mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle suspension system comprising: an axle for supporting one or more wheels on opposite end portions thereof; a first gas chamber operably coupled to the axle , wherein movement of the axle in a first direction compresses the first gas chamber; a second gas chamber operably coupled to the axle , wherein movement of the axle in a second direction, opposite to the first direction, compresses the second gas chamber; and a conduit operably connecting the first gas chamber in fluid communication with the second gas chamber, wherein the axle is a lift axle, wherein the first gas chamber is a portion of a load spring configured to carry load between the lift axle and a vehicle frame when the lift axle is in a lowered position in which the wheels are in contact with the ground, and wherein the second gas chamber is a portion of a lift actuator configured to move the lift axle from the lowered position to a raised position in which the wheels are spaced apart from the ground, characterized in the system is configured such that compression of the first gas chamber in response to movement of the axle in the first direction drives gas from the first gas chamber to the second gas chamber through the conduit , and wherein compression of the second gas chamber in response to movement of the axle in the second direction when the axle is in the lowered position drives gas from the second gas chamber to the first gas chamber through the conduit . an axle for supporting one or more wheels on opposite end portions thereof; a first gas chamber operably coupled to the axle , wherein movement of the axle in a first direction compresses the first gas chamber; a second gas chamber operably coupled to the axle , wherein movement of the axle in a second direction, opposite to the first direction, compresses the second gas chamber; and a conduit operably connecting the first gas chamber in fluid communication with the second gas chamber, wherein the axle is a lift axle, wherein the first gas chamber is a portion of a load spring configured to carry load between the lift axle and a vehicle frame when the lift axle is in a lowered position in which the wheels are in contact with the ground, and wherein the second gas chamber is a portion of a lift actuator configured to move the lift axle from the lowered position to a raised position in which the wheels are spaced apart from the ground, characterized in the system is configured such that compression of the first gas chamber in response to movement of the axle in the first direction drives gas from the first gas chamber to the second gas chamber through the conduit , and wherein compression of the second gas chamber in response to movement of the axle in the second direction when the axle is in the lowered position drives gas from the second gas chamber to the first gas chamber through the conduit .
An integrated magnetic resonance device (MRD) and a reactor comprising means for containing a flowing media and reacting said media; said reactor comprising a continuous wall portion, enveloping said reactor; said MRD comprising a permanent magnet (1 a), a pole piece (1 b), an array of side wall magnets (1 c), a shimming mechanism adapted to maintain uniform magnetic field within said reactor, a global gradient coil extending along the length of said reactor, an array of local gradient coils , positioned at intervals along the length of said reactor and overlapping each other such that any volume section within said reactor is within the field of at least one of the local gradient coils; said MRD is adapted for applying a magnetic field within said reactor for performing a plurality of localized spectroscopic measurements; characterized in that said permanent magnet (1 a), said pole piece (1 b), said array of side wall magnets (1 c), said shimming mechanism , said global gradient coil and said array of local gradient coils , are integrated within said continuous wall portion.
Device for laterally coupling pump light into a fibre comprising the fibre which runs in a longitudinal direction (L) and which has an optically active medium to be pumped, with a lateral wall running approximately in the longitudinal direction (L) and with at least one light coupling means, at least some part of which runs parallel to the fibre along the lateral wall , wherein the light coupling means is an optical waveguide which is optically coupled to the fibre such that pump light propagating in the optical waveguide can be coupled into the fibre via the lateral wall , in particular by means of mode crosstalk, or by the overlap of evanescent fields, wherein the fibre has two or more pump sections, each running in the longitudinal direction (L) and arranged next to one another, between which an optical waveguide is in each case arranged, characterised in that the optical waveguides are formed in a plate-formed wafer having a first layer consisting of an optically transparent material in which the optical waveguides are created, and a second layer for stabilisation, wherein the device includes a coupling part with a flat contact surface for coupling pump light into the optical waveguide which lies against a flat lateral surface of an optical waveguide.
