mhurhangee/patent-ind-claim-en huggingface dataset:
Assembly with a brake cylinder and an electromechanical brake booster for an electrohydraulic vehicle brake system, with a drive arrangement for driving at least one actuating device which is configured to actuate the brake cylinder , the drive arrangement having at least one electric motor and one gear mechanism for coupling the electric motor to the at least one actuating device , at least one fastening device (54; 80) being provided for fastening the assembly to a vehicle, the at least one fastening device (54; 80) comprising a flange and defining a fastening plane BE, characterized in that the drive arrangement is arranged in such a way that the rotational axis A 1 of the electric motor runs perpendicularly with respect to the longitudinal axis of the actuating device and at an angle of from 60° to 120° with respect to the fastening plane BE, the at least one fastening device (54; 80) being arranged in a region between the brake cylinder and the actuating device , the at least one fastening device (54; 80) having fastening means, the fastening means comprising fastening openings (58; 84) or fastening bolts (60, 62; 86, 88), the centre axes of which define the fastening plane BE, it being possible for the assembly to be fastened via the fastening means to a bulkhead of a vehicle.
A torsional vibration damper for automotive applications having an axis (A) and comprising: - a hub adapted to be angularly coupled in use to a drive shaft of a motor vehicle; - an annular peripheral portion extending transversely in a cantilever fashion from an outer annular portion of said hub ; and - an inertial mass carried by said peripheral portion ; wherein said inertial mass has an annular structure, coaxial to said axis (A); wherein said peripheral portion defines an annular chamber coaxial to said axis (A); wherein said inertial mass is housed in said chamber so as to be able to oscillate torsionally with respect to said axis (A); and wherein the damper also comprises at least one elastic element interposed axially between said inertial mass and a delimiting surface of said chamber so as to allow, in use, oscillation of said inertial mass in a direction parallel to said axis (A); characterized by comprising at least one friction disc interposed axially between said elastic element and said inertial mass . - a hub adapted to be angularly coupled in use to a drive shaft of a motor vehicle; - an annular peripheral portion extending transversely in a cantilever fashion from an outer annular portion of said hub ; and - an inertial mass carried by said peripheral portion ; wherein said inertial mass has an annular structure, coaxial to said axis (A); wherein said peripheral portion defines an annular chamber coaxial to said axis (A); wherein said inertial mass is housed in said chamber so as to be able to oscillate torsionally with respect to said axis (A); and wherein the damper also comprises at least one elastic element interposed axially between said inertial mass and a delimiting surface of said chamber so as to allow, in use, oscillation of said inertial mass in a direction parallel to said axis (A); characterized by comprising at least one friction disc interposed axially between said elastic element and said inertial mass . wherein said inertial mass has an annular structure, coaxial to said axis (A); wherein said peripheral portion defines an annular chamber coaxial to said axis (A); wherein said inertial mass is housed in said chamber so as to be able to oscillate torsionally with respect to said axis (A); and wherein the damper also comprises at least one elastic element interposed axially between said inertial mass and a delimiting surface of said chamber so as to allow, in use, oscillation of said inertial mass in a direction parallel to said axis (A); characterized by comprising at least one friction disc interposed axially between said elastic element and said inertial mass .
A device for detecting an absolute multi-turn rotation angle, comprising a housing , a cover plate , a rotating shaft , gears comprising a main gear and driven gears , and a two-stage speed reduction device comprising a cycle-number gear , the housing supporting the gears, the rotating shaft being placed to go through the housing , wherein the rotating shaft is fixed with the main gear , the main gear is meshed with the driven gears having a teeth number smaller than that of the main gear , the driven gears comprise a large driven gear and a small driven gear , the main gear is externally meshed with the large driven gear , the driven gears are connected with the two-stage speed reduction device which enables the rotating shaft to rotate multiple cycles to slow down to the cycle-number gear and enables the cycle-number gear to rotate one cycle only, both the driven gears and the cycle-number gear are provided with bearings , the bearings have magnets fixed therein, and the two magnets are relatively fixed with the driven gears and the cycle-number gear , respectively, wherein to the top edges of the bearings a printed circuit board is fitted, and angle sensing chips are fixed on the printed circuit board being above the magnets , whereby the angle sensing chips are apart from the upper surfaces of the magnets inside the bearings by a fixed distance, the cover plate is fixed on the housing , and the housing and the cover plate fix the position of the printed circuit board by means of fitting.
