mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for processing material using focused electromagnetic radiation, having: - a source emitting electromagnetic radiation, - means (14, 16, 18, 22, 26) for directing the radiation onto the material, - means for focusing the radiation on or in the material, - a device for producing a pattern in the beam path of the electromagnetic radiation, - a partially reflective surface in the beam path upstream of the focus of the focused radiation, wherein said pattern is imaged on said partially reflective surface via at least a part of said means for directing and said means for focusing, - at least one detector (D1, D2), onto which an image of the pattern is reflected by said surface and which produces electrical signals that correspond to said image, wherein the image contains information relating to the position of the focus, - a computer, which receives said electrical signals and is programmed to process said image in order to produce an electrical signal that is dependent on the focus position, and - a divergence actuating element arranged in said beam path, characterized in that - the computer is set up to ascertain changes in the image size or in point spacings of said image as a function of divergence changes of the radiation and to produce therefrom the electrical signal that is dependent on the focus position, and - the divergence actuating element is set up to receive said electrical signal of the computer and to change the divergence of the electromagnetic radiation in dependence on the signal. - a source emitting electromagnetic radiation, - means (14, 16, 18, 22, 26) for directing the radiation onto the material, - means for focusing the radiation on or in the material, - a device for producing a pattern in the beam path of the electromagnetic radiation, - a partially reflective surface in the beam path upstream of the focus of the focused radiation, wherein said pattern is imaged on said partially reflective surface via at least a part of said means for directing and said means for focusing, - at least one detector (D1, D2), onto which an image of the pattern is reflected by said surface and which produces electrical signals that correspond to said image, wherein the image contains information relating to the position of the focus, - a computer, which receives said electrical signals and is programmed to process said image in order to produce an electrical signal that is dependent on the focus position, and - a divergence actuating element arranged in said beam path, characterized in that - the computer is set up to ascertain changes in the image size or in point spacings of said image as a function of divergence changes of the radiation and to produce therefrom the electrical signal that is dependent on the focus position, and - the divergence actuating element is set up to receive said electrical signal of the computer and to change the divergence of the electromagnetic radiation in dependence on the signal.
A system comprising: a first Local Area Network access device to establish a first LAN; a second LAN access device to establish a second LAN operationally distinct from the first LAN; a first Wide Area Network backhaul connection to provide the first LAN access device with WAN connectivity; a second WAN backhaul connection to provide the second LAN access device with WAN connectivity, wherein each of the first WAN backhaul and the second WAN backhaul are physically and logically distinct; and a traffic aggregation unit to form a logically bonded WAN interface over the first WAN backhaul and the second WAN backhaul, wherein the logically bonded WAN interface to provide the first LAN access device and the second LAN access device with WAN connectivity via a combination of first WAN services accessible via the first WAN backhaul connection and second WAN services accessible via the second WAN backhaul connection. a first Local Area Network access device to establish a first LAN; a second LAN access device to establish a second LAN operationally distinct from the first LAN; a first Wide Area Network backhaul connection to provide the first LAN access device with WAN connectivity; a second WAN backhaul connection to provide the second LAN access device with WAN connectivity, wherein each of the first WAN backhaul and the second WAN backhaul are physically and logically distinct; and a traffic aggregation unit to form a logically bonded WAN interface over the first WAN backhaul and the second WAN backhaul, wherein the logically bonded WAN interface to provide the first LAN access device and the second LAN access device with WAN connectivity via a combination of first WAN services accessible via the first WAN backhaul connection and second WAN services accessible via the second WAN backhaul connection.
Electric machine for an electric or hybrid motor vehicle, comprising a casing designed to protect the active parts (ROT, STAT) of said electric machine, a cooling system comprising means for spraying a dielectric heat-transfer cooling liquid onto at least one part of said active parts, and a reservoir designed to collect by gravity said cooling liquid flowing through at least one orifice in a wall separating said active parts and said reservoir, said machine being characterized in that it comprises, at said at least one orifice, a flap fastened to said wall and designed to close off said at least one orifice, an elastic means designed to open said flap under the effect of the gravity of said cooling liquid, and a non-return means designed to keep said flap closed when a force exerted on said cooling liquid in said reservoir brings said liquid against said flap, said flap, said elastic means and said non-return means being formed from one and the same membrane of elastic material that is fastened on either side of said at least one orifice and in which said flap is produced, the edges of the fixed portion of said membrane covering the edges of said flap, the edges of said flap forming a descent towards said reservoir.
