing of the liquid, said second moveable member being an elongated needle; a pivoting lever arm having a first end operatively coupled with said first moveable member in said actuating section, and further including a second end operatively coupled with said second moveable member in said hydraulic section, wherein said first moveable member is operative to move said second moveable member between open and closed positions for respectively starting and stopping flow of liquid from said outlet, characterized in that a flexible non-diaphragm seal adapted to withstand operating pressures from approximately 551,580 Pa (80 psi) to approximately 10,342,000 Pa (1,500 psi) is positioned between said hydraulic section and said actuating section and adapted to prevent the liquid from leaking into said actuating section; said pivoting lever arm extending from said first end through said seal and into said hydraulic section. an actuating section having a first moveable member; wherein said actuating section comprises an electrical section wherein said first moveable member is an armature adapted to move in response to an electrical signal; a hydraulic section coupled with said actuating section and having a second moveable member, said hydraulic section adapted to dispense a liquid from an outlet and said actuating section adapted to control dispensing of the liquid, said second moveable member being an elongated needle; a pivoting lever arm having a first end operatively coupled with said first moveable member in said actuating section, and further including a second end operatively coupled with said second moveable member in said hydraulic section, wherein said first moveable member is operative to move said second moveable member between open and closed positions for respectively starting and stopping flow of liquid from said outlet, characterized in that a flexible non-diaphragm seal adapted to withstand operating pressures from approximately 551,580 Pa (80 psi) to approximately 10,342,000 Pa (1,500 psi) is positioned between said hydraulic section and said actuating section and adapted to prevent the liquid from leaking into said actuating section; said pivoting lever arm extending from said first end through said seal and into said hydraulic section.
A method for managing Internet Protocol address assignment, the method comprising: receiving, from a user, a specification of an identifier for a web service and an indication of one or more virtual machines of the user, the identifier associated with network addresses for the web service; generating one or more network address lists for the one or more virtual machines based at least in part on the specification of the identifier, wherein said generating of the one or more network address lists based on the specification of the identifier includes generating a change in the network addresses for the web service by adding, removing and/or expanding a network address; and updating security tables for the one or more virtual machines with the address lists at server computers hosting the one or more virtual machines, the security tables used by the server computers to at least determine whether to allow communications addressed to or from the network addresses for the service. receiving, from a user, a specification of an identifier for a web service and an indication of one or more virtual machines of the user, the identifier associated with network addresses for the web service; generating one or more network address lists for the one or more virtual machines based at least in part on the specification of the identifier, wherein said generating of the one or more network address lists based on the specification of the identifier includes generating a change in the network addresses for the web service by adding, removing and/or expanding a network address; and updating security tables for the one or more virtual machines with the address lists at server computers hosting the one or more virtual machines, the security tables used by the server computers to at least determine whether to allow communications addressed to or from the network addresses for the service.
Lift device for a product machine, comprising a loading compartment for receiving products dispensed from a product magazine, comprising at least one running slide (3; 3a, 3b) for displacing the loading compartment in a height direction, the loading compartment, in a straight position, extending along a transverse direction so as to protrude from the running slide (3; 3a, 3b), so as to be able to receive products from product compartments arranged side by side in a product magazine, the loading compartment being mounted on the running slide (3; 3a, 3b) so as to be tiltable into a tilted position about a tilt axle (6; 6a, 6b) orientated in a depth direction, the tilt axle (6; 6a, 6b) being arranged in the region of a base of the loading compartment.
Profile part for a rolling tool, having a profiling section for shaping a workpiece to be rolled, and a connecting section for connecting to a separate base body of the rolling tool, characterized in that the maximum thickness of the profile part, i.e. the thickness at the thickest point of the profile part, is between 4 mm and 10 mm, in particular between 4 mm and 8 mm. a profiling section for shaping a workpiece to be rolled, and a connecting section for connecting to a separate base body of the rolling tool, characterized in that the maximum thickness of the profile part, i.e. the thickness at the thickest point of the profile part, is between 4 mm and 10 mm, in particular between 4 mm and 8 mm.
