mhurhangee/ep-ind-claims huggingface dataset:
A method of image geo-registration to provide absolute position and attitude updates and a measurement uncertainty distribution to a navigation system that includes an inertial measurement unit (IMU, 26), a prediction filter, a sensor for collecting sensor images, a reference image database and a 3-D scene model database, the method comprising: feeding back a state estimate of position, velocity and attitude with its uncertainty distribution from the prediction filter to a reference image projector and a sensor image projector to generate based upon a 3-D scene model a projected reference image and a plurality of candidate sensor models and their resulting projected sensor images in a common space using samples drawn from the uncertainty distribution of the state estimate; correlating the candidate projected sensor images to the projected reference image to select one of the candidate sensor models; generating a set of matching tie points between the selected projected sensor image and the reference image; and feeding back the state estimate with its uncertainty distribution to a sensor model parameter solver that solves a constrained optimization problem, said constrained optimization problem taking as input the sensor models, the uncertainty distribution, and the set of matching tie points and providing as output full six degree-of-freedom absolute position and attitude updates for the navigation system, said uncertainty distribution shaping the topology of the optimization search space by scoring the sensor model solutions and penalizing low probability solutions so as to guide the solver to a sensor model solution. feeding back a state estimate of position, velocity and attitude with its uncertainty distribution from the prediction filter to a reference image projector and a sensor image projector to generate based upon a 3-D scene model a projected reference image and a plurality of candidate sensor models and their resulting projected sensor images in a common space using samples drawn from the uncertainty distribution of the state estimate; correlating the candidate projected sensor images to the projected reference image to select one of the candidate sensor models; generating a set of matching tie points between the selected projected sensor image and the reference image; and feeding back the state estimate with its uncertainty distribution to a sensor model parameter solver that solves a constrained optimization problem, said constrained optimization problem taking as input the sensor models, the uncertainty distribution, and the set of matching tie points and providing as output full six degree-of-freedom absolute position and attitude updates for the navigation system, said uncertainty distribution shaping the topology of the optimization search space by scoring the sensor model solutions and penalizing low probability solutions so as to guide the solver to a sensor model solution.
An electronic component, comprising: a spatial light modulator device, a circuit board comprising a first major surface, at least one electrically conductive redistribution layer and a first cavity positioned in the first major surface, the spatial light modulator device being positioned within the cavity and electrically connected to the redistribution layer; and a second cavity positioned in a second major surface of the circuit board, characterized in that the electronic circuit component further comprises a Peltier heater/cooler device mounted in the second cavity; and the Peltier heater/cooler device is in thermal contact with the spatial light modulator device. a spatial light modulator device, a circuit board comprising a first major surface, at least one electrically conductive redistribution layer and a first cavity positioned in the first major surface, the spatial light modulator device being positioned within the cavity and electrically connected to the redistribution layer; and a second cavity positioned in a second major surface of the circuit board, characterized in that the electronic circuit component further comprises a Peltier heater/cooler device mounted in the second cavity; and the Peltier heater/cooler device is in thermal contact with the spatial light modulator device.
An article of manufacture comprising nanoporous particles and hollow latex particles, wherein the hollow latex particles comprise a rigid inner shell and adhesive outer shell and wherein the hollow latex particles are bound directly to one another to form a continuous matrix and the nanoporous particles being dispersed within the continuous matrix of hollow latex particles.
A method for coordinating transmission of signals for cell acquisition in a wireless communication system, comprising: creating a frequency reuse pattern at least in part by identifying a base set of frequencies (Reuse idx 1) at which a reference signal can be transmitted and applying one or more frequency shifts to the base set of frequencies (Reuse idx 1) to obtain a number of shifted sets of frequencies, (Reuse idx 2, Reuse idx 3), wherein the base set of frequencies (Reuse idx 1) and each shifted set of frequencies (Reuse idx 2, Reuse idx 3) have a corresponding frequency reuse index and form the frequency reuse pattern; assigning sectors to respective frequency reuse indices based on cell IDs of the sectors or group IDs of cell groups to which said sectors belong, wherein the assigning further comprises performing a modulo operation on the cell IDs or group IDs in relation to a total number of frequency reuse indices utilized in the frequency reuse pattern; generating reference signals for transmission by the sectors on sets of frequencies corresponding to the assigned frequency reuse indices; transmitting one or more synchronization codes containing information regarding the frequency shift utilized by said sectors; and transmitting the reference signals at the sectors using the sets of frequencies corresponding to the assigned frequency reuse indices. creating a frequency reuse pattern at least in part by identifying a base set of frequencies (Reuse idx 1) at which a reference signal can be transmitted and applying one or more frequency shifts to the base set of frequencies (Reuse idx 1) to obtain a number of shifted sets of frequencies, (Reuse idx 2, Reuse idx 3), wherein the base set of frequencies (Reuse idx 1) and each shifted set of frequencies (Reuse idx 2, Reuse idx 3) have a corresponding frequency reuse index and form the frequency reuse pattern; assigning sectors to respective frequency reuse indices based on cell IDs of the sectors or group IDs of cell groups to which said sectors belong, wherein the assigning further comprises performing a modulo operation on the cell IDs or group IDs in relation to a total number of frequency reuse indices utilized in the frequency reuse pattern; generating reference signals for transmission by the sectors on sets of frequencies corresponding to the assigned frequency reuse indices; transmitting one or more synchronization codes containing information regarding the frequency shift utilized by said sectors; and transmitting the reference signals at the sectors using the sets of frequencies corresponding to the assigned frequency reuse indices.
