mhurhangee/ep-ind-claims huggingface dataset:
Method for testing a capacity of a drive rescue battery for driving an electric motor of a transportation system in a rescue operation mode, wherein in normal operation mode AC means supply power over first, second and third phases via a low pass LCL-filter to a frequency converter for driving the electric motor, wherein the frequency converter comprises a rectifier circuit for providing a DC supply voltage, wherein the method comprises the steps: - disconnecting the LCL-filter from the AC mains; - using inductors (L2, L2') and capacitors (C1, C2) of the LCL-filter, each of which being connected to the first or second phase, as a test load for testing the capacity of the drive rescue battery, wherein the inductor of the LCL-filter, which is connected to the first phase and downstream of the capacitor of the LCL-filter, which is connected to the first phase, to the rectifier circuit, the capacitors (C1, C2) of the LCL-filter connected to the first and second phases, and the inductor (L2') of the LCL-filter which is connected to the second phase and downstream of the capacitor of the LCL-filter, which is connected to the second phase, to the rectifier circuit form a series connection as the test load; and - determining at least one value of a voltage or a current of the drive rescue battery resulting from the test load. - disconnecting the LCL-filter from the AC mains; - using inductors (L2, L2') and capacitors (C1, C2) of the LCL-filter, each of which being connected to the first or second phase, as a test load for testing the capacity of the drive rescue battery, wherein the inductor of the LCL-filter, which is connected to the first phase and downstream of the capacitor of the LCL-filter, which is connected to the first phase, to the rectifier circuit, the capacitors (C1, C2) of the LCL-filter connected to the first and second phases, and the inductor (L2') of the LCL-filter which is connected to the second phase and downstream of the capacitor of the LCL-filter, which is connected to the second phase, to the rectifier circuit form a series connection as the test load; and - determining at least one value of a voltage or a current of the drive rescue battery resulting from the test load.
Method for operating an inverter, which connects three AC phases (U, V, W) of an inductive load in each case optionally to the positive terminal or negative terminal of a DC voltage provided at the input of the inverter by means of driving of switching elements (3a-3f) arranged in three half-bridges (5a-5c), wherein the switching states of the switching elements (3a-3f) are changed by means of revolving space vector modulation, wherein, in addition, in the case of modulation between space vectors (6a-6f) which have identical switching states of the respective switching elements (3a, 3d; 3b, 3e; 3c, 3f) with respect to at least one half-bridge (5a-5c), such a half-bridge (5a-5c) remains completely switched off, characterized in that, within a coherent sector (7a-7c) in the space vector diagram in which the switching state of the switching elements (3a, 3d; 3b, 3e; 3c, 3f) associated with at least one half-bridge (5a-5c) remains the same, such a half-bridge (5a-5c) remains completely switched off.
A method for adjusting information transmission, applied to a base station, the method comprising: sending band width part, BWP, switching information to target user equipment, UE, through an upper layer message, the BWP switching information being used for instructing the target UE to switch a first BWP for presently carrying information transmission to a second BWP; monitoring preset uplink feedback information of the target UE, the preset uplink feedback information being used for indicating that the target UE has received and/or parsed the BWP switching information; and stopping, upon the preset uplink feedback information is received, scheduling the target UE on the first BWP, characterized in that the method further comprises: before or when sending the BWP switching information, sending preset hybrid automatic repeat request, HARQ, feedback configuration information to the target UE, the preset HARQ feedback configuration information being used for instructing the target UE to send HARQ feedback information for transmitted downlink data carried by the first BWP to the base station through the second BWP. sending band width part, BWP, switching information to target user equipment, UE, through an upper layer message, the BWP switching information being used for instructing the target UE to switch a first BWP for presently carrying information transmission to a second BWP; monitoring preset uplink feedback information of the target UE, the preset uplink feedback information being used for indicating that the target UE has received and/or parsed the BWP switching information; and stopping, upon the preset uplink feedback information is received, scheduling the target UE on the first BWP, characterized in that the method further comprises: before or when sending the BWP switching information, sending preset hybrid automatic repeat request, HARQ, feedback configuration information to the target UE, the preset HARQ feedback configuration information being used for instructing the target UE to send HARQ feedback information for transmitted downlink data carried by the first BWP to the base station through the second BWP.