Method of handling a wind turbine comprising a nacelle coupled via a yawing system to a tower , in particular for protection against high wind load, the method comprising: supplying a control signal to a yawing actuator of the yawing system , while the nacelle is in a first orientation; exerting, by the yawing actuator , a torque to the nacelle relative to the tower , thereby turning the nacelle to a second orientation being a downwind orientation, characterized in that the second orientation is defined with respect to an actual wind direction or with respect to the first orientation, and the definition of the second orientation is switched between a definition with respect to an actual wind direction and a definition with respect to the first orientation depending on an availability of wind direction information. supplying a control signal to a yawing actuator of the yawing system , while the nacelle is in a first orientation; exerting, by the yawing actuator , a torque to the nacelle relative to the tower , thereby turning the nacelle to a second orientation being a downwind orientation, characterized in that the second orientation is defined with respect to an actual wind direction or with respect to the first orientation, and the definition of the second orientation is switched between a definition with respect to an actual wind direction and a definition with respect to the first orientation depending on an availability of wind direction information. characterized in that the second orientation is defined with respect to an actual wind direction or with respect to the first orientation, and the definition of the second orientation is switched between a definition with respect to an actual wind direction and a definition with respect to the first orientation depending on an availability of wind direction information.
A sliding bearing comprising: an outer ring ; an inner ring concentrically disposed inside the outer ring ; an outer-ring-side V groove formed over an entire circumference on an inner peripheral surface of the outer ring ; an inner-ring-side V groove formed over an entire circumference on an outer peripheral surface of the inner ring ; an annular raceway having four raceway surfaces defined by the outer-ring-side V groove and the inner-ring-side V groove ; and a sliding body accommodated in the raceway , wherein an outer peripheral surface of the sliding body is in contact with the respective raceway surfaces in a slidable state, and the sliding body is formed of an endless coil spring. an outer ring ; an inner ring concentrically disposed inside the outer ring ; an outer-ring-side V groove formed over an entire circumference on an inner peripheral surface of the outer ring ; an inner-ring-side V groove formed over an entire circumference on an outer peripheral surface of the inner ring ; an annular raceway having four raceway surfaces defined by the outer-ring-side V groove and the inner-ring-side V groove ; and a sliding body accommodated in the raceway , wherein an outer peripheral surface of the sliding body is in contact with the respective raceway surfaces in a slidable state, and the sliding body is formed of an endless coil spring.
A surface treated metal material for burn-in test socket, comprising a metal base material, a lower layer being constituted with Ni or Ni-Co, an intermediate layer formed on the lower layer, the intermediate layer being constituted with Ni-Sn, and an upper layer formed on the intermediate layer, the upper layer being constituted with Ag-Sn, wherein the thickness of the lower layer is 0.05 μm or more and less than 5.00 μm, the thickness of the intermediate layer is 0.01 μm or more and less than 0.40 μm, and the thickness of the upper layer is 0.02 μm or more and less than 1.00 μm characterized in that the surface treated metal material for burn-in test socket having a contact resistance value of 2.0 mΩ or less by being held for 200 hours at 180°C with contacting the surface treated metal material with other metal material(s) from a side of the upper layer, and a diffusion depth of a coating metal element of the other metal material(s) in the surface treated metal material, by being held for 200 hours at 180°C with contacting the surface treated metal material at contact load of 2.4 N with other metal material(s) from a side of the upper layer, is 0.5 μm or less from a surface of the surface treated metal material.
Use of a sealing part for sealing a door with respect to a wall opening in a more secure manner against water running in from behind, comprising - a stiff basic body , - a first sealing film , - a second sealing film , - wherein the first sealing film and the second sealing film are tightly connected to the stiff basic body and protrude beyond the basic body at least on one side while respectively forming a sealing tab projecting from the basic body , wherein - the sealing part is connected in prefabricated form to the outer frame back of the outer frame of the door, and, - after mounting, the second sealing tab is sealingly connected to the building, characterized in that , - after mounting a floor recess profile and/or a threshold , the first sealing tab is sealingly connected to the exterior visible surface of the floor recess profile and/or of the threshold . - a stiff basic body , - a first sealing film , - a second sealing film , - wherein the first sealing film and the second sealing film are tightly connected to the stiff basic body and protrude beyond the basic body at least on one side while respectively forming a sealing tab projecting from the basic body , wherein - the sealing part is connected in prefabricated form to the outer frame back of the outer frame of the door, and, - after mounting, the second sealing tab is sealingly connected to the building, characterized in that , - after mounting a floor recess profile and/or a threshold , the first sealing tab is sealingly connected to the exterior visible surface of the floor recess profile and/or of the threshold .