A dynamic scheduling method, wherein the method comprises: receiving, by a scheduling platform, first virtual output queue, VOQ, length information of each aggregation switch (11, 12) in each timeslot, wherein the first VOQ length information comprises a quantity of data packets buffered in M-1 VOQs in the aggregation switch (11, 12), each of the M-1 VOQs is used to buffer a data packet that needs to be sent from a first cluster pod to one of M-1 second pods, the first pod is a pod to which the aggregation switch (11, 12) belongs, the M-1 second pods are other pods than the first pod in M pods managed by the scheduling platform, M ≥ 2, and M is an integer; aggregating, by the scheduling platform, all the received first VOQ length information, to obtain global VOQ length information, wherein the global VOQ length information comprises a total quantity of data packets that need to be sent from each of the M pods to other pods than the pod in the M pods; determining, by the scheduling platform, a transmission matching scheme based on the global VOQ length information, wherein the transmission matching scheme is used to instruct each pod to: send a data packet to one of the M pods except the pod and receive a data packet sent by one of the M pods except the pod; and sending, by the scheduling platform, corresponding matching result information to each aggregation switch (11, 12) according to the transmission matching scheme, each aggregation switch (11, 12) sends a data packet according to the transmission matching scheme. receiving, by a scheduling platform, first virtual output queue, VOQ, length information of each aggregation switch (11, 12) in each timeslot, wherein the first VOQ length information comprises a quantity of data packets buffered in M-1 VOQs in the aggregation switch (11, 12), each of the M-1 VOQs is used to buffer a data packet that needs to be sent from a first cluster pod to one of M-1 second pods, the first pod is a pod to which the aggregation switch (11, 12) belongs, the M-1 second pods are other pods than the first pod in M pods managed by the scheduling platform, M ≥ 2, and M is an integer; aggregating, by the scheduling platform, all the received first VOQ length information, to obtain global VOQ length information, wherein the global VOQ length information comprises a total quantity of data packets that need to be sent from each of the M pods to other pods than the pod in the M pods; determining, by the scheduling platform, a transmission matching scheme based on the global VOQ length information, wherein the transmission matching scheme is used to instruct each pod to: send a data packet to one of the M pods except the pod and receive a data packet sent by one of the M pods except the pod; and sending, by the scheduling platform, corresponding matching result information to each aggregation switch (11, 12) according to the transmission matching scheme, each aggregation switch (11, 12) sends a data packet according to the transmission matching scheme.
A device comprising: one or more processors configured to: receive, via wireless transmission from a streaming device, encoded ambisonics audio data representing a sound field; perform decoding of the ambisonics audio data to generate decoded ambisonics audio data, the decoding of the ambisonics audio data including base layer decoding of a base layer of the encoded ambisonics audio data and selectively including enhancement layer decoding in response to an amount of movement of the device; adjust the decoded ambisonics audio data to alter the sound field based on data associated with at least one of a translation or an orientation associated with the movement of the device; and output the adjusted decoded ambisonics audio data to two or more loudspeakers (1030, 1032) for playback. receive, via wireless transmission from a streaming device, encoded ambisonics audio data representing a sound field; perform decoding of the ambisonics audio data to generate decoded ambisonics audio data, the decoding of the ambisonics audio data including base layer decoding of a base layer of the encoded ambisonics audio data and selectively including enhancement layer decoding in response to an amount of movement of the device; adjust the decoded ambisonics audio data to alter the sound field based on data associated with at least one of a translation or an orientation associated with the movement of the device; and output the adjusted decoded ambisonics audio data to two or more loudspeakers (1030, 1032) for playback.