Lid for a metal container able to contain a substance, comprising: - a closing cap defined by at least one incision or pre-cut line , able to allow the closing cap to be lifted and at least partly torn, - an opening lever disposed astride the incision line and comprising a front fulcrum end and an intermediate region provided with a flexible tongue attached to the closing cap , - a mechanical element located in proximity to the incision line , configured to mechanically attach the flexible tongue to the closing cap and configured to cooperate with said flexible tongue , - said incision line having at the front, in the zone where the closing cap starts to be lifted and torn, a portion protruding outward, toward the front fulcrum end of the opening lever , wherein said protruding portion has, on both sides, segments of the incision line which move away from said mechanical element as far as respective deformation zones , caused by compression made in the metal material that defines the lid and in the material of the incision line , wherein the radius of the protruding portion is greater than the radius of the mechanical element and the profile of the protruding portion continues moving away from the mechanical element by means of said segments as far as the respective deformation zones of the material, where there is a change in the opening direction of the incision line , defined by an internal radius. - a closing cap defined by at least one incision or pre-cut line , able to allow the closing cap to be lifted and at least partly torn, - an opening lever disposed astride the incision line and comprising a front fulcrum end and an intermediate region provided with a flexible tongue attached to the closing cap , - a mechanical element located in proximity to the incision line , configured to mechanically attach the flexible tongue to the closing cap and configured to cooperate with said flexible tongue , - said incision line having at the front, in the zone where the closing cap starts to be lifted and torn, a portion protruding outward, toward the front fulcrum end of the opening lever ,
Device arranged for determining the dew point of a gas in a process chamber comprising: - a temperature control element and - a temperature sensor for determining the temperature of a dewable measuring surface of the temperature sensor , which is in thermally conductive active connection with the temperature control element , wherein the temperature control element is designed for actively heating and cooling the temperature sensor , wherein the temperature sensor is arranged in contact on the temperature control element , and wherein the temperature sensor is designed as a thermocouple, characterised in that the device is designed to determine the dew point of the gas in the process chamber by dewing the junction of a first conductor and a second conductor of the thermocouple as the only surface of the device . - a temperature control element and - a temperature sensor for determining the temperature of a dewable measuring surface of the temperature sensor , which is in thermally conductive active connection with the temperature control element ,
An apparatus comprising: a port for transmitting data; and a link coupled to the port, the port, in preparation to transmit a data block across the link, being configured to: determine a size of a burst of data to be transmitted across the link; determine a plurality of error correcting code words for forward error correction based on the size of the burst of data; interleave each of the plurality of error correcting code words to correspond with consecutive symbols of the burst of data; and transmit the burst of data comprising the interleaved plurality of error correcting code across the link, characterised in that the link is a multilane link and the port is configured to: determine a bandwidth utilization for the link; determine a length of error correcting code for forward error correction using the bandwidth utilization; encode a physical layer token with the length of error correcting code; and transmit the physical layer token across each lane of the link. a port for transmitting data; and a link coupled to the port, the port, in preparation to transmit a data block across the link, being configured to: determine a size of a burst of data to be transmitted across the link; determine a plurality of error correcting code words for forward error correction based on the size of the burst of data; interleave each of the plurality of error correcting code words to correspond with consecutive symbols of the burst of data; and transmit the burst of data comprising the interleaved plurality of error correcting code across the link, characterised in that the link is a multilane link and the port is configured to: determine a bandwidth utilization for the link; determine a length of error correcting code for forward error correction using the bandwidth utilization; encode a physical layer token with the length of error correcting code; and transmit the physical layer token across each lane of the link. determine a size of a burst of data to be transmitted across the link; determine a plurality of error correcting code words for forward error correction based on the size of the burst of data; interleave each of the plurality of error correcting code words to correspond with consecutive symbols of the burst of data; and transmit the burst of data comprising the interleaved plurality of error correcting code across the link, characterised in that the link is a multilane link and the port is configured to: determine a bandwidth utilization for the link; determine a length of error correcting code for forward error correction using the bandwidth utilization; encode a physical layer token with the length of error correcting code; and transmit the physical layer token across each lane of the link.