Cooling system for a transformer platform, wherein the transformer platform has at least one hollow structural element (2, 23, 24, 25, 26), and wherein - the cooling system comprises a primary cooling circuit (3.1) and a secondary cooling circuit (3.2) which are thermally coupled via a heat exchanger, - and the secondary cooling circuit (3.2) has at least one coolant reservoir (61, 63, 65), which is arranged in a hollow structural element (2, 23, 24, 25, 26), for a coolant of the secondary cooling circuit (3.2), characterized in that the hollow structural element (2, 23, 24, 25, 26) is a tubular component which at least partially constitutes the load-bearing structure of the platform foundation of the transformer platform. - the cooling system comprises a primary cooling circuit (3.1) and a secondary cooling circuit (3.2) which are thermally coupled via a heat exchanger, - and the secondary cooling circuit (3.2) has at least one coolant reservoir (61, 63, 65), which is arranged in a hollow structural element (2, 23, 24, 25, 26), for a coolant of the secondary cooling circuit (3.2),
A lifting unit for a working vehicle, comprising: a body connectable to the working vehicle at a loading area thereof, two lifting means connected to the body, the two lifting means being electrically driven and movable in lateral in relation to the body of the lifting unit, and a drive unit connected to the two lifting means, wherein the two lifting means are movable along the entire width of body, simultaneously as well as in relation to each other, characterized in that the drive unit comprises an electric motor, a driving gear, and a gear wheel, the gear wheel being in engagement with a gear rack. a body connectable to the working vehicle at a loading area thereof, two lifting means connected to the body, the two lifting means being electrically driven and movable in lateral in relation to the body of the lifting unit, and a drive unit connected to the two lifting means, wherein the two lifting means are movable along the entire width of body, simultaneously as well as in relation to each other, characterized in that the drive unit comprises an electric motor, a driving gear, and a gear wheel, the gear wheel being in engagement with a gear rack.
A method of coating a substrate, including the steps of: (i) providing a suspension of dye and a binder in a solvent, wherein the ratio of dye to binder is greater than 40 wt% and the dye is uniformly dispersed in the solvent; (ii) spray-coating the suspension onto the substrate with the majority of the solvent evaporating during the spray coating step to result in a porous coating of dye and binder on the substrate; and (iii) continuing step (ii) until the coating thickness is at least 30 micrometres; wherein the dye does not include any carbon nanotubes, characterised in that the coating of dye and binder on the substrate has a density of up to 0.75gcm -3 so as to result in pores or cavities which act as optical traps to suppress light reflectance. (i) providing a suspension of dye and a binder in a solvent, wherein the ratio of dye to binder is greater than 40 wt% and the dye is uniformly dispersed in the solvent; (ii) spray-coating the suspension onto the substrate with the majority of the solvent evaporating during the spray coating step to result in a porous coating of dye and binder on the substrate; and (iii) continuing step (ii) until the coating thickness is at least 30 micrometres; wherein the dye does not include any carbon nanotubes, characterised in that the coating of dye and binder on the substrate has a density of up to 0.75gcm -3 so as to result in pores or cavities which act as optical traps to suppress light reflectance.
A support device (1, 100), which device comprises an elastic belt (2, 200) provided, at its ends (2a, 2b, 201a, 202a), with complementary closure means (3, 4, 203, 204), and at least two elongate side reinforcing elements (5, 6, 300, 400) that are fastened over the height of the belt (2, 200), and between which side reinforcing elements the longitudinal elasticity of the belt varying over the height thereof, said support device being characterized in that it further comprises a back panel that extends over the height of the belt and that is secured to the belt in its top portion only that is secured to the top ends of said side reinforcing elements in order that said top portion of the back panel is connected to the top ends only of said side reinforcing elements and so as to act as a restraining piece suitable for limiting the extensibility of the belt so that extending the belt (2, 200) longitudinally causes the bottom ends of said side reinforcing elements (5, 6, 300, 400) to shift angularly towards respective ones of said ends (2a, 2b, 201a, 202b) of the belt (2, 200).