Electrical connector having an electrically insulating contact carrier and having at least one electrically conductive contact element which is retained in the contact carrier, wherein, in order to adjust the impedance of the connector in at least a portion of the region in which the at least one contact element is arranged, the contact carrier comprises at least one impedance equalisation element, wherein the impedance equalisation element has an electrically conductive planar structure, which is arranged with respect to the at least one contact: element with a predetermined spacing which is dependent on an impedance value to be adjusted, characterized in that the at least one impedance equalisation element is integrated with the electrically insulating contact carrier, wherein the contact carrier is produced as an injection-moulded component and the at least one impedance equalisation element is partly cast therein, wherein the at least one impedance equalisation element has at least one clamping projection forming a board lock for constructing a clamping connection with a printed circuit board in order to retain the plug type connector on the printed circuit board.
An actuator of a downhole tool, the actuator comprising: a housing defining an axial bore and a first port extending radially from the axial bore; and a piston disposed and movable within the axial bore of the housing, the piston comprising a receptacle wall defining a chamber and a second port extending radially from the chamber, wherein the piston is pushable downward by delivery of a fluid to the receptacle wall and wherein, when the piston moves downward, the second port extending radially from the chamber aligns with the first port extending radially from the axial bore, a shaft extending axially from the receptacle wall, and a contact member extending across the shaft, positioned outside of the housing, and configured to engage a downhole tool that is below the actuator. a housing defining an axial bore and a first port extending radially from the axial bore; and a piston disposed and movable within the axial bore of the housing, the piston comprising a receptacle wall defining a chamber and a second port extending radially from the chamber, wherein the piston is pushable downward by delivery of a fluid to the receptacle wall and wherein, when the piston moves downward, the second port extending radially from the chamber aligns with the first port extending radially from the axial bore, a shaft extending axially from the receptacle wall, and a contact member extending across the shaft, positioned outside of the housing, and configured to engage a downhole tool that is below the actuator. a receptacle wall defining a chamber and a second port extending radially from the chamber, wherein the piston is pushable downward by delivery of a fluid to the receptacle wall and wherein, when the piston moves downward, the second port extending radially from the chamber aligns with the first port extending radially from the axial bore, a shaft extending axially from the receptacle wall, and a contact member extending across the shaft, positioned outside of the housing, and configured to engage a downhole tool that is below the actuator.
A seal comprising: a jacket comprising an annular body defining a central axis and a recess extending into the annular body concentric to the central axis, wherein the jacket comprises a PTFE and a filler material, and wherein the filler material comprises a boron-containing material, a nitrogen-containing material, a titanium-containing material, a silicon-containing material, or a combination thereof; and an energizing element disposed in the recess, wherein the jacket comprises at least 30 wt% of the PTFE and at least 10 wt% of the filler material, wherein the jacket has an initial elongation at break, EAB I, as measured prior to exposure to an elevated temperature defined as at least 275°C, and an effective elongation at break, EAB E, as measured after exposure to an elevated temperature defined as at least 275°C, wherein EAB I is no greater than 150% EAB E, wherein the jacket includes fingers (106, 108) defining the recess, and wherein the fingers (106, 108) are symmetrical about a line such that the recess is also symmetrical. a jacket comprising an annular body defining a central axis and a recess extending into the annular body concentric to the central axis, wherein the jacket comprises a PTFE and a filler material, and wherein the filler material comprises a boron-containing material, a nitrogen-containing material, a titanium-containing material, a silicon-containing material, or a combination thereof; and an energizing element disposed in the recess, wherein the jacket comprises at least 30 wt% of the PTFE and at least 10 wt% of the filler material, wherein the jacket has an initial elongation at break, EAB I, as measured prior to exposure to an elevated temperature defined as at least 275°C, and an effective elongation at break, EAB E, as measured after exposure to an elevated temperature defined as at least 275°C, wherein EAB I is no greater than 150% EAB E, wherein the jacket includes fingers (106, 108) defining the recess, and wherein the fingers (106, 108) are symmetrical about a line such that the recess is also symmetrical.
A printed circuit board formed with an insulation layer of composite structure of a first resin material of low dielectric constant and a first general base material having different relative dielectric constants, and said insulation layer being disposed between conductor circuits (1, 4) characterized in that said first base material is stacked on a second general base material as a core material, said first resin material of low dielectric constant is stacked on said first general base material, a first grounding conductor as said conductor circuit is formed between said first and second general base materials, a plurality of conductive patterns (6, 7) are arranged between the first general base material and the first resin material of low dielectric constant, and a line conductor as said conductor circuit is arranged on the surface of said first resin layer of low dielectric constant.
