mhurhangee/ep-ind-claims huggingface dataset:
A high voltage relay resistant to instantaneous high-current impact, comprising: an electromagnet system, a control system, a contact system, and a base support, wherein the electromagnet system is connected to the control system, and the electromagnet system is configured to generate a magnetic field to provide a driving force for the control system; the control system is connected to the contact system, and the control system is configured to control contacts in the contact system to open and close; the contact system comprises, a movable copper plate, a connecting piece, a current outflow plate, a movable contact, and a static contact; the movable contact is fastened on the movable copper plate, and the static contact is fastened on the current outflow plate; the high voltage relay is characterized in that: the contact system further comprises a current inflow plate, the current inflow plate and the current outflow plate are fastened on the base support; and the connecting piece is riveted or welded onto the current inflow plate and the movable copper plate; and the connecting piece is a soft connecting piece; wherein the contact system generates an electromagnetic force when an instantaneous high current passes the high voltage relay, to offset an electric repulsion force between the contacts. the contact system comprises, a movable copper plate, a connecting piece, a current outflow plate, a movable contact, and a static contact; the movable contact is fastened on the movable copper plate, and the static contact is fastened on the current outflow plate; the high voltage relay is characterized in that: the contact system further comprises a current inflow plate, the current inflow plate and the current outflow plate are fastened on the base support; and the connecting piece is riveted or welded onto the current inflow plate and the movable copper plate; and the connecting piece is a soft connecting piece; wherein the contact system generates an electromagnetic force when an instantaneous high current passes the high voltage relay, to offset an electric repulsion force between the contacts. the contact system further comprises a current inflow plate, the current inflow plate and the current outflow plate are fastened on the base support; and the connecting piece is riveted or welded onto the current inflow plate and the movable copper plate; and the connecting piece is a soft connecting piece; wherein the contact system generates an electromagnetic force when an instantaneous high current passes the high voltage relay, to offset an electric repulsion force between the contacts.
Bead breaking unit for tyre changing machines, comprising at least one arm associated revolving with a supporting structure, at least a bead breaking tool associated with said arm, at least one resting surface of a tyre of a wheel to undergo bead breaking, movement means operatively associated with said arm and suitable for moving said arm from a disengaging position, wherein said bead breaking tool is substantially moved away from said tyre, to an operating position, wherein said bead breaking tool is suitable for engaging on said tyre, said arm having tilting means of said bead breaking tool suitable for allowing the partial rotation of said bead breaking tool when it is engaged on said tyre and activation/deactivation means of said tilting means, characterized in that it comprises adjustment means for varying the angle of incidence of said bead breaking tool with respect to said resting surface according to the dimensions and/or the hardness and/or the particular type of tyre to undergo bead breaking.
A refrigerant blend consisting of: about 47.5% by weight difluoromethane (HFC-32), about 12% by weight pentafluoroethane (HFC-125), about 36.5% by weight trifluoroiodomethane (CF 3 I); and about 4% by weight of trans 1,3,3,3-tetrafluoropropene (trans HFO-1234ze) wherein the percentages are based on the total weight of the four compounds in the blend, and wherein about means that the amount of the component can vary by an amount of +/- 2% by weight, preferably +/- 1% by weight, and even more preferably +/- 0.5% by weight. about 47.5% by weight difluoromethane (HFC-32), about 12% by weight pentafluoroethane (HFC-125), about 36.5% by weight trifluoroiodomethane (CF 3 I); and about 4% by weight of trans 1,3,3,3-tetrafluoropropene (trans HFO-1234ze) wherein the percentages are based on the total weight of the four compounds in the blend, and wherein about means that the amount of the component can vary by an amount of +/- 2% by weight, preferably +/- 1% by weight, and even more preferably +/- 0.5% by weight.
Motor vehicle drum brake module which can be operated by electric motor, wherein an expansion device is arranged so as to float and so as to be approximately central between two brake shoes (3, 4), wherein the expansion device comprises at least two mechanism levers articulated to each other and each supported on a brake shoe (3, 4), wherein at least one of the mechanism levers of the expansion device is coupled to an actuating element of an actuator, which is arranged together with a rotation-translation converter on a rear side of an anchor plate, wherein the actuator system serves to ensure that the brake shoes (3, 4) carry out a uniform, translationally directed expansion movement, subject to a transmission ratio, in the direction of the brake drum, characterized in that at least one of the mechanism levers has at least one integrated spring means, which can be elastically reversibly deformed in a defined manner by the brake application force.