A method comprising: applying, using voltage-applying circuitry (110, PSC3) electrically connected to a first terminal (V-) of a first direct current, DC, bus , a first voltage on the first terminal, the first voltage being relative to a reference potential, wherein the first DC bus is electrically connected to at least one power source , and wherein the voltage-applying circuitry includes a converter and a power supply (PSC3); characterised by obtaining at least one indication that discharge of an electrical potential of a second voltage related to the first voltage should be performed, the second voltage being relative to the reference potential; and discharging the electrical potential of the second voltage, using discharge circuitry electrically connected to a second terminal (V+) of a second DC bus , by actuating a switch (S_dis1) of the discharge circuitry to electrically connect the second terminal to a ground potential in response to the at least one indication. applying, using voltage-applying circuitry (110, PSC3) electrically connected to a first terminal (V-) of a first direct current, DC, bus , a first voltage on the first terminal, the first voltage being relative to a reference potential, wherein the first DC bus is electrically connected to at least one power source , and wherein the voltage-applying circuitry includes a converter and a power supply (PSC3); characterised by obtaining at least one indication that discharge of an electrical potential of a second voltage related to the first voltage should be performed, the second voltage being relative to the reference potential; and discharging the electrical potential of the second voltage, using discharge circuitry electrically connected to a second terminal (V+) of a second DC bus , by actuating a switch (S_dis1) of the discharge circuitry to electrically connect the second terminal to a ground potential in response to the at least one indication.
An insulated glass unit comprising: a first glass pane having an outer surface and an inner surface ; a second glass pane having an outer surface and an inner surface ; a third glass pane disposed between the first and second glass panes ; a first sealed gap space defined between the first glass pane and the third glass pane ; and a second sealed gap space defined between the second glass pane and the third glass pane ; wherein any one or more of the first glass pane and the second glass pane has a thickness less than or equal to 0.7 mm, wherein the third glass pane has a thickness less than or equal to 0.7 mm, and wherein the inner surface of the first glass pane and/or the inner surface of the second glass pane is coated with at least one low emissivity coating . a first glass pane having an outer surface and an inner surface ; a second glass pane having an outer surface and an inner surface ; a third glass pane disposed between the first and second glass panes ; a first sealed gap space defined between the first glass pane and the third glass pane ; and a second sealed gap space defined between the second glass pane and the third glass pane ; wherein any one or more of the first glass pane and the second glass pane has a thickness less than or equal to 0.7 mm, wherein the third glass pane has a thickness less than or equal to 0.7 mm, and wherein the inner surface of the first glass pane and/or the inner surface of the second glass pane is coated with at least one low emissivity coating .
An apparatus for satellite communication comprising: a reflector configured to redirect electromagnetic energy; a plurality of feeds , each positioned at a predetermined location with respect to the reflector ; a feed-switching mechanism configured to selectively activate for use at least one of the plurality of feeds, each one of the plurality of feeds being connected via the feed-switching mechanism to a source of an RF signal ; and a steering mechanism configured to steer the reflector such that a focal point of the reflector approximately coincides with a position of an activated feed of the plurality of feeds, wherein the reflector is mechanically independent of the plurality of feeds and the feed-switching mechanism and is movable by the steering mechanism around a pivot coupled to an edge of the reflector . a reflector configured to redirect electromagnetic energy; a plurality of feeds , each positioned at a predetermined location with respect to the reflector ; a feed-switching mechanism configured to selectively activate for use at least one of the plurality of feeds, each one of the plurality of feeds being connected via the feed-switching mechanism to a source of an RF signal ; and a steering mechanism configured to steer the reflector such that a focal point of the reflector approximately coincides with a position of an activated feed of the plurality of feeds, wherein the reflector is mechanically independent of the plurality of feeds and the feed-switching mechanism and is movable by the steering mechanism around a pivot coupled to an edge of the reflector .
A shut-off device for the recirculation loop of a fuel cell stack, having a hydrogen inlet , a recirculation gas inlet and a purge line , characterised in that a recirculation loop shut-off valve is provided which is switched by an upstream hydrogen switching valve and in which a purge valve is integrated, which is also designed as a pressure relief valve .
Device of lighting and/or signal lights of accompaniment of a motor vehicle , ready to illuminate a zone (ZA) extending around the vehicle , the aforementioned device comprising two first sources of white light respectively associated with at least with first (51.53) and second turnings modules of lighting and/or signal lights, ready respectively to generate beams of light following of the determined directions, characterized in that each one of the first (51.53) and second revolving modules present a first face (MIR) and a second face (MOT) opposed to the first: the first face (MIR) comprising a reflective surface ready to direct the beam of light emitted by the first source of white light worms the aforementioned zone (ZA) and the second face (MOT) supporting a pattern; the aforementioned device comprising moreover a control unit (OC), ready to command the rotation and the intensity of the first and second modules (51, 52.53) during a cycle of limited duration (T), the control unit being adapted to command the rotation and the luminous intensity of at least a first module turning during the cycle of limited duration (T) to direct its first face (MIR) worms the aforementioned zone (ZA) so as to sweep at least partially the aforementioned zone (ZA) by a succession of at least two successive rotations of at least 180° in a direction then in the other of the revolving module with a given luminous intensity of the first white source of light according to time, and directing the first and second modules to present in a synchronous way at the end of the cycle of limited duration (T) their second faces (MOT) in a visible way of the outside of the vehicle , the control unit (OC) being coupled with a device of detection of presence (CVM) ready to detect and follow displacements of occupants of the vehicle outside the vehicle , in the aforementioned zone (ZA); the aforementioned control unit (OC) directing during the cycle of limited duration (T) the first face (MIR) of at least a second turning module towards the detected occupants then followed by the device of detection of presence (CVM) during their displacements in the aforementioned zone (ZA).
