mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for grilling food and at least having a housing for receiving the food, wherein the housing encompasses at least one grilling space, wherein the housing also has at least two through-passage openings (10; 12) and the first through-passage opening is designed in the form of an outgoing-air opening and the food can be fed to the grilling space through the second through-passage opening, wherein the housing has at least two heat sources, which are intended for heating the food and are arranged essentially vertically, characterized in that at least one heat source is designed such that it can be changed in position in relation to the food and/or in relation to the food-receiving device, and in that the at least one heat source is arranged on the housing such that it can be altered in position by way of at least one scissors-mechanism framework. characterized in that at least one heat source is designed such that it can be changed in position in relation to the food and/or in relation to the food-receiving device, and in that the at least one heat source is arranged on the housing such that it can be altered in position by way of at least one scissors-mechanism framework.
A passenger car with a luggage compartment and a luggage compartment base device comprising at least one first luggage compartment base element, on the first base surface of which items to be transported in the luggage compartment can be arranged, comprising two guide rails (24, 26) arranged on both sides of the first base surface in the transverse direction of the vehicle for guiding and fastening at least one fixing element for fixing the items to be transported and comprising a second luggage compartment base element which is arranged behind the first luggage compartment base element in the longitudinal direction of the vehicle and on the second base surface of which the items to be transported can be arranged, the second luggage compartment base element being movable relative to the first luggage compartment base element between a closed position covering at least a partial region of a storage space arranged under the second luggage compartment base element and at least one open position releasing the partial region, characterised in that connected to the second luggage compartment base element are two further guide rails (30, 32) which are arranged on both sides of the second base surface in the transverse direction of the vehicle based on the closed position and are movable together with the second luggage compartment base element and are to guide and fasten the fixing element and adjoin the first guide rails (24, 26) based on the closed position in the longitudinal extent direction of said first guide rails.
A production method of a negative electrode active material containing particles of negative electrode active material containing particles of silicon compound comprising: preparing particles of negative electrode active material, by preparing particles of silicon compound containing a silicon compound, SiOx: 0.5≤x≤1.6; and by inserting lithium into the particles of silicon compound such that the particles contain Li 2 SiO 3; and preparing the particles of negative electrode active material in which a content of the Li 2 CO 3 is 0.01% by mass or more and 5.00% by mass or less relative to a mass of the particles of negative electrode active material and a content of LiOH is 0.01% by mass or more and 5.00% by mass or less relative to the mass of the particles of negative electrode active material, by generating lithium nitride on a surface of the particles of negative electrode active material; and by generating Li 2 CO 3 and LiOH on a surface of the particles of negative electrode active material by washing the particles of negative electrode active material on the surface of which lithium nitride is generated with a solution containing water; and producing the negative electrode active material with the prepared particles of negative electrode active material. preparing particles of negative electrode active material, by preparing particles of silicon compound containing a silicon compound, SiOx: 0.5≤x≤1.6; and by inserting lithium into the particles of silicon compound such that the particles contain Li 2 SiO 3; and preparing the particles of negative electrode active material in which a content of the Li 2 CO 3 is 0.01% by mass or more and 5.00% by mass or less relative to a mass of the particles of negative electrode active material and a content of LiOH is 0.01% by mass or more and 5.00% by mass or less relative to the mass of the particles of negative electrode active material, by generating lithium nitride on a surface of the particles of negative electrode active material; and by generating Li 2 CO 3 and LiOH on a surface of the particles of negative electrode active material by washing the particles of negative electrode active material on the surface of which lithium nitride is generated with a solution containing water; and producing the negative electrode active material with the prepared particles of negative electrode active material.