Self-driving floor cleaning machine, having a running gear which drives the floor cleaning machine so as to be mobile, and at least one drive wheel (2, 2') which is able to be driven in a rotating direction, as well as a control device for controlling the movement of the floor cleaning machine, having a plurality of rotatably driven sweeping brushes (7, 7') by way of which dirt particles situated on the floor to be cleaned are able to be conveyed to a first suction nozzle which suctions the dirt particles, wherein one or a plurality of moisture nozzles, which is/are directed onto the floor to be cleaned, in the direction of movement of the floor cleaning machine is/are disposed behind the sweeping brushes (7, 7'), and one or a plurality of scrubbing brushes, which is/are able to be movably driven, in the direction of movement of the floor cleaning machine is/are disposed behind the moisture nozzles, characterized in that one or a plurality of second suction nozzles, which by way of the suction opening thereof is/are directed towards the floor, is/are disposed on those sides of the scrubbing brushes that face away from the moisture nozzles (11, 17).
A method for establishing a real-time communication event, via a communication network, between a caller being a user of a first client device and a callee being another user of another, second client device, the method comprising a client running on the first client device: performing a first phase of a communication event establishment procedure by transmitting via the network a message to the second client device or to a server connected to the network, the message including multiple options pertaining to a second phase of the communication event establishment process yet to be performed; wherein the message comprises, for each of the multiple options, a different network address of said communication network unique to that option which can be accessed by the second client device or the server to select that option, and the method further comprises: detecting that the network address unique to one of the multiple options has been accessed by the second client device or the server; and in response, instigating the second phase of the communication event establishment procedure in accordance with said one of the multiple options. performing a first phase of a communication event establishment procedure by transmitting via the network a message to the second client device or to a server connected to the network, the message including multiple options pertaining to a second phase of the communication event establishment process yet to be performed; wherein the message comprises, for each of the multiple options, a different network address of said communication network unique to that option which can be accessed by the second client device or the server to select that option, and the method further comprises: detecting that the network address unique to one of the multiple options has been accessed by the second client device or the server; and in response, instigating the second phase of the communication event establishment procedure in accordance with said one of the multiple options. detecting that the network address unique to one of the multiple options has been accessed by the second client device or the server; and in response, instigating the second phase of the communication event establishment procedure in accordance with said one of the multiple options.
A process for producing purified methanol and dimethyl ether from crude methanol, wherein the crude methanol is processed in at least one prepurification stage, wherein a first partial stream of the prepurified methanol is supplied to a final methanol purification, and wherein a second partial stream of the prepurified methanol is supplied to a reactor and at least partly converted to dimethyl ether, and the dimethyl ether recovered is purified in at least one purification stage, and wherein non-reacted methanol is withdrawn from the dimethyl ether purification stage and at least partly supplied to the final methanol purification.
A method for controlling a heating installation which supplies a heating medium with a predeterminable flow temperature (T v) to at least one heater, comprising the following steps: a) determination of the current mass flow (ṁ) which is supplied to the heater in the room with a current flow temperature (T va); b) determination of a desired heating surface capacity (Q s) in the room, in which the heater is arranged; c) determination of the flow temperature (T vs), which, given an unchanged mass flow (ṁ), delivers the desired heating surface capacity (Q s) in order to control the heating performance of the heater as a function of the determined flow temperature (T vs), characterised in that d) a plurality of heaters (H, H', H"...) are provided in various rooms (R, R', R"...), to all of which the same heating medium with the same flow temperature (T v) is applied, and in that the new flow temperature (T vs) is determined on the basis of that room (R, R', R"...) for which the difference between the current heating surface capacity (Q, Q', Q"...) and the new heating surface capacity (Q s, Q' s, Q" s...) striven for is the smallest. a) determination of the current mass flow (ṁ) which is supplied to the heater in the room with a current flow temperature (T va); b) determination of a desired heating surface capacity (Q s) in the room, in which the heater is arranged; c) determination of the flow temperature (T vs), which, given an unchanged mass flow (ṁ), delivers the desired heating surface capacity (Q s) in order to control the heating performance of the heater as a function of the determined flow temperature (T vs), characterised in that d) a plurality of heaters (H, H', H"...) are provided in various rooms (R, R', R"...), to all of which the same heating medium with the same flow temperature (T v) is applied, and in that the new flow temperature (T vs) is determined on the basis of that room (R, R', R"...) for which the difference between the current heating surface capacity (Q, Q', Q"...) and the new heating surface capacity (Q s, Q' s, Q" s...) striven for is the smallest.