A method performed at a source master eNodeB, MeNB, for handing over a user equipment, UE, to a target MeNB without secondary eNB, SeNB, change, in a wireless communication system with dual connectivity, DC, the method comprising: transmitting a handover request message to a target MeNB, wherein the handover request message includes a SeNB identifier, ID; receiving a handover request acknowledge message from the target MeNB as a response to the handover request message, wherein the handover request acknowledge message includes first information informing that SeNB bearers are kept for the UE; and transmitting a SeNB release request message to the SeNB, wherein the SeNB release request message includes second information informing that the SeNB bearers are kept for the UE, wherein the UE is currently connected to both the source MeNB and the SeNB in the DC, and wherein the UE is to be handed over to the target MeNB without change of the SeNB. transmitting a handover request message to a target MeNB, wherein the handover request message includes a SeNB identifier, ID; receiving a handover request acknowledge message from the target MeNB as a response to the handover request message, wherein the handover request acknowledge message includes first information informing that SeNB bearers are kept for the UE; and transmitting a SeNB release request message to the SeNB, wherein the SeNB release request message includes second information informing that the SeNB bearers are kept for the UE, wherein the UE is currently connected to both the source MeNB and the SeNB in the DC, and wherein the UE is to be handed over to the target MeNB without change of the SeNB.
A seal assembly for a gas turbine engine comprising: a seal carrier ; a seal press fit within an inner diameter of the seal carrier , the seal including an outer ring supporting a radially moveable shoe supported by at least one beam , the outer ring including an inner radial surface having at least one tab extending radially inward toward the shoe for aiding removal of the seal from the carrier , wherein: the outer ring includes a first face and the seal carrier includes a stop wall portion extending radially inward, the stop wall portion includes a plurality of circumferentially spaced carrier openings characterized in that the at least one tab is visible through at least one of the carrier openings . a seal carrier ; a seal press fit within an inner diameter of the seal carrier , the seal including an outer ring supporting a radially moveable shoe supported by at least one beam , the outer ring including an inner radial surface having at least one tab extending radially inward toward the shoe for aiding removal of the seal from the carrier , wherein: the outer ring includes a first face and the seal carrier includes a stop wall portion extending radially inward, the stop wall portion includes a plurality of circumferentially spaced carrier openings characterized in that the at least one tab is visible through at least one of the carrier openings .
A fire activatable pressure relief method for pressurized gaseous fuel tanks, the method comprising: surrounding a pressurized gaseous fuel tank or vessel having a fluid connection into the tank and a valve at its distal end with a plurality of stretchable net coverings (22A-22F); anchoring the first covering to one end of the tank; affixing the additional net coverings (22B-22F) to the first covering forming a mesh via one or more fire and temperature sensitive fuse wire ; affixing the net covering at the distal end of the pressure vessel to an actuator ring ; connecting the actuator ring to a thermally-activated pressure relief device "TPRD" system to compress a spring ; and, a movable spool associated with the spring moves within the TPRD system to block the fluid path of stored gas through the TPRD to the atmosphere unless the fuse is exposed to a temperature beyond a threshold level. surrounding a pressurized gaseous fuel tank or vessel having a fluid connection into the tank and a valve at its distal end with a plurality of stretchable net coverings (22A-22F); anchoring the first covering to one end of the tank; affixing the additional net coverings (22B-22F) to the first covering forming a mesh via one or more fire and temperature sensitive fuse wire ; affixing the net covering at the distal end of the pressure vessel to an actuator ring ; connecting the actuator ring to a thermally-activated pressure relief device "TPRD" system to compress a spring ; and, a movable spool associated with the spring moves within the TPRD system to block the fluid path of stored gas through the TPRD to the atmosphere unless the fuse is exposed to a temperature beyond a threshold level.
A method for checking a bar blade chucking and/or a blade slot of a bar blade cutter head for bevel gear production, having the following method steps: - providing a main body of a bar blade cutter head , - wherein the main body comprises blade slots for accommodating bar blades , and - wherein a component , such as a bar blade , a test specimen, or the like, is chucked in a detachable and replaceable manner in at least one blade slot of the main body of the bar blade cutter head ; - exciting oscillations of the component ; - measuring the displacement and/or velocity and/or acceleration of the component ; - analyzing the measurement. - providing a main body of a bar blade cutter head , - wherein the main body comprises blade slots for accommodating bar blades , and - wherein a component , such as a bar blade , a test specimen, or the like, is chucked in a detachable and replaceable manner in at least one blade slot of the main body of the bar blade cutter head ; - wherein the main body comprises blade slots for accommodating bar blades , and - wherein a component , such as a bar blade , a test specimen, or the like, is chucked in a detachable and replaceable manner in at least one blade slot of the main body of the bar blade cutter head ; - exciting oscillations of the component ; - measuring the displacement and/or velocity and/or acceleration of the component ; - analyzing the measurement.