A wireless health monitoring system comprising two or more ASIC chips wherein the chips are designed to work together to measure physiological signals, comprising: (a) a patch-ASIC chip incorporated into a physiological signal monitoring patch comprising a sensor interface coupled to a sensor, a processor coupled to the sensor interface, a memory element coupled to the processor, a radio coupled to the memory element that is configured to transmit data to a base-ASIC chip, and power management circuits that coordinate power usage on the chip; and (b) the base-ASIC chip comprising a processor that is configured to process sensor data, a memory element coupled to the processor, a radio coupled to the memory element that is configured to transmit instructions to the patch-ASIC chip to control a function of the patch-ASIC chip, power management circuits for coordinating power on the chip, and a host interface through which the base-ASIC chip communicates with a host device; wherein the base-ASIC chip has more processing resources than the patch-ASIC chip, wherein the patch-ASIC chip comprises an ultra wideband transmitter and a narrowband receiver, and the base-ASIC chip comprises a narrow band transmitter and a UWB receiver. (a) a patch-ASIC chip incorporated into a physiological signal monitoring patch comprising a sensor interface coupled to a sensor, a processor coupled to the sensor interface, a memory element coupled to the processor, a radio coupled to the memory element that is configured to transmit data to a base-ASIC chip, and power management circuits that coordinate power usage on the chip; and (b) the base-ASIC chip comprising a processor that is configured to process sensor data, a memory element coupled to the processor, a radio coupled to the memory element that is configured to transmit instructions to the patch-ASIC chip to control a function of the patch-ASIC chip, power management circuits for coordinating power on the chip, and a host interface through which the base-ASIC chip communicates with a host device;
A method comprising: receiving by a wireless transmit/receive unit, WTRU, (102, 201, 300) from a fog Radio Access Network, RAN, in a paging message, a request for a fog resource associated with the WTRU(102, 201, 300), the request comprising information indicating any of an amount of resources, a task type, and a target location; determining by the WTRU (102, 201, 300) whether to provide the requested fog resource according to any of an availability of the amount of resources associated with the WTRU (102, 201, 300), a capability of the WTRU (102, 201, 300) to execute the task type, and a location of the WTRU (102, 201, 300), and transmitting, by the WTRU (102, 201, 300), a random access channel, RACH, transmission indicating a response to the request according to said determining. receiving by a wireless transmit/receive unit, WTRU, (102, 201, 300) from a fog Radio Access Network, RAN, in a paging message, a request for a fog resource associated with the WTRU(102, 201, 300), the request comprising information indicating any of an amount of resources, a task type, and a target location; determining by the WTRU (102, 201, 300) whether to provide the requested fog resource according to any of an availability of the amount of resources associated with the WTRU (102, 201, 300), a capability of the WTRU (102, 201, 300) to execute the task type, and a location of the WTRU (102, 201, 300), and transmitting, by the WTRU (102, 201, 300), a random access channel, RACH, transmission indicating a response to the request according to said determining.
A method of controlling a robot assembly comprising at least one robot, the method comprising the steps of: setting up at least one general fault model, which is embodied as a general fault routine for a group of different treatment processes with predetermined malfunctions of a robot-guided tool, wherein the treatment processes of the group differ as regards the type and / or function of robot-guided treatment tools; configuring the fault routine for at least one particular one of the malfunctions; and transferring the configured fault routine to a control device of the robot assembly, wherein the general fault routine comprises a configuration option of a maximum number of repetitions and / or of a correction time for rectifying a fault and a link between a failure of a rectification (FAIL) and a follow-on model, and a configuration option depends on a malfunction, wherein it is not possible to select specific follow-on models for specific malfunctions which are specified by the user in the course of the configuration of the fault routine. setting up at least one general fault model, which is embodied as a general fault routine for a group of different treatment processes with predetermined malfunctions of a robot-guided tool, wherein the treatment processes of the group differ as regards the type and / or function of robot-guided treatment tools; configuring the fault routine for at least one particular one of the malfunctions; and transferring the configured fault routine to a control device of the robot assembly, wherein the general fault routine comprises a configuration option of a maximum number of repetitions and / or of a correction time for rectifying a fault and a link between a failure of a rectification (FAIL) and a follow-on model, and a configuration option depends on a malfunction, wherein it is not possible to select specific follow-on models for specific malfunctions which are specified by the user in the course of the configuration of the fault routine.
