mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a vehicle in an autonomous driving mode, the method comprising: receiving, by one or more processors, sensor data for an object; receiving, by the one or more processors, a plurality of predicted trajectories (510, 512, 514), each predicted trajectory representing a plurality of possible future locations for the object; and generating, by the one or more processors, a grid including a plurality of cells each representing a geographic area, characterised in that the method further comprises: predicting, by the one or more processors, probabilities that the object will enter the geographic area of each of the plurality of cells over a period of time into the future based on the sensor data in order to generate a heat map; comparing, by the one or more processors, one or more of the plurality of predicted trajectories to the heat map; and controlling, by the one or more processors, the vehicle in the autonomous driving mode based on the comparison. receiving, by one or more processors, sensor data for an object; receiving, by the one or more processors, a plurality of predicted trajectories (510, 512, 514), each predicted trajectory representing a plurality of possible future locations for the object; and generating, by the one or more processors, a grid including a plurality of cells each representing a geographic area, characterised in that the method further comprises: predicting, by the one or more processors, probabilities that the object will enter the geographic area of each of the plurality of cells over a period of time into the future based on the sensor data in order to generate a heat map; comparing, by the one or more processors, one or more of the plurality of predicted trajectories to the heat map; and controlling, by the one or more processors, the vehicle in the autonomous driving mode based on the comparison. predicting, by the one or more processors, probabilities that the object will enter the geographic area of each of the plurality of cells over a period of time into the future based on the sensor data in order to generate a heat map; comparing, by the one or more processors, one or more of the plurality of predicted trajectories to the heat map; and controlling, by the one or more processors, the vehicle in the autonomous driving mode based on the comparison.
An air conditioning system comprising: a plurality of air conditioners (18, 28, 38) each including an outdoor unit (1, 2, 3) and at least one indoor unit (11-13, 21-23, 31-33) connected to the outdoor unit (1, 2, 3) through a refrigerant pipe; and a central control unit capable of centrally controlling all the indoor units (11-13, 21-23, 31-33) of the plurality of the air conditioners (18, 28, 38), characterized in that the air conditioning system is configured so that in each outdoor unit (1, 2, 3) an address start code, which is given to the indoor units (11-13, 21-23, 31-33) connected to the outdoor unit (1, 2, 3), and the number of indoor units (11-13, 21-23, 31-33) connected to the outdoor unit (1, 2, 3) are set, wherein the address start codes are non-overlapping codes, and wherein unique addresses, each of which starts with the address start code that is set in the outdoor unit (1, 2, 3), are allocated to all the indoor units (11-13, 21-23, 31-33) controlled by the central control unit in accordance to a certain rule. a plurality of air conditioners (18, 28, 38) each including an outdoor unit (1, 2, 3) and at least one indoor unit (11-13, 21-23, 31-33) connected to the outdoor unit (1, 2, 3) through a refrigerant pipe; and a central control unit capable of centrally controlling all the indoor units (11-13, 21-23, 31-33) of the plurality of the air conditioners (18, 28, 38), the air conditioning system is configured so that in each outdoor unit (1, 2, 3) an address start code, which is given to the indoor units (11-13, 21-23, 31-33) connected to the outdoor unit (1, 2, 3), and the number of indoor units (11-13, 21-23, 31-33) connected to the outdoor unit (1, 2, 3) are set, wherein the address start codes are non-overlapping codes, and wherein unique addresses, each of which starts with the address start code that is set in the outdoor unit (1, 2, 3), are allocated to all the indoor units (11-13, 21-23, 31-33) controlled by the central control unit in accordance to a certain rule.