A method of operating a first virtual network function in a communications network, the method comprising: activating the first virtual network function to operate in accordance with a configuration defined in a configuration file; determining when the first virtual network function is required to change from an active state to a sleep state; storing a sleep state configuration file for the first virtual network function at a network management system; detecting a change of network conditions in the communications network, wherein detecting the change of the network conditions in the communications network comprises detecting at least one of: a change to another virtual network function (52, 53) active in the communications network that impacts the configuration of the first virtual network function, and a change to a configuration of the another virtual network function (52, 53) in the sleep state that impacts the configuration of the first virtual network function; and updating the sleep state configuration file of the first virtual network function in response to the detected change of the network conditions, while the first virtual network function is in the sleep state. activating the first virtual network function to operate in accordance with a configuration defined in a configuration file; determining when the first virtual network function is required to change from an active state to a sleep state; storing a sleep state configuration file for the first virtual network function at a network management system; detecting a change of network conditions in the communications network, wherein detecting the change of the network conditions in the communications network comprises detecting at least one of: a change to another virtual network function (52, 53) active in the communications network that impacts the configuration of the first virtual network function, and a change to a configuration of the another virtual network function (52, 53) in the sleep state that impacts the configuration of the first virtual network function; and a change to another virtual network function (52, 53) active in the communications network that impacts the configuration of the first virtual network function, and a change to a configuration of the another virtual network function (52, 53) in the sleep state that impacts the configuration of the first virtual network function; and updating the sleep state configuration file of the first virtual network function in response to the detected change of the network conditions, while the first virtual network function is in the sleep state.
A method for operating an infrastructure node-common service entity, IN-CSE, in a machine-to-machine, M2M, system, the method comprising: Receiving, from a first application entity, AE, a first message for requesting registration of at least one resource including a set of representations of data related to a second AE including a plurality of parts (612-1, 612-2, 612-3), the first message including information on replacement conditions for one or more parts of the second AE;generating and registering the at least one resource comprising information on the plurality of parts (612-1, 612-2, 612-3); and transmitting, to the second AE, a second message for recommending replacement of a first part of the plurality of parts (612-1, 612-2, 612-3) if a replacement condition for the first part is satisfied.
A set of circuit breakers with interlock means, comprising at least three circuit breakers (1, 2, 3) and at least six cables (13, 14,15, 16,17, 18), each circuit breaker in said set of circuit breakers having interlock means, the interlock means of each circuit breaker being interconnected to translate drive force via cables, wherein each interlock means comprises a drive member, a control member, a locking member, a base plate and a cable mechanism; the base plate of said interlock means is provided with at least one control lever (7; 8; 9), at least one driving lever (22; 23;24), at least two control arms (25,26;27,28;29,30) which are separate elements from said control lever (7; 8; 9), and three elastic elements (10, 11, 12) connected to the said control lever (7; 8; 9) and said two control arms (25,26; 27,28; 29,30) respectively at their ends and fixed to the base plate at their other ends; said control lever (7; 8; 9) being connected to a trigger of a circuit breaker locking means; said driving lever (22; 23; 24) being operatively connected to a driving mechanism on the circuit breaker; wire ropes of two cables connected to two ends of the driving lever (22; 23; 24) of any of said circuit breakers are respectively connected to one control arm of the other two circuit breakers; said control arm (25,26; 27,28; 29,30), under joint action of tensile force of said wire ropes and elastic force of said elastic elements (10, 11, 12) connected thereto, performs restriction/restriction release of movement of said control lever (7; 8; 9); said control lever (7; 8; 9), after movement restriction from the control arm is released, under the action of elastic force of said elastic element connected thereto, automatically rotates and comes into contact with a shaft of the locking means to performs locking of the shaft of the locking means of the circuit breaker.
A method of production of a conjugated diene rubber comprising a first step of polymerizing a compound represented by a following formula by using a polymerization initiator to obtain a polymer block of the compound represented by the formula having an active end, and a second step of polymerizing a monomer containing at least a conjugated diene compound by using the active end of the polymer block: wherein, in the formula, R 1 is a hydrogen atom or a hydrocarbon group having 1 to 20 carbon atoms, R 2 is an aryl group-containing hydrocarbon group having 6 to 20 carbon atoms, each of R 3 and R 4 independently is a hydrogen atom or a hydrocarbon group having 1 to 20 carbon atoms which is substitueted or unsubstitueted, and X is arbitrary monovalent group.