A method for producing a polyacrylic acid (salt)-based water absorbent resin particle, comprising the steps of: (a) adding a surface crosslinking agent solution to water absorbent resin powder to obtain a mixture; (b) reacting the mixture; and (c) adding an aqueous liquid to at least one selected from the group consisting of (i) the water absorbent resin powder during the step (b) and (ii) the water absorbent resin powder after the step (b), an atmospheric dew point being not lower than 20°C in the step (c), and a temperature of the water absorbent resin powder being higher than the atmospheric dew point in the step (c). (a) adding a surface crosslinking agent solution to water absorbent resin powder to obtain a mixture; (b) reacting the mixture; and (c) adding an aqueous liquid to at least one selected from the group consisting of (i) the water absorbent resin powder during the step (b) and (ii) the water absorbent resin powder after the step (b),
A method for manufacturing an electrode for an all solid type battery, comprising: preparing a nonwoven fabric precursor in which a plurality of polymer filaments is gathered; preparing an electrode forming slurry; mixing the nonwoven fabric precursor with the electrode forming slurry to form a mix phase; drying the mix phase to obtain a preliminary electrode; pressing the preliminary electrode; and a sintering step of thermally treating the pressed preliminary electrode to carbonize the polymer filaments, wherein the electrode forming slurry includes an electrode active material, an inorganic solid electrolyte and a solvent, and the polymer filaments are prepared by spinning a polymer material by an electrospinning method. preparing a nonwoven fabric precursor in which a plurality of polymer filaments is gathered; preparing an electrode forming slurry; mixing the nonwoven fabric precursor with the electrode forming slurry to form a mix phase; drying the mix phase to obtain a preliminary electrode; pressing the preliminary electrode; and a sintering step of thermally treating the pressed preliminary electrode to carbonize the polymer filaments, wherein the electrode forming slurry includes an electrode active material, an inorganic solid electrolyte and a solvent, and the polymer filaments are prepared by spinning a polymer material by an electrospinning method.
Method of producing a transparent optical element, acceptable for producing a transparent optical element chosen from ophthalmic lenses, contact lenses, ocular implants, lenses for optical instruments, optical sight lenses and ocular visors, which includes the step of producing a transparent optical component having at least one set of cells juxtaposed parallel to one surface of the component, in which the cells, parallel to the surface of the optical component, are separated by walls having a thickness (e) of between 0.10 μm and 10 μm, each cell being hermetically sealed and containing a substance having an optical property, the cells being separated by walls having an apodized profile so as to eliminate side lobes of scattering by the walls of light transmitted through the optical component.
A surgical instrument, comprising: a handle assembly having an approximation knob; an elongated body portion extending distally from the handle assembly; a head portion disposed adjacent a distal end of the elongated body portion and including an anvil assembly and a shell assembly, the anvil assembly being connected to the approximation knob for movement in relation to the shell assembly and to the elongated body portion between spaced and approximated positions; and a preload assembly disposed in mechanical cooperation with the shell assembly, the preload assembly enabling longitudinal movement of the shell assembly with respect to the elongated body portion, characterised in that the preload assembly includes a biasing member coaxially disposed around a proximal portion of the elongated body portion, an outer tube disposed concentrically around the elongated body portion and in mechanical cooperation with the shell assembly, the outer tube being longitudinally translatable with respect to the elongated body portion, wherein the biasing member is disposed in contact with a proximal portion of the outer tube. a handle assembly having an approximation knob; an elongated body portion extending distally from the handle assembly; a head portion disposed adjacent a distal end of the elongated body portion and including an anvil assembly and a shell assembly, the anvil assembly being connected to the approximation knob for movement in relation to the shell assembly and to the elongated body portion between spaced and approximated positions; and a preload assembly disposed in mechanical cooperation with the shell assembly, the preload assembly enabling longitudinal movement of the shell assembly with respect to the elongated body portion, characterised in that the preload assembly includes a biasing member coaxially disposed around a proximal portion of the elongated body portion, an outer tube disposed concentrically around the elongated body portion and in mechanical cooperation with the shell assembly, the outer tube being longitudinally translatable with respect to the elongated body portion, wherein the biasing member is disposed in contact with a proximal portion of the outer tube.
Hydrostatic valve arrangement for the pressure medium supply of a hydrostatic consumer (2; 2, 2a, 2b), in particular of a lifting device (1; 101), and for shutting it off in the case of leakage or fracture, with a first working flow path from a first pressure connector (a) via a first shut-off valve towards a first consumer connector, it being possible for a valve body of the first shut-off valve to be loaded with a closing pressure in the closing direction, a pressurized first flow path being provided via a throttle point towards the first consumer connector, and it being possible for the closing pressure to be increased in a manner which is dependent on a pressure downstream of the throttle point, characterized by a second working flow path from a second pressure connector (b) via a second shut-off valve towards a second consumer connector, it being possible for a valve body of the second shut-off valve to be loaded with the closing pressure in the closing direction, and a pressurized second flow path being provided via the throttle point towards the second consumer connector.