A method for measuring at least one property of a coil, preferably a measuring coil used in measurements of other variables, wherein the coil is modelled and a current-voltage converter (R_FP) is connected in series, and wherein a) an AC voltage having a first frequency and having a DC voltage component which differs from zero is applied to the coil, and the voltage at the current-voltage converter (R_FP) is captured at a second frequency which is a multiple of the first frequency, wherein the multiple, as an n-tuple where n is a natural number, is at least four, and the impedance and the phase angle at the first frequency are derived from at least n measured values captured in succession in this manner, characterised in that b) an AC voltage having a third frequency which differs from the first frequency and having a DC voltage component which differs from zero is applied to the coil, and the voltage at the current-voltage converter is captured at the second frequency or at a fourth frequency which is a multiple of the third frequency, wherein the multiple, as an m-tuple with a natural number, is at least four, and the impedance and the phase angle at the third frequency are derived from at least m measured values captured in succession in this manner, the coil is modelled as a parallel circuit, firstly with a capacitance (Cp), with secondly a series circuit, a DC voltage resistance (Rdc), a frequency-dependent resistance (Rs) and an inductance (Ls), and the value for the DC voltage resistance (Rdc), the frequency-dependent resistance (Rs) and/or the inductance (Ls) are derived from the two impedances and the two phase angles. a) an AC voltage having a first frequency and having a DC voltage component which differs from zero is applied to the coil, and the voltage at the current-voltage converter (R_FP) is captured at a second frequency which is a multiple of the first frequency, wherein the multiple, as an n-tuple where n is a natural number, is at least four, and the impedance and the phase angle at the first frequency are derived from at least n measured values captured in succession in this manner, characterised in that b) an AC voltage having a third frequency which differs from the first frequency and having a DC voltage component which differs from zero is applied to the coil, and the voltage at the current-voltage converter is captured at the second frequency or at a fourth frequency which is a multiple of the third frequency, wherein the multiple, as an m-tuple with a natural number, is at least four, and the impedance and the phase angle at the third frequency are derived from at least m measured values captured in succession in this manner, the coil is modelled as a parallel circuit, firstly with a capacitance (Cp), with secondly a series circuit, a DC voltage resistance (Rdc), a frequency-dependent resistance (Rs) and an inductance (Ls), and the value for the DC voltage resistance (Rdc), the frequency-dependent resistance (Rs) and/or the inductance (Ls) are derived from the two impedances and the two phase angles.
A wash assembly for a motor vehicle, said assembly being disposed in an underground garage, said assembly comprising a wash area and a technical zone separated from said wash area, said wash area including a substantially rectangular raised floor, said floor including two substantially parallel long sides and two substantially parallel short sides, and at least one wastewater recovery tank disposed under said raised floor, said technical zone including wastewater cleaning and/or filtering means connected to at least one tank for storing said wastewater cleaned and/or filtered, and water distribution means connected, on the one hand, with said storage tank, for the washing and, on the other hand, with an external water source, for the final rinse, said wash area including: - a vertical side wall (2, 3) disposed along each long side of said floor, a vertical bottom wall disposed along a short side of said floor and a front wall, including an access door for the motor vehicle, disposed along the other short side of said floor, said side (2, 3), bottom and front walls being connected to said floor and to the walls adjacent in a sealed manner, forming, in use, an enclosure sealed around said floor, and - a preferably double-flow ventilation system to discharge humidity generated during washing. - a vertical side wall (2, 3) disposed along each long side of said floor, a vertical bottom wall disposed along a short side of said floor and a front wall, including an access door for the motor vehicle, disposed along the other short side of said floor, said side (2, 3), bottom and front walls being connected to said floor and to the walls adjacent in a sealed manner, forming, in use, an enclosure sealed around said floor, and - a preferably double-flow ventilation system to discharge humidity generated during washing.
Drilling apparatus of a kind having a drillstring, operable to rotate the drillstring or at least the drillstring's drill head or bit, or both, and operable to provide vibration axially to the drill head or bit; wherein, positioned as part of the drillstring or in the drillstring, is a vibrational apparatus to provide said vibration; wherein said vibrational apparatus has magnetic arrays (5, 6) configured to interact, there being at least one assembly ("first assembly(s)") (5 or 6) with a first array or set of arrays ("first array(s)") carried on a first rotatable member (2 or 4), and there being at least one assembly ("second assembly(s)") (5 or 6) with a second array or second set of arrays ("second array(s)") carried on a second rotatable member (2 or 4), and the first and second rotatable members (2, 4) being able to have relative rotational movement such that the first array(s) (5 or 6) and second array(s) (5 or 6) magnetically interact, responsive to relative rotation between said first rotatable member (2 or 4) with said first array(s) (5 or 6) and said second rotatable member (2 or 4) with said second array(s) (5 or 6), to cause shuttling of the first array(s) (5 or 6) relative to the second array(s) (5 or 6), or vice versa, or both, and thus their respective supporting assemblies; wherein the relative rotation can be caused by a mechanical input to one or other of said first and second assembly(s) (5 or 6), or both the first and second assembly(s); wherein one of the first and second array(s) and its assembly(s) (5 or 6) is configured to move synchronously in rotation with the drillstring when the drillstring is rotated; and wherein the drill head or bit vibrates as a consequence of direct or indirect carrying of or hammering of, or both, the drill head or bit by the first assembly(s) (5 or 6) or the second assembly(s) (5 or 6), or both.