An air conditioning system comprising a plurality of indoor units (201, 202, 203) including a plurality of heat exchangers connected to each other in parallel, each having an expansion valve (201a, 202a, 203a), an outdoor unit including a plurality of compressors (101, 102), a condenser and a four-way valve, and a controller for controlling operation of the plurality of heat exchangers and for controlling operation of the plurality of compressors (101, 102), wherein at least one of the compressors (101, 102) provided to the outdoor unit is driven by an electromotive driving unit including a stator having a coil winding portion (112, 114) to which power is supplied, and a rotor which has conductive bars, flux barriers and permanent magnets inserted in the flux barriers, wherein the rotor rotates due to interactive electromagnetic forces, wherein an induction torque is generated between the conductive bars and the coil winding portion (112, 114) of the stator, wherein a reluctance torque is generated between the flux barriers and the coil winding portion (112, 114) of the stator and wherein a magnetic torque is generated between the permanent magnets and the coil winding portion (112, 114) of the stator, and wherein the rotor has different load torques assigned in a startup operation and in a normal operation, and wherein a capacitor is electrically connected to the coil winding portion (112, 114), characterized in that the at least one compressor driven by the electromotive driving unit is a capacity modulation compressor for driving a plurality of compression units (30, 40, 50) capable of selectively compressing a working fluid so that the compressing capacity of the plurality of compression units (30, 40, 50) may be varied, and during the startup operation of the electromotive driving unit, the compressing capacity of the plurality of compression units (30, 40, 50) is lowered so that a relatively smaller load may be applied to the electromotive driving unit.
Compacting device comprising a poker compactor for compacting bulk material in an open bag, the poker compactor comprising an outer wall and being suitable to be inserted into an open bag to cause the outer wall of the poker compactor to make contact with the bulk material and to degas and compact the bulk material in the open bag, characterized in that the outer wall of the poker compactor is at least partially formed by a gas-permeable outer suction wall of a suction device and the poker compactor comprises a vibration exciter to support degassing the bulk material by way of vibration of the poker compactor generated by the vibration exciter, and that the vibration exciter is radially surrounded by a tube device and that the suction wall surrounds the tube device at least in sections, and that at the front face the poker compactor comprises a multipart and separable connecting piece with a passage for the drive shaft of the poker compactor.
Antenna module for a vehicle roof, which antenna module has an outer cover, which outer cover is arrangeable over a vehicle roof as the outermost cover of the antenna module in a region above the vehicle roof, wherein at least one antenna (ANTAUS) of the antenna module is in a form integrated in the outer cover of the antenna module, characterized in that there is provision inside the outer cover for a protective hood, there is provision in the protective hood for at least one telescopic element, at least one antenna (ANTAUS) present in a manner integrated in the outer cover has antenna connection elements (ANTABK), the antenna module has a circuit board, and the circuit board has connecting points (SLIABK); wherein the at least one telescopic element is designed to guide and/or make contact with the antenna connection elements (ANTABK) at the connecting points (SLIABK).
A method for training a model in a distributed system, wherein the distributed system comprises a master node and a plurality of slave nodes, and each slave node comprises at least one parameter server and at least one parameter client, the model is split into different sub-models, and each parameter server stores a sub-model; the method comprises: receiving, by a parameter server in a first slave node, a training result sent by a parameter client in the first slave node in the distributed system, wherein the parameter client in the first slave node obtains the training result by executing a training task for training a sub-model stored on the parameter server in the first slave node; receiving, by a parameter server in a first slave node, a training result sent by a parameter client in a second slave node in the distributed system, wherein the parameter client in the second slave node obtains the training result by executing a training task for training the sub-model stored on the parameter server in the first slave node; and updating, by the parameter server in the first slave node based on the training results received from the parameter client in the first slave node and the parameter client in the second slave node, the sub-model stored on the parameter server in the first slave node to obtain an updated sub-model. receiving, by a parameter server in a first slave node, a training result sent by a parameter client in the first slave node in the distributed system, wherein the parameter client in the first slave node obtains the training result by executing a training task for training a sub-model stored on the parameter server in the first slave node; receiving, by a parameter server in a first slave node, a training result sent by a parameter client in a second slave node in the distributed system, wherein the parameter client in the second slave node obtains the training result by executing a training task for training the sub-model stored on the parameter server in the first slave node; and updating, by the parameter server in the first slave node based on the training results received from the parameter client in the first slave node and the parameter client in the second slave node, the sub-model stored on the parameter server in the first slave node to obtain an updated sub-model.