A G-M refrigerator with a phase modulation mechanism, comprising a compressor, a gas inlet valve, an exhaust valve, a regenerator, a cylinder, a piston, a hot cavity, a cold cavity, a driving mechanism, an annular gap and a heat exchanger, wherein the gas outlet end of the compressor is connected with the gas inlet valve, the gas inlet end of the compressor is connected with the exhaust valve, the gas inlet valve, the exhaust valve and the regenerator are communicated and connected, the regenerator is communicated and connected with the cylinder, and the heat exchanger is arranged between the regenerator and the cylinder; the piston is arranged in the cylinder, the cold cavity is arranged below the piston, the hot cavity is arranged above the piston, the annular gap is arranged between the piston and the inner wall of the cylinder, and the driving mechanism is connected on the piston; and the annular gap is communicated with the phase modulation mechanism, characterized in that the annular gap is divided into hot-end gas, a gas piston and cold-end gas, and in that the phase modulation mechanism comprises an orifice valve and a gas reservoir, and the annular gap is communicated with the gas reservoir through the orifice valve; and a seal ring is arranged between the piston and the cylinder in the position above the annular gap.
A recording medium, comprising: a user data area including a plurality of segments defined by segment information; and a physical access control zone storing at least one physical access control information for compatibility between drives, each physical access control information including the segment information defining at least one segment in the user data area and additional information for controlling data recording to and reproduction from the at least one segment, the additional information including a rule used when the physical access control information is not known to a drive attempting to record to or reproduce from the recording medium wherein the segment information defines the segments such that the segments defined in same physical access control information do not overlap each other. a user data area including a plurality of segments defined by segment information; and a physical access control zone storing at least one physical access control information for compatibility between drives, each physical access control information including the segment information defining at least one segment in the user data area and additional information for controlling data recording to and reproduction from the at least one segment, the additional information including a rule used when the physical access control information is not known to a drive attempting to record to or reproduce from the recording medium wherein the segment information defines the segments such that the segments defined in same physical access control information do not overlap each other.
A method for the production of blow moulded containers, that are sterile at least in certain regions, in a blow moulding machine, in particular in a blow moulding machine comprising blowing stations arranged on a rotating blow moulding wheel, in which method a preform made of thermoplastic material is first heated and then stretched in a blowing station by a particularly hollow stretch forming bar and exposed to a pressurised blowing fluid via a blowing nozzle, and in which method a sterilising fluid is fed to the preform in the blowing station for carrying out a sterilisation process, wherein the sterilising fluid is fed into the preform from an outlet in the blowing station and is discharged again through an inlet and passes through a flow path therebetween, wherein, on its flow path, the sterilising fluid is passed through or past the stretch forming bar, characterised in that - the sterilising fluid is fed during running operation of the blow moulding machine, wherein the preform is exposed to the pressurised blowing fluid only after sterilisation with the sterilising fluid has been completed, in particular wherein the outlet is at least temporarily arranged in the proximity of the bottom of the preform, and in particular wherein the inlet is at least temporarily arranged above the outlet, and in particular wherein a continuous flow of sterilising fluid, which is fed along the preform and the stretch forming bar and the blowing nozzle, is generated between the outlet and the inlet. - the sterilising fluid is fed during running operation of the blow moulding machine, wherein the preform is exposed to the pressurised blowing fluid only after sterilisation with the sterilising fluid has been completed, in particular wherein the outlet is at least temporarily arranged in the proximity of the bottom of the preform, and in particular wherein the inlet is at least temporarily arranged above the outlet, and in particular wherein a continuous flow of sterilising fluid, which is fed along the preform and the stretch forming bar and the blowing nozzle, is generated between the outlet and the inlet.
A method for detecting the presence of a spring on a seal on the stem of a relief valve, designated relief valve stem seal, the method including the following steps: - fitting the relief valve stem seal in a detection device with reception and centring of the relieve valve seal in the interior of the device, - detection of the absence or presence of the spring on the relief valve seal by the emission of a light beam between an emitting optical fibre and a receiving optical fibre, the optical fibres (4a, 4a) being arranged on a respective side of the stem seal of the relief valve in opposition with respect to the spring, the spring, when present, being on the passage of the light beam emitted between the optical fibres (4, 4a). - fitting the relief valve stem seal in a detection device with reception and centring of the relieve valve seal in the interior of the device, - detection of the absence or presence of the spring on the relief valve seal by the emission of a light beam between an emitting optical fibre and a receiving optical fibre, the optical fibres (4a, 4a) being arranged on a respective side of the stem seal of the relief valve in opposition with respect to the spring, the spring, when present, being on the passage of the light beam emitted between the optical fibres (4, 4a).