A set of oral appliances for effecting at least one of treating sleep disorder breathing in a patient and training a person to breath primarily through their nose, the set of oral appliances comprising a first oral appliance for use in a first stage of treatment or training and at least a second oral appliance for use in at least a second stage of treatment or training, wherein each oral appliance comprises; a generally U shaped appliance body with a front section and two arms, the appliance body including an inner wall, an outer wall; a web interconnecting the inner wall and the outer wall; the web having a front section and two arms, each arm having a trailing end; the inner wall and the outer wall each have an upper portion (35, 39) that projects above the web so as to define an upper dental arch receiving channel; the inner wall and the outer wall each have a lower portion (37, 41) that depends below the web so as to define a lower dental arch receiving channel; and wherein the web comprises at least one breathing hole so as to define a total cross sectional area for breathing and the total cross sectional area for breathing of the first oral appliance is larger than the total cross sectional area for breathing of the second oral appliance. a generally U shaped appliance body with a front section and two arms, the appliance body including an inner wall, an outer wall; a web interconnecting the inner wall and the outer wall; the web having a front section and two arms, each arm having a trailing end; the inner wall and the outer wall each have an upper portion (35, 39) that projects above the web so as to define an upper dental arch receiving channel; the inner wall and the outer wall each have a lower portion (37, 41) that depends below the web so as to define a lower dental arch receiving channel; and wherein the web comprises at least one breathing hole so as to define a total cross sectional area for breathing and the total cross sectional area for breathing of the first oral appliance is larger than the total cross sectional area for breathing of the second oral appliance.
A method of communication at a wireless communication device in a wireless communication system in which uplink-centric slots having mostly uplink symbols are supported, wherein a common uplink burst is common to all user equipments in communication with a base station, the method comprising: receiving, at a user equipment, UE, an indicator of a length of the common uplink burst (226, 236, 466, 568) from a base station, the common uplink burst (226, 236, 466, 568) associated with at least two aggregated uplink-centric slots; configuring, at the UE, the common uplink burst (226, 236, 466, 568) having the length as identified by the indicator received from the base station; and transmitting, from the UE, the configured common uplink burst (226, 236, 466, 568) to the base station. receiving, at a user equipment, UE, an indicator of a length of the common uplink burst (226, 236, 466, 568) from a base station, the common uplink burst (226, 236, 466, 568) associated with at least two aggregated uplink-centric slots; configuring, at the UE, the common uplink burst (226, 236, 466, 568) having the length as identified by the indicator received from the base station; and transmitting, from the UE, the configured common uplink burst (226, 236, 466, 568) to the base station.
An absorbent article for wearing in an undergarment comprising: a nonwoven having a nonwoven body facing surface and a nonwoven garment facing surface, wherein said nonwoven comprises a main body portion, wherein said main body portion has two spaced apart longitudinal side edges, two spaced apart transverse edges, and a longitudinal centerline, wherein said nonwoven further comprises a pair of spaced apart flaps associated with said main body portion, said flaps sized and dimensioned for folding around and securing to an undergarment, wherein each of said flaps is associated with said main body portion at a juncture, wherein one flap extends laterally outward from each of said longitudinal side edges, wherein part of said main body portion comprises a hydrophilic zone that is more hydrophilic than a portion of said flaps; and an apertured film having a film body facing surface and a film garment facing surface wherein at least part of said film garment facing surface faces said nonwoven body facing surface. a nonwoven having a nonwoven body facing surface and a nonwoven garment facing surface, wherein said nonwoven comprises a main body portion, wherein said main body portion has two spaced apart longitudinal side edges, two spaced apart transverse edges, and a longitudinal centerline, wherein said nonwoven further comprises a pair of spaced apart flaps associated with said main body portion, said flaps sized and dimensioned for folding around and securing to an undergarment, wherein each of said flaps is associated with said main body portion at a juncture, wherein one flap extends laterally outward from each of said longitudinal side edges, wherein part of said main body portion comprises a hydrophilic zone that is more hydrophilic than a portion of said flaps; and an apertured film having a film body facing surface and a film garment facing surface wherein at least part of said film garment facing surface faces said nonwoven body facing surface.
An insulating panel comprising: an external facing; an internal facing; a body of expanded insulating foam extending between the facings (1, 2); a plurality of vacuum insulated panels embedded in the expanded insulating foam, the vacuum insulated panels extending across the length and/or width of said insulating panel; the insulating panel being characterized in that the vacuum insulated panels are interconnected by a webbing or other interconnection to assist in their storing and their automatic handling. an external facing; an internal facing; a body of expanded insulating foam extending between the facings (1, 2); a plurality of vacuum insulated panels embedded in the expanded insulating foam, the vacuum insulated panels extending across the length and/or width of said insulating panel; the insulating panel being characterized in that the vacuum insulated panels are interconnected by a webbing or other interconnection to assist in their storing and their automatic handling.