A Pichia pastoris host cell, comprising: (a) a first nucleic acid molecule encoding Leishmania mayor LmSTT3D; and (b) a second nucleic acid molecule encoding a heterologous glycoprotein; and the host cell expresses the genes encoding the proteins comprising the endogenous oligosaccharyltransferase (OTase) complex. (a) a first nucleic acid molecule encoding Leishmania mayor LmSTT3D; and (b) a second nucleic acid molecule encoding a heterologous glycoprotein; and
A light emitting apparatus comprising a light transmissive envelope in combination with a base element, a light emitting diode light source illuminating the interior of the light transmissive envelope, whereas the light transmissive envelope is comprised of a first lens portion disposed adjacent the light source and a remote lens portion, characterized in that a flat thin film is disposed between the two lens portions (16, 18) of said light transmissive envelope, said thin film being both refractive and reflective.
An agricultural harvester, in particular a self-propelled forage harvester, comprising a shredding assembly for continuous shredding of crop material conveyed in the form of a flow of material through the shredding assembly, wherein disposed downstream of the shredding assembly with respect to the direction of crop material flow is a post-shredding device having at least one cutting element which can be brought into the crop material flow, and a control device operable by actuation of an actuator associated with the cutting element to move the cutting element out of an inactive position (P 0) in which the cutting element is ineffective in relation to the crop material flow into at least one active position (P 1) in which the cutting element projects into the crop material flow in such a way that it exerts a shredding action on the crop material, characterised in that the control device is operable to actuate automatically the actuator for displacement of the at least one cutting element in dependence on operating parameters of the harvester.
A method of manufacturing a hydraulic plug for sealing a passage of a hydraulic gallery, the method comprising: providing a shell, the shell comprising a circumferential wall, a sealed end, an open end and a cylindrical cavity opening to the open end, the open end of the shell being wider externally than the sealed end; and inserting a head of an expander into the cavity, the expander further comprising a stem that extends out from the cavity for applying a tensile force to the head, the method being characterised by: in the step of inserting a head of an expander, the expander has a convex contact surface which is rounded in an axial direction of the cavity; and plastically deforming a region of the shell adjacent its open end, to form a constricted opening retaining the head of the expander within the cavity, wherein the plastically deforming causes material from the circumferential wall of the shell to be displaced radially inward around the head of the expander, reshaping an internal surface of the cavity to create a ramp on the sealed end side of the constricted opening for the head of the expander to engage. providing a shell, the shell comprising a circumferential wall, a sealed end, an open end and a cylindrical cavity opening to the open end, the open end of the shell being wider externally than the sealed end; and inserting a head of an expander into the cavity, the expander further comprising a stem that extends out from the cavity for applying a tensile force to the head, the method being characterised by: in the step of inserting a head of an expander, the expander has a convex contact surface which is rounded in an axial direction of the cavity; and plastically deforming a region of the shell adjacent its open end, to form a constricted opening retaining the head of the expander within the cavity, wherein the plastically deforming causes material from the circumferential wall of the shell to be displaced radially inward around the head of the expander, reshaping an internal surface of the cavity to create a ramp on the sealed end side of the constricted opening for the head of the expander to engage. in the step of inserting a head of an expander, the expander has a convex contact surface which is rounded in an axial direction of the cavity; and plastically deforming a region of the shell adjacent its open end, to form a constricted opening retaining the head of the expander within the cavity, wherein the plastically deforming causes material from the circumferential wall of the shell to be displaced radially inward around the head of the expander, reshaping an internal surface of the cavity to create a ramp on the sealed end side of the constricted opening for the head of the expander to engage.
A fusion protein comprising: the light chain region of a Clostridial neurotoxin, wherein the light chain region is atoxic; the heavy chain region of a Clostridial neurotoxin, wherein the light and heavy chain regions are linked by a disulfide bond; and a single chain antibody positioned upstream of the light chain region in the fusion protein, wherein the single chain antibody possesses antigen-binding activity. the light chain region of a Clostridial neurotoxin, wherein the light chain region is atoxic; the heavy chain region of a Clostridial neurotoxin, wherein the light and heavy chain regions are linked by a disulfide bond; and a single chain antibody positioned upstream of the light chain region in the fusion protein, wherein the single chain antibody possesses antigen-binding activity.