Adjustable anchor device comprising attachment parts capable of engaging in a profile, and a gripping member for receiving a rod, said gripping member comprising two arms (16, 18) mounted so as to be pivotable relative to one another about a hinge, each of said arms (16, 18) having a jaw (22, 24) and a free handling end (28,30) spaced apart from said jaw (22, 24), and an elastically deformable restoring member for holding the jaws (22, 24) of said arms (16, 18) close together in order to clamp said rod, characterised in that said hinge is positioned between said jaws (22, 24) and said free handling ends (28, 30) of said arms (16, 18), and said free handling ends (28, 30) of said arms being capable of being brought close together in order to separate the jaws (22, 24), while said elastically deformable restoring member is deformed so as to be able to free said rod and adjust the relative position of said gripping member and of said rod.
Aircraft with a laser scanner for measuring a surrounding, wherein the laser scanner is configured to emit laser beams at different emission angles (α) about an axis, wherein a mirror is located in the optical path of the laser beams in a predetermined subrange (Δα) of emission angles (α), wherein the laser scanner is configured to determine the times of flight of laser beams emitted within the said subrange (Δα) as well as of laser beams emitted outside said subrange (Δα) by means of their reflections on the surrounding, characterized in that the mirror deflects the laser beams emitted in said subrange (Δα) into a plane that is parallel to a predetermined horizontal flight direction, wherein said subrange (Δα) comprises those laser beams which would be reflected by the aircraft without the mirror.
A receiver (130, 1700) including a polar decoder for decoding an encoded codeword transmitted over a communication channel, comprising: a front end to receive over a communication channel a codeword including a sequence of bits modified with noise of the communication channel, wherein the codeword is encoded by at least one polar encoder with a polar code; and a soft decoder operated by a processor to produce a soft output of the decoding, wherein the processor is configured to estimate possible values of the bits of the received codeword using a successive cancelation list decoding to produce a set of candidate codewords; determine a distance between each candidate codeword and a soft input to the soft decoder; and determine a likelihood of a value of a bit in the sequence of bits using a difference of distances of the candidate codewords closest to the received codeword and having opposite values at the position of the bit. a front end to receive over a communication channel a codeword including a sequence of bits modified with noise of the communication channel, wherein the codeword is encoded by at least one polar encoder with a polar code; and a soft decoder operated by a processor to produce a soft output of the decoding, wherein the processor is configured to estimate possible values of the bits of the received codeword using a successive cancelation list decoding to produce a set of candidate codewords; determine a distance between each candidate codeword and a soft input to the soft decoder; and determine a likelihood of a value of a bit in the sequence of bits using a difference of distances of the candidate codewords closest to the received codeword and having opposite values at the position of the bit. estimate possible values of the bits of the received codeword using a successive cancelation list decoding to produce a set of candidate codewords; determine a distance between each candidate codeword and a soft input to the soft decoder; and determine a likelihood of a value of a bit in the sequence of bits using a difference of distances of the candidate codewords closest to the received codeword and having opposite values at the position of the bit.
A transistor, comprising: a substrate; an active layer disposed on the substrate and including a first region, a second region, and a channel region between the first region and the second region; a gate electrode disposed on the active layer, the gate electrode overlapping the channel region; an insulating layer disposed on the gate electrode; a first electrode disposed on the insulating layer, the first electrode being electrically connected to the first region; a second electrode disposed on the insulating layer, the second electrode being electrically connected to the second region; and a first connection electrode disposed on the substrate and electrically connecting the gate electrode and the second electrode, characterized in that a resistance of the first connection electrode is greater than a resistance of the gate electrode. a substrate; an active layer disposed on the substrate and including a first region, a second region, and a channel region between the first region and the second region; a gate electrode disposed on the active layer, the gate electrode overlapping the channel region; an insulating layer disposed on the gate electrode; a first electrode disposed on the insulating layer, the first electrode being electrically connected to the first region; a second electrode disposed on the insulating layer, the second electrode being electrically connected to the second region; and a first connection electrode disposed on the substrate and electrically connecting the gate electrode and the second electrode, characterized in that a resistance of the first connection electrode is greater than a resistance of the gate electrode.