A materials handling system comprising a system for transporting a receptacle, and a plurality of receptacles, wherein the system for transporting a receptacle comprises: a track comprising a receiving surface configured to move a receptacle of the plurality of receptacles along the track from a first position to a second position, wherein the receiving surface is a surface upon which the plurality of receptacles are arranged to move, wherein each receptacle of the plurality of receptacles that is moveable by the system comprises a base and at least one side wall, wherein each receptacle of the plurality of receptacles that is moveable by the system further comprises a conductive element arranged proximate to the receiving surface of the track, wherein the conductive element comprises at least a conductive material impregnated into the base of each receptacle of the plurality of receptacles; a plurality of linear induction motors, LIMs, disposed along the track, wherein the plurality of LIMs are located below the receiving surface by a given distance whereby the LIMs are operable to produce a force on the conductive element of a receptacle of the plurality of receptacles passing thereby; and a control module configured to control the force produced by at least one LIM of the plurality of LIMs on the conductive element of the receptacle passing thereby, wherein the control module is operable to control the force produced by the at least one LIM independently of other LIMs to propel the receptacle along the track independently of other receptacles. a track comprising a receiving surface configured to move a receptacle of the plurality of receptacles along the track from a first position to a second position, wherein the receiving surface is a surface upon which the plurality of receptacles are arranged to move, wherein each receptacle of the plurality of receptacles that is moveable by the system comprises a base and at least one side wall, wherein each receptacle of the plurality of receptacles that is moveable by the system further comprises a conductive element arranged proximate to the receiving surface of the track, wherein the conductive element comprises at least a conductive material impregnated into the base of each receptacle of the plurality of receptacles; a plurality of linear induction motors, LIMs, disposed along the track, wherein the plurality of LIMs are located below the receiving surface by a given distance whereby the LIMs are operable to produce a force on the conductive element of a receptacle of the plurality of receptacles passing thereby; and a control module configured to control the force produced by at least one LIM of the plurality of LIMs on the conductive element of the receptacle passing thereby, wherein the control module is operable to control the force produced by the at least one LIM independently of other LIMs to propel the receptacle along the track independently of other receptacles.
A method for sharing content displayed on a desktop associated with a participant computing device, the method comprising the participant computing device performing: in response to the participant computing device being first powered on and coupled to a network: prompting a participant to enter a network address of an application server configured to distribute said content to other participant computing devices; automatically determining whether the application server is reachable from said participant computing device; coupling said participant computing device to said application server; in response to determining that the application server is reachable and coupled to the participant computing device, requesting the participant to supply login credentials to access at least one collaboration session via the participant computing device; and storing authenticated credentials to allow for automatic or transparent logins in subsequent collaborative sessions; selecting said content on said desktop for sharing; capturing said content; and automatically sending said captured content to the application server for distribution to said other participant computing devices. in response to the participant computing device being first powered on and coupled to a network: prompting a participant to enter a network address of an application server configured to distribute said content to other participant computing devices; automatically determining whether the application server is reachable from said participant computing device; coupling said participant computing device to said application server; in response to determining that the application server is reachable and coupled to the participant computing device, requesting the participant to supply login credentials to access at least one collaboration session via the participant computing device; and storing authenticated credentials to allow for automatic or transparent logins in subsequent collaborative sessions; prompting a participant to enter a network address of an application server configured to distribute said content to other participant computing devices; automatically determining whether the application server is reachable from said participant computing device; coupling said participant computing device to said application server; in response to determining that the application server is reachable and coupled to the participant computing device, requesting the participant to supply login credentials to access at least one collaboration session via the participant computing device; and storing authenticated credentials to allow for automatic or transparent logins in subsequent collaborative sessions; selecting said content on said desktop for sharing; capturing said content; and automatically sending said captured content to the application server for distribution to said other participant computing devices.