An emissions cleaning module comprising: a conduit; and a mounting mechanism for mounting the emissions cleaning module to an external support; said mounting mechanism comprising: at least one adjustable strap which is clamped around the conduit; and at least one saddle which is mounted to the conduit by the at least one adjustable strap; wherein the at least one saddle comprises a curved upper surface configured to conform substantially to a portion of the conduit; characterised in that the at least one saddle comprises an upper element and a lower element, the upper element and the lower element being connectable together; the upper element being retained to the conduit respectively by means of one of the at least one adjustable strap which passes through the at least one saddle between the upper and lower elements (69, 64). a conduit; and a mounting mechanism for mounting the emissions cleaning module to an external support; said mounting mechanism comprising: at least one adjustable strap which is clamped around the conduit; and at least one saddle which is mounted to the conduit by the at least one adjustable strap; wherein the at least one saddle comprises a curved upper surface configured to conform substantially to a portion of the conduit; at least one adjustable strap which is clamped around the conduit; and at least one saddle which is mounted to the conduit by the at least one adjustable strap; wherein the at least one saddle comprises a curved upper surface configured to conform substantially to a portion of the conduit;
A device comprising: one or more first layers (954, 956) comprising a metallic oxide comprising a correlated electron switch CES; one or more terminals; and one or more second layers (957, 958, 962, 963, 966, 967, 968, 969) formed between a first terminal of the one or more terminals and the one or more first layers (954, 956) to form a first access device to the CES, characterised in that the one or more first layers (954, 956) and the one or more second layers (957, 958, 962, 963, 966, 967, 968, 969) are formed from a correlated electron material CEM, and wherein the one or more first layers (954, 956) comprise p-type doped layers and the CES comprises a bulk switch in which a majority of material forming the CES is switchable from an insulative/higher impedance state to a conductive/lower impedance state, or from a conductive/lower impedance state to an insulative/higher impedance state. one or more first layers (954, 956) comprising a metallic oxide comprising a correlated electron switch CES; one or more terminals; and one or more second layers (957, 958, 962, 963, 966, 967, 968, 969) formed between a first terminal of the one or more terminals and the one or more first layers (954, 956) to form a first access device to the CES, characterised in that the one or more first layers (954, 956) and the one or more second layers (957, 958, 962, 963, 966, 967, 968, 969) are formed from a correlated electron material CEM, and wherein the one or more first layers (954, 956) comprise p-type doped layers and the CES comprises a bulk switch in which a majority of material forming the CES is switchable from an insulative/higher impedance state to a conductive/lower impedance state, or from a conductive/lower impedance state to an insulative/higher impedance state.
A sealed and thermally insulating wall for a tank for storing fluid, comprising: • a heat-insulating panel having an inner face and a periphery; and • a sealing plate having an inner face designed to be in contact with the fluid contained in the tank and an outer face anchored to the inner face of the panel in the region of a plurality of anchoring areas, said sealing plate comprising at least one corrugation (8; 9) which protrudes from the side of the inner face of the sealing plate, extending in a direction d 1 (x; y); in which: • the inner face of the heat-insulating panel comprises a stress-relieving slot (15; 16) between two adjacent anchoring areas arranged on either side of said corrugation (8; 9), said stress-relieving slot having an axis extending in the direction d 1 (x, y) so as to permit a deformation of the corrugation transversely to the direction d 1 (x, y); and • the stress-relieving slot (15; 16) has a length which is less than the dimension of the heat-insulating panel along the axis of the stress-relieving slot (15; 16) the said wall being characterized in that the stress-relieving slot (15; 16) does not extend as far as the periphery of the heat-insulating panel. • a heat-insulating panel having an inner face and a periphery; and • a sealing plate having an inner face designed to be in contact with the fluid contained in the tank and an outer face anchored to the inner face of the panel in the region of a plurality of anchoring areas, said sealing plate comprising at least one corrugation (8; 9) which protrudes from the side of the inner face of the sealing plate, extending in a direction d 1 (x; y); in which: • the inner face of the heat-insulating panel comprises a stress-relieving slot (15; 16) between two adjacent anchoring areas arranged on either side of said corrugation (8; 9), said stress-relieving slot having an axis extending in the direction d 1 (x, y) so as to permit a deformation of the corrugation transversely to the direction d 1 (x, y); and • the stress-relieving slot (15; 16) has a length which is less than the dimension of the heat-insulating panel along the axis of the stress-relieving slot (15; 16) the said wall being characterized in that the stress-relieving slot (15; 16) does not extend as far as the periphery of the heat-insulating panel.