A test chamber , comprising a temperature-insulated test space , which is sealable against an environment , for receiving test material and a temperature control device for controlling a temperature of the test space, the test chamber comprising a vibration device which is disposed in an opening formed in a wall of the test space, test material being disposed within the test space on a vibrator of the vibration device and mechanical vibrations of the test material and a temperature change in the test space being realized within a test time segment according to a prespecified test sequence, a gap , which is formed between the wall and the vibration device, being sealed by means of a flexible membrane of the test chamber, characterized in that a bulkhead of the test chamber connects the wall and the vibration device, the bulkhead being more pressure-resistant and/or fire-resistant compared to the membrane, the bulkhead comprising a thermal insulation layer which is disposed in the gap.
An ophthalmic fluid applicator comprising: an inlet end for connection to a fluid supply device ; an outlet end for attachment to a needle element, and a main tubular container body connecting the inlet end and the outlet end ; wherein the main tubular container body comprises at least in part a flexible wall portion providing a variable inner volume to the tubular container body and a longitudinally arranged rigid wall portion connecting the inlet end and the outlet end , and wherein the flexible wall portion is longitudinally arranged between the inlet end and the outlet end; characterised in that the inlet end comprises an inlet one-way valve . an inlet end for connection to a fluid supply device ; an outlet end for attachment to a needle element, and a main tubular container body connecting the inlet end and the outlet end ; wherein the main tubular container body comprises at least in part a flexible wall portion providing a variable inner volume to the tubular container body and a longitudinally arranged rigid wall portion connecting the inlet end and the outlet end , and wherein the flexible wall portion is longitudinally arranged between the inlet end and the outlet end; characterised in that the inlet end comprises an inlet one-way valve .
A method of index compression in a computer device , comprising: reading , at a processing unit in the computer device , a plurality of groups of three indices, each group of three indices corresponding to at least a part of one of a plurality of triangular primitives (T1-T6) of a mesh of an object to be rendered; characterized in that : identifying a smallest index in each of the plurality of groups; rotating indices in each of the plurality of groups such that the smallest index is a first value; calculating unsigned delta encoded values relative to the smallest index in each of the plurality of groups for remaining indices in each of the plurality of groups; converting the plurality of groups of indices into a plurality of compressed groups of indices, wherein each one of the plurality of compressed groups of indices includes the first value corresponding to an absolute value of the smallest index of the one of the plurality of groups followed by the unsigned delta encoded values of the remaining indices of the one of the plurality of groups; and storing the plurality of compressed groups of indices. reading , at a processing unit in the computer device , a plurality of groups of three indices, each group of three indices corresponding to at least a part of one of a plurality of triangular primitives (T1-T6) of a mesh of an object to be rendered; characterized in that : identifying a smallest index in each of the plurality of groups; rotating indices in each of the plurality of groups such that the smallest index is a first value; calculating unsigned delta encoded values relative to the smallest index in each of the plurality of groups for remaining indices in each of the plurality of groups; converting the plurality of groups of indices into a plurality of compressed groups of indices, wherein each one of the plurality of compressed groups of indices includes the first value corresponding to an absolute value of the smallest index of the one of the plurality of groups followed by the unsigned delta encoded values of the remaining indices of the one of the plurality of groups; and storing the plurality of compressed groups of indices. identifying a smallest index in each of the plurality of groups; rotating indices in each of the plurality of groups such that the smallest index is a first value; calculating unsigned delta encoded values relative to the smallest index in each of the plurality of groups for remaining indices in each of the plurality of groups; converting the plurality of groups of indices into a plurality of compressed groups of indices, wherein each one of the plurality of compressed groups of indices includes the first value corresponding to an absolute value of the smallest index of the one of the plurality of groups followed by the unsigned delta encoded values of the remaining indices of the one of the plurality of groups; and storing the plurality of compressed groups of indices.