An NMR probe head for insertion into a magnet bore of an NMR magnet system, wherein the NMR probe head comprises, in a coil region, an RF coil arrangement which is used to irradiate RF pulses into an NMR measurement sample and/or to receive RF signals from the NMR measurement sample and, in an NMR measurement operating state, is arranged in a measurement region around a magnetic center inside the magnet bore, wherein the NMR probe head comprises an elongated shielding tube made of electrically conductive material for shielding against external RF radiation, which shielding tube surrounds the electrical, mechanical and RF components of the NMR probe head and through which supply lines are led from a connection region arranged outside the measurement region in the NMR measurement operating state to the coil region, wherein an elongated backbone is arranged inside the shielding tube and has an inherently rigid, mechanically stiff structure having continuous bores and/or connecting channels which run substantially parallel to the longitudinal axis of the shielding tube and accommodate electrical supply lines in the connection region and lead them to the coil region, and wherein the elongated backbone has a continuously electrically conductive outer surface which leads from the connection region to the coil region characterized in that the continuous electrically conductive outer surface of the elongated backbone leading from the connection region to the coil region is connected in an electrically conductive manner to the electrically conductive inner surface of the shielding tube via electrically conductive connecting elements, and that the backbone and the shielding tube are connected to one another such that a continuous electrically conductive contour is formed that leads from the coil region to the connection region and has the function of a honeycomb vent for damping electromagnetic fields.
An interlock coupled to a booster actuator, the actuator configured to operated with a low energy input and a high energy output using mechanically stored energy, the actuator including an actuator piston and a plunge piston coupled to the actuator piston, the interlock comprising: a housing defining a central orifice having a first end and a second end, the housing further defining an orthogonal orifice in communication with the central orifice, with the actuator coupled to the housing and with the actuator piston biased by a detent spring and plunge piston biased by a main spring disposed in and in communication with the first end of the central orifice; characterised by comprising a spring guide disposed in the central orifice and coupled to the plunge piston, with the spring guide biased by an actuating spring, with the spring guide defining an interlock notch, wherein the ratio of mechanical stored energy in the detent spring, main spring, and actuating spring is 1:25:5 respectively; and a solenoid including a solenoid pin removably secured to the housing and aligned with the orthogonal orifice, with the solenoid pin engaged with the interlock notch, the solenoid configured to selectively disengage the solenoid pin from the interlock notch when energized to release the mechanically stored energy in the actuating spring to push the spring guide against the plunge piston which compresses the detent spring allowing the main spring energy to be released to push the actuator piston out of the booster actuator. a housing defining a central orifice having a first end and a second end, the housing further defining an orthogonal orifice in communication with the central orifice, with the actuator coupled to the housing and with the actuator piston biased by a detent spring and plunge piston biased by a main spring disposed in and in communication with the first end of the central orifice; characterised by comprising a spring guide disposed in the central orifice and coupled to the plunge piston, with the spring guide biased by an actuating spring, with the spring guide defining an interlock notch, wherein the ratio of mechanical stored energy in the detent spring, main spring, and actuating spring is 1:25:5 respectively; and a solenoid including a solenoid pin removably secured to the housing and aligned with the orthogonal orifice, with the solenoid pin engaged with the interlock notch, the solenoid configured to selectively disengage the solenoid pin from the interlock notch when energized to release the mechanically stored energy in the actuating spring to push the spring guide against the plunge piston which compresses the detent spring allowing the main spring energy to be released to push the actuator piston out of the booster actuator.
A surgical staple (1300, 1340, 1350, 1360, 1370, 1380, 1400, 1450), comprising: a first deformable member (1304, 1344, 1404, 1452); a base (1301, 1408), said first deformable member extending from said base; and a driver (1302, 1402, 1451), said driver including: a cam-contacting surface (1328, 1453), said cam-contacting surface configured to operatively engage with a cam of a stapler; and characterised in that: at least a portion of said base is embedded in said driver, and said driver further includes: a tissue-contacting surface, said first deformable member configured to hold tissue intermediate said first deformable member and said tissue-contacting surface. a first deformable member (1304, 1344, 1404, 1452); a base (1301, 1408), said first deformable member extending from said base; and a driver (1302, 1402, 1451), said driver including: a cam-contacting surface (1328, 1453), said cam-contacting surface configured to operatively engage with a cam of a stapler; and characterised in that: a cam-contacting surface (1328, 1453), said cam-contacting surface configured to operatively engage with a cam of a stapler; and characterised in that: at least a portion of said base is embedded in said driver, and said driver further includes: a tissue-contacting surface, said first deformable member configured to hold tissue intermediate said first deformable member and said tissue-contacting surface. a tissue-contacting surface, said first deformable member configured to hold tissue intermediate said first deformable member and said tissue-contacting surface.