Housing for a compressor of a gas turbine, comprising a working duct (A) for accommodating a plurality of rotor cascades (B) arranged axially one behind the other, a wall of the working duct having a first air bleed , the housing having a cooling passage for cooling this working duct wall by guiding air from the first air bleed to a first outlet passage in orderto supply at least one first bleed air consumer , the first outlet passage being arranged downstream of the first air bleed , and the working duct wall having a second air bleed arranged downstream of the first air bleed and the housing having a discharge passage from this second air bleed to a second outlet passage in order to supply at least one bleed air consumer , characterized in that the second outlet passage is arranged upstream of the first outlet passage and in that the housing has a feedthrough of the cooling passage through the discharge passage .
A Radio Frequency reflection type phase shifter , the phase shifter comprising a coupler for input and output , and N variable capacitors , where N is an integer value of 2 or more, each of the variable capacitors providing in use radio frequency reflection, each of the variable capacitors being connected to the coupler by at least one impedance transformer (K, 26), the characteristic impedances of the impedance transformers having been selected so that the phase shifter provides a phase shift at least substantially proportional to the value of N, characterised in that each of the variable capacitors comprises electrochromic material. the phase shifter comprising a coupler for input and output , and N variable capacitors , where N is an integer value of 2 or more, each of the variable capacitors providing in use radio frequency reflection, each of the variable capacitors being connected to the coupler by at least one impedance transformer (K, 26), the characteristic impedances of the impedance transformers having been selected so that the phase shifter provides a phase shift at least substantially proportional to the value of N, characterised in that each of the variable capacitors comprises electrochromic material.
A method for determining a normalized weight of a non-static item, comprising: receiving, from a plurality of load cells , weight data associated with the non-static item; determining a load cell weight for the non-static item based at least in part on the weight data; receiving, as an input for a machine learning algorithm, the load cell weight for the non-static item; receiving, from an array of pressure sensors , pressure data associated with the non-static item; generating, based at least in part on the pressure data, a pressure heat map associated with the non-static item, wherein the pressure heat map is representative of a pressure gradient associated with feet or paws of the non-static item and indicative of a weight distribution of the non-static item; and generating, as an output for the machine learning algorithm, the normalized weight for the non-static item. receiving, from a plurality of load cells , weight data associated with the non-static item; determining a load cell weight for the non-static item based at least in part on the weight data; receiving, as an input for a machine learning algorithm, the load cell weight for the non-static item; receiving, from an array of pressure sensors , pressure data associated with the non-static item; generating, based at least in part on the pressure data, a pressure heat map associated with the non-static item, wherein the pressure heat map is representative of a pressure gradient associated with feet or paws of the non-static item and indicative of a weight distribution of the non-static item; and generating, as an output for the machine learning algorithm, the normalized weight for the non-static item.
A method of providing protection against acoustic shock, the method comprising the steps of performing a weighted overlap-add, WOLA, analysis on an input signal; performing feature extraction on the input signal and performing feature extraction on the band signals provided by the WOLA analysis; characterized by detecting an acoustic shock event based on the feature extraction performed on the input signal and on the feature extraction performed on the band signals; performing gain control by calculating gains for the band signals based on the detected acoustic shock event, on the feature extraction performed on the input signal and on the feature extraction performed on the band signals, wherein the gains are calibrated to meet a predetermined safe output level; and by applying the calibrated gains to the band signals to obtain modified band signals; and performing a WOLA synthesis on the modified band signals to synthesize an output signal.
Device for adjusting a voltage, with at least one electromagnetic device , comprising at least one first power coil on a first power magnet core , wherein an input voltage (UN) is applied to the first power coil , at least one second power coil on a second power magnet core , wherein the second power coil is led to a voltage output at which an output voltage (UR) is present, wherein the first and second power coils are connected by way of a conductor bridge , and at least one control coil on a control magnet core , wherein the two power magnet cores and the control magnet core are a component of a closed magnet core having three parallelly extending arms, wherein the centre arm forms the control magnet core and the outer arms form the power magnet cores , wherein the power coils are so constructed that no voltage at the control coil is generated by these, wherein at least one adjusting unit connected with the control coil is provided, wherein the adjusting unit is configured so that a control current, by means of which the control magnet core is bought wholly or partly to saturation, for the control coil is generated in dependence on a target value for the output voltage (UR), whereby adjustment of the output voltage (UR) is carried out in such a way that a mains voltage of a current mains does not exceed a permissible limit value, characterised in that the adjusting unit is a regulating unit which is designed in such a way that the output voltage (UR) is regulated to a target value, wherein the regulating unit has an interface for reading-in of the target value and a connection for reading-in of the output voltage as actual value.