A shaped abrasive particle comprising a body comprising a first major surface, a second major surface, and a side surface extending between the first major surface and the second major surface, wherein a first portion of the side surface has a first curved section between a first linear section and a second linear section, wherein the first linear section terminates at a first external corner of the body and the second linear section terminates at a second external corner of the body, wherein the first curved section and the first linear section define a first interior corner defining a first interior angle having an obtuse value, wherein the first curved section and the second linear section define a second interior corner defining a second interior angle having an obtuse value, wherein the first curved section has a first curved section length (Lcl) that extends for a fraction of the total length (Lfpl) of the first portion of the side surface between the adjacent corners and, wherein the body has a hybrid polygonal shape having a sum of all external corners (1209, 1210, 1211) of substantially 180 degrees. wherein a first portion of the side surface has a first curved section between a first linear section and a second linear section, wherein the first linear section terminates at a first external corner of the body and the second linear section terminates at a second external corner of the body, wherein the first curved section and the first linear section define a first interior corner defining a first interior angle having an obtuse value, wherein the first curved section and the second linear section define a second interior corner defining a second interior angle having an obtuse value, wherein the first curved section has a first curved section length (Lcl) that extends for a fraction of the total length (Lfpl) of the first portion of the side surface between the adjacent corners and, wherein the body has a hybrid polygonal shape having a sum of all external corners (1209, 1210, 1211) of substantially 180 degrees.
Control facility for a hoisting gear, having a kinematic transformation (42, 43), wherein a spatial position of a body (8, 9) and an orientation position of the body (8, 9) is provided for transformation, wherein a plurality of electrical drives can be actuated, wherein the hoisting gear is overdetermined for a movement of the body (8, 9) by the hoisting gear, characterised in that the control facility has a rope force computer.
An aerosol generation device comprising: a main body defined by a main housing comprising a heating unit for heating an aerosol generation substrate and accommodated within the main housing; a cover element that is detachably attached or connected to the main housing and covers a portion of the main housing to form part of the exterior surface of the main housing: wherein the main housing and the cover element are shaped such that an air gap is formed between the main housing and the cover element, characterized in that in that the cover elemen comprises a discrete set of different thicknesses and/or a continuous spectrum of different thicknesses, in a way such that some sections of the cover element that are arranged closer to the heating unit and the main housing have a larger air gap distance between the cover element and the heating unit, and some sections of the cover elemen that are arranged further away from the heating unit and the main housing have a smaller air gap distance between the cover element and the heating unit. a main body defined by a main housing comprising a heating unit for heating an aerosol generation substrate and accommodated within the main housing; a cover element that is detachably attached or connected to the main housing and covers a portion of the main housing to form part of the exterior surface of the main housing: wherein the main housing and the cover element are shaped such that an air gap is formed between the main housing and the cover element, characterized in that in that the cover elemen comprises a discrete set of different thicknesses and/or a continuous spectrum of different thicknesses, in a way such that some sections of the cover element that are arranged closer to the heating unit and the main housing have a larger air gap distance between the cover element and the heating unit, and some sections of the cover elemen that are arranged further away from the heating unit and the main housing have a smaller air gap distance between the cover element and the heating unit.