A multi-zone motor vehicle air conditioning system with more than two zones having at least one heater and at least one evaporator which are arranged in an air conduction housing, wherein at least one separating wall is provided in the interior of the air conduction housing, separating the air conduction housing into at least two areas (I-II, III-IV) and thereby separating the air flow to be conducted to the vehicle interior into partial air flows which are conditioned in the air conduction housing and then conducted to climate zones (ZI-ZIV), wherein an air duct branches off from at least one first area (III or IV) of the air conduction housing and supplies another climate zone (ZI or ZII) of the vehicle interior with a conditioned partial air flow than the one or more other air ducts (L4, L5) branching off from this first area (III or IV) of the air conduction housing, characterised in that the air duct (L3f) branching off from this first area (III or IV) of the air conduction housing leads to the footwell of the front area on the driver's side and in that an air duct (L1f) branches off to the centre nozzle on the driver's side and an air duct (L2f) branches off to the side nozzle on the driver's side in the front area from the second area (I or II) separated from the first area (III or IV) by the separating wall.
An apparatus for depositing particles on a substrate, the apparatus comprising: a. an aerosol supplier of an aerosol of particles; b. a plurality of suppliers of ionized gas molecules, designated below as a plurality of ionizers, arrayed along a first dimension; c. a coating chamber coupled to the aerosol supplier and the ionizers, so that the ionized gas molecules and the aerosol particles can be maintained in proximity, such that substantially all the particles can become charged; d. a movable substrate support, upon which a substrate can be placed and moved, along the first dimension; and e. an electric field generator, at which an electric field can be generated that can direct charged particles to a substrate upon the substrate support, the electric field being large enough in magnitude to direct charged particles to a substrate and the field being located downstream along the first dimension, with respect to motion of the movable support, of at least two of the ionizers, wherein the aerosol supplier is configured to supply an aerosol gas, the ionizer is configured to supply an ionizer gas that is different from the aerosol gas. a. an aerosol supplier of an aerosol of particles; b. a plurality of suppliers of ionized gas molecules, designated below as a plurality of ionizers, arrayed along a first dimension; c. a coating chamber coupled to the aerosol supplier and the ionizers, so that the ionized gas molecules and the aerosol particles can be maintained in proximity, such that substantially all the particles can become charged; d. a movable substrate support, upon which a substrate can be placed and moved, along the first dimension; and e. an electric field generator, at which an electric field can be generated that can direct charged particles to a substrate upon the substrate support, the electric field being large enough in magnitude to direct charged particles to a substrate and the field being located downstream along the first dimension, with respect to motion of the movable support, of at least two of the ionizers,
Process of producing covering panels, such as floor panels, wall panels or ceiling panels, each covering panel comprising a top layer and at least one substrate, whereby said at least one substrate comprises a synthetic material and a filler material; the method comprising the steps of: - mixing a synthetic material and a filler material, thereby obtaining a mixture; - extrusion of said mixture, thereby obtaining a substrate; - optionally, laminating said substrate to a top layer; thereby obtaining a covering panel; - annealing said covering panel, characterized, in that said filler material is mixed with said synthetic material in an amount from 15 to 75 wt.% based on the total weight of said mixture. - mixing a synthetic material and a filler material, thereby obtaining a mixture; - extrusion of said mixture, thereby obtaining a substrate; - optionally, laminating said substrate to a top layer; - annealing said covering panel,
A communication device (10, 110, 210, 310, 410, 510, 610, 710, 810, 910) comprising: a body (20, 120, 220, 320, 420, 520, 620, 720, 820, 920, 3020) comprising a distal surface (24, 74, 924) compatible with skin; a tissue interface (30, 130, 230, 330, 430, 530, 630, 730, 830, 930, 2030, 3030) on the distal surface, the tissue interface comprising a plurality of energy generators (31, 931), each energy generator being operable to output a plurality of different energy types in a signal direction toward the skin; an attachment element (70, 170, 270, 370, 470, 570, 670, 770, 870, 970, 3070) configured to maintain the tissue interface against the skin; and a processing unit (60, 960) configured to communicate with nerves associated with the skin by receiving input data (80, 980, 980A, 980B) from a data source (81, 981, 981A, 981B) and causing the plurality of energy generators to output an energy signal (90, 90', 990, 9901, 9902) in the signal direction with one or more energy types of the plurality of different energy types. a body (20, 120, 220, 320, 420, 520, 620, 720, 820, 920, 3020) comprising a distal surface (24, 74, 924) compatible with skin; a tissue interface (30, 130, 230, 330, 430, 530, 630, 730, 830, 930, 2030, 3030) on the distal surface, the tissue interface comprising a plurality of energy generators (31, 931), each energy generator being operable to output a plurality of different energy types in a signal direction toward the skin; an attachment element (70, 170, 270, 370, 470, 570, 670, 770, 870, 970, 3070) configured to maintain the tissue interface against the skin; and a processing unit (60, 960) configured to communicate with nerves associated with the skin by receiving input data (80, 980, 980A, 980B) from a data source (81, 981, 981A, 981B) and causing the plurality of energy generators to output an energy signal (90, 90', 990, 9901, 9902) in the signal direction with one or more energy types of the plurality of different energy types.