A tire comprising a toroidal carcass, and a tread reinforcing layer disposed radially outside the carcass in a tread portion, and comprising a cord-reinforced part formed by winding a rubberized cord strip with at least one reinforcing cord covered with a topping rubber, wherein the cord-reinforced part includes a mesh part in which the rubberized cord strip comprises first inclined segments and second inclined segments, the first inclined segments incline toward one side with respect to the tire circumferential direction, the second inclined segments incline to the opposite direction to the first inclined segments with respect to the tire circumferential direction, side edges of the first inclined segments are arranged not to contact with one another, side edges of the second inclined segments are arranged not to contact with one another, and the first inclined segments intersect the second inclined segments, leaving space parts each having a quadrilateral shape, wherein the mesh part has a tire-equator-side first region, a tread-edge-side second region and a third region therebetween, characterized in that the space parts within the tire-equator-side first region each have an area A1, the space parts within the tread-edge-side second region each have an area A2, and the space parts within the third region each have an area A3 smaller than the area A1 and larger than the area A2. the cord-reinforced part includes a mesh part in which the rubberized cord strip comprises first inclined segments and second inclined segments, the first inclined segments incline toward one side with respect to the tire circumferential direction, the second inclined segments incline to the opposite direction to the first inclined segments with respect to the tire circumferential direction, side edges of the first inclined segments are arranged not to contact with one another, side edges of the second inclined segments are arranged not to contact with one another, and the first inclined segments intersect the second inclined segments, leaving space parts each having a quadrilateral shape, wherein the mesh part has a tire-equator-side first region, a tread-edge-side second region and a third region therebetween, characterized in that the space parts within the tire-equator-side first region each have an area A1, the space parts within the tread-edge-side second region each have an area A2, and the space parts within the third region each have an area A3 smaller than the area A1 and larger than the area A2.
A vacuum pump comprising: a bearing and a lubricant supply system for lubricating the bearing; the lubricant supply system comprising: a lubricant reservoir comprising a reservoir matrix for receiving a lubricant; a lubricant transfer arrangement in contact with the reservoir matrix for transferring lubricant from the reservoir matrix to the bearing, the reservoir comprising a reservoir enclosure for locating the reservoir matrix in position relative to the lubricant transfer arrangement; wherein the reservoir comprises a plurality of contact regions at which the reservoir matrix is in contact with the reservoir enclosure for locating the reservoir matrix in position relative to the lubricant transfer arrangement and characterised in that the reservoir comprises a plurality of spacing regions between respective contact regions at which the reservoir matrix is spaced apart from the reservoir enclosure for receiving gas and lubricant foam caused by outgassing in the lubricant in the reservoir matrix. a bearing and a lubricant supply system for lubricating the bearing; the lubricant supply system comprising: a lubricant reservoir comprising a reservoir matrix for receiving a lubricant; a lubricant transfer arrangement in contact with the reservoir matrix for transferring lubricant from the reservoir matrix to the bearing, the reservoir comprising a reservoir enclosure for locating the reservoir matrix in position relative to the lubricant transfer arrangement; wherein the reservoir comprises a plurality of contact regions at which the reservoir matrix is in contact with the reservoir enclosure for locating the reservoir matrix in position relative to the lubricant transfer arrangement and characterised in that the reservoir comprises a plurality of spacing regions between respective contact regions at which the reservoir matrix is spaced apart from the reservoir enclosure for receiving gas and lubricant foam caused by outgassing in the lubricant in the reservoir matrix. a lubricant reservoir comprising a reservoir matrix for receiving a lubricant; a lubricant transfer arrangement in contact with the reservoir matrix for transferring lubricant from the reservoir matrix to the bearing, the reservoir comprising a reservoir enclosure for locating the reservoir matrix in position relative to the lubricant transfer arrangement; wherein the reservoir comprises a plurality of contact regions at which the reservoir matrix is in contact with the reservoir enclosure for locating the reservoir matrix in position relative to the lubricant transfer arrangement and characterised in that the reservoir comprises a plurality of spacing regions between respective contact regions at which the reservoir matrix is spaced apart from the reservoir enclosure for receiving gas and lubricant foam caused by outgassing in the lubricant in the reservoir matrix.
A turbine for converting thermal energy in mechanical work, the turbine comprising a heating system, wherein the heating system is adapted for heating the turbine in a power off state of the turbine, characterized in that the heating system comprises a heat accumulator device, wherein the heat accumulator device is adapted for storing thermal energy and for transferring the thermal energy to the turbine during the power off state and wherein the heat accumulator device is adapted to be charged with thermal energy by the turbine that is in an operating mode.