A radiation detection apparatus comprising: a radiation detection panel configured to detect a radiation; a circuit board (14,31) configured to drive the radiation detection panel; a flexible circuit board configured to electrically connect the radiation detection panel to the circuit board (14,31); a support member that is configured to support the radiation detection panel on one surface thereof and to support the circuit board on another surface thereof and that has electrical conductive property; a heat insulation member arranged between the radiation detection panel and the circuit board and sandwiched between the radiation detection panel and the support member; a housing that is configured to accommodate the radiation detection panel, the circuit board, the support member, and the heat insulation member and has electrical conductive property; a heat conduction member that is accommodated in the housing, is connected to the support member and the housing, and is configured to achieve both, electrical conduction between the support member and the housing and heat conduction from the support member to the housing; a spacer that is connected to the circuit board (14,31) and the support member, has electrical conductive property, and has heat conductive property to conduct heat generated in the circuit board (14,31) to the support member. a radiation detection panel configured to detect a radiation; a circuit board (14,31) configured to drive the radiation detection panel; a flexible circuit board configured to electrically connect the radiation detection panel to the circuit board (14,31); a support member that is configured to support the radiation detection panel on one surface thereof and to support the circuit board on another surface thereof and that has electrical conductive property; a heat insulation member arranged between the radiation detection panel and the circuit board and sandwiched between the radiation detection panel and the support member; a housing that is configured to accommodate the radiation detection panel, the circuit board, the support member, and the heat insulation member and has electrical conductive property; a heat conduction member that is accommodated in the housing, is connected to the support member and the housing, and is configured to achieve both, electrical conduction between the support member and the housing and heat conduction from the support member to the housing; a spacer that is connected to the circuit board (14,31) and the support member, has electrical conductive property, and has heat conductive property to conduct heat generated in the circuit board (14,31) to the support member.
A dressing for providing reduced-pressure therapy to a tissue site, the dressing comprising: a manifold having an inward-facing surface; a barrier layer for disposal adjacent to the tissue site and covering at least a portion of the inward-facing surface of the manifold such that the barrier layer is disposable between the manifold and the tissue site; and the barrier layer having a first portion and a second portion formed from a desolidifying material, wherein the first portion of the barrier layer is adapted to desolidify and form a treatment aperture in the presence of a fluid and the second portion of the barrier layer is adapted to separate the manifold from the epidermis adjacent to the tissue site and remain intact. a manifold having an inward-facing surface; a barrier layer for disposal adjacent to the tissue site and covering at least a portion of the inward-facing surface of the manifold such that the barrier layer is disposable between the manifold and the tissue site; and the barrier layer having a first portion and a second portion formed from a desolidifying material, wherein the first portion of the barrier layer is adapted to desolidify and form a treatment aperture in the presence of a fluid and the second portion of the barrier layer is adapted to separate the manifold from the epidermis adjacent to the tissue site and remain intact.
A thermoplastic resin composition, which comprises a plurality of crystalline thermoplastic resins having a melt viscosity different from each other and each containing a unit which comprises an arylene group and an ether group and/or a carbonyl group, wherein the thermoplastic resins at least comprise a combination of a first polyetheretherketone and a second polyetheretherketone, and the first polyetheretherketone has a melt viscosity of 150 to 1500 Pa·s at a temperature of 400°C and a shear rate of 1216 s -1, and the melt viscosity ratio of the first polyetheretherketone relative to the second polyetheretherketone at a temperature of 400°C and a shear rate of 1216 s -1 is 1.5/1 to 10/1 as a ratio of the former/the latter.
A data transmission method comprising the following steps performed by a user equipment (10; 60; 70): sending a data packet to a base station (20; 80: 90) and starting a timer during a current channel occupation period, COD, of the base station (20; 80: 90); wherein the COD is a time segment in which a base station (20; 80; 90) continuously occupies an unlicensed spectrum, wherein the COD comprises a long pilot part for a long pilot, LP, and a data part for data packets; determining a first end moment of the current COD; pausing the timer at the first end moment; determining a second end moment of a LP in next COD of the base station (20; 80: 90); resuming the timer at the second end moment; and receiving, before the resumed timer expires, a response message sent by the base station (20; 80: 90). sending a data packet to a base station (20; 80: 90) and starting a timer during a current channel occupation period, COD, of the base station (20; 80: 90); wherein the COD is a time segment in which a base station (20; 80; 90) continuously occupies an unlicensed spectrum, wherein the COD comprises a long pilot part for a long pilot, LP, and a data part for data packets; determining a first end moment of the current COD; pausing the timer at the first end moment; determining a second end moment of a LP in next COD of the base station (20; 80: 90); resuming the timer at the second end moment; and receiving, before the resumed timer expires, a response message sent by the base station (20; 80: 90).