Zeolitic composition comprising: 1 at least one zeolite selected from A, X and/or Y synthetic zeolites and/or from natural zeolites of the chabazite type, regardless of the associated cation or cations on one and/or the other of these zeolites, and 2 at least one zeolite of the clinoptilolite type, and regardless of the associated cation or cations, which may be different or not from that or those of the zeolite or zeolites as defined in 1, characterized in that the zeolite or zeolites as defined in 1 accounts for at least 50% of the total zeolitic mass of the composition of the invention, the zeolite or zeolites as defined in 2 accounting for up to 50% of the total zeolitic mass of said composition. 1 at least one zeolite selected from A, X and/or Y synthetic zeolites and/or from natural zeolites of the chabazite type, regardless of the associated cation or cations on one and/or the other of these zeolites, and 2 at least one zeolite of the clinoptilolite type, and regardless of the associated cation or cations, which may be different or not from that or those of the zeolite or zeolites as defined in 1,
Process for manufacturing free form inflatable bodies, which bodies comprise two opposing membranes (3,4) that are hermetically bonded to each other or to other parts of an assembly at their circumference to form an inflatable chamber, which membranes are internally linked by a plurality of link tapes of varying lengths, such that each of the link tapes is at both ends bonded to one of said opposing membranes (3,4) at a bond line in a distribution pattern containing parameters for exact coordinates for positions of the bond lines, planar orientation angle offsets of the bond lines, as well as membrane offset distance and inclination, to allow such a body to assume a desired exact and smooth curvature, and sufficient rigidity required for its function upon inflation, wherein the process comprises a feed of continuous link tape and a bond line activation of the feed of continuous link tape to the opposing membranes, and wherein said parameters are numerically applied during feeding, positioning and bonding of each individual link tape.
An artificial lawn, in particular an artificial grass sports field, comprising a substrate, as well as artificial fibres extending upwards from said substrate, characterised in that the substrate is formed to have integral protrusions that extend upwards between and along the artificial grass fibres.
A system comprising: a first imager comprising a pixel array, the imager configured to capture image data; a first variable transmittance mirror (12, 12a, 12b, 12c) having a first level of transmittance; a controller configured to: assign a first light intensity value to one or more pixels, and change the first level of transmittance to a second level of transmittance based at least in part on the detected first light intensity; and a second variable transmittance mirror (12, 12a, 12b, 12c), having a third level of transmittance; wherein the controller is further configured to: determine whether the first light intensity is present in a first region of the pixel array, and change the first level of transmittance to a second level of transmittance and the third level of transmittance to a fourth level of transmittance, based further at least in part on: the detected first light intensity, and a determination of the presence of the first light intensity in the first region. a first imager comprising a pixel array, the imager configured to capture image data; a first variable transmittance mirror (12, 12a, 12b, 12c) having a first level of transmittance; a controller configured to: assign a first light intensity value to one or more pixels, and change the first level of transmittance to a second level of transmittance based at least in part on the detected first light intensity; and assign a first light intensity value to one or more pixels, and change the first level of transmittance to a second level of transmittance based at least in part on the detected first light intensity; and a second variable transmittance mirror (12, 12a, 12b, 12c), having a third level of transmittance; determine whether the first light intensity is present in a first region of the pixel array, and change the first level of transmittance to a second level of transmittance and the third level of transmittance to a fourth level of transmittance, based further at least in part on: the detected first light intensity, and a determination of the presence of the first light intensity in the first region. the detected first light intensity, and a determination of the presence of the first light intensity in the first region.
Method for encoding a video stream comprising: determining a level of relevance for areas in an image frame to be included in the video stream, wherein the determining includes determining a noise level in areas of the image frame, wherein a lower value for the level of relevance is set where a higher noise level is determined than for where a lower noise level is determined; determining a block size value for coding blocks in the image frame; and encoding the image frame using coding block sizes based on the determined block size values for each of the coding blocks, characterized in that the block size value is depending on the level of relevance determined for the area including each coding block, respectively, wherein higher level of relevance relates to smaller block sizes than lower level of relevance. determining a level of relevance for areas in an image frame to be included in the video stream, wherein the determining includes determining a noise level in areas of the image frame, wherein a lower value for the level of relevance is set where a higher noise level is determined than for where a lower noise level is determined; determining a block size value for coding blocks in the image frame; and encoding the image frame using coding block sizes based on the determined block size values for each of the coding blocks, characterized in that the block size value is depending on the level of relevance determined for the area including each coding block, respectively, wherein higher level of relevance relates to smaller block sizes than lower level of relevance.