mhurhangee/ep-ind-claims huggingface dataset:
Deflection device (18, 36, 55, 75) for objects, such as containers, bottles, jars, glasses, cans, comprising: - an upstream conveyor (19, 37, 56) which is adapted to transport objects on a first transport surface (24, 47, 66) in a first direction of transport (25, 41, 60) and to transfer them to a downstream conveyor (21, 40, 59), - the downstream conveyor (21, 40, 59) which is adapted to transport objects on a second transport surface in a second direction of transport (26, 42, 61), where the first direction of transport (25, 41, 60) and the second direction of transport (26, 42, 61) are aligned perpendicular to each other and where the first transport surface (24, 47, 66) and the second transport surface are substantially coplanar, - a downstream assist conveyor (20, 39, 58, 76) which is adapted to transport objects on a third transport surface (35, 54, 74, 79) in the second direction of transport (26, 42, 61), where the downstream assist conveyor (20, 39, 58, 76) is disposed alongside of the downstream conveyor (21, 40, 59) and on one side towards the upstream conveyor (19, 37, 56), where the second transport surface and the third transport surface (35, 54, 74, 79) are coplanar, characterised by an upstream assist conveyor which is adapted to transport objects on a fourth transport surface in the first direction of transport, where the upstream assist conveyor is disposed alongside of the upstream conveyor and on one side towards the downstream conveyor, where the first transport surface and the fourth transport surface are coplanar and where a first width of the downstream assist conveyor (20, 39, 58, 76) is smaller by 50% to 85%, preferably 50% to 75%, than a second width of the downstream conveyor (21, 40, 59). - an upstream conveyor (19, 37, 56) which is adapted to transport objects on a first transport surface (24, 47, 66) in a first direction of transport (25, 41, 60) and to transfer them to a downstream conveyor (21, 40, 59), - the downstream conveyor (21, 40, 59) which is adapted to transport objects on a second transport surface in a second direction of transport (26, 42, 61), where the first direction of transport (25, 41, 60) and the second direction of transport (26, 42, 61) are aligned perpendicular to each other and where the first transport surface (24, 47, 66) and the second transport surface are substantially coplanar, - a downstream assist conveyor (20, 39, 58, 76) which is adapted to transport objects on a third transport surface (35, 54, 74, 79) in the second direction of transport (26, 42, 61), where the downstream assist conveyor (20, 39, 58, 76) is disposed alongside of the downstream conveyor (21, 40, 59) and on one side towards the upstream conveyor (19, 37, 56), where the second transport surface and the third transport surface (35, 54, 74, 79) are coplanar,
A load control system comprising: a plurality of control devices, wherein each control device includes one of a control-source device or a control-target device configured to control an amount of power provided to an electrical load, wherein each control device comprises a beacon transmitting circuit configured to transmit a respective control device beacon that comprises an identifier associated with the control device; and a network device (118, 618, 1118, 1218, 1318, 1400) configured to: discover the respective control device beacon for each control device of the plurality of control devices; identify a signal strength at which the respective control device beacon is received for each control device of the plurality of control devices; display the plurality of control devices in a list of control devices that is sorted according to the corresponding signal strength of each control device beacon; receive indications of user selection of at least two control devices in the list of control devices; and associate the identifiers of the selected at least two control devices to enable control of the at least two control devices upon a command subsequently received by at least one of the at least two control devices. a plurality of control devices, wherein each control device includes one of a control-source device or a control-target device configured to control an amount of power provided to an electrical load, wherein each control device comprises a beacon transmitting circuit configured to transmit a respective control device beacon that comprises an identifier associated with the control device; and a network device (118, 618, 1118, 1218, 1318, 1400) configured to: discover the respective control device beacon for each control device of the plurality of control devices; identify a signal strength at which the respective control device beacon is received for each control device of the plurality of control devices; display the plurality of control devices in a list of control devices that is sorted according to the corresponding signal strength of each control device beacon; receive indications of user selection of at least two control devices in the list of control devices; and associate the identifiers of the selected at least two control devices to enable control of the at least two control devices upon a command subsequently received by at least one of the at least two control devices. discover the respective control device beacon for each control device of the plurality of control devices; identify a signal strength at which the respective control device beacon is received for each control device of the plurality of control devices; display the plurality of control devices in a list of control devices that is sorted according to the corresponding signal strength of each control device beacon; receive indications of user selection of at least two control devices in the list of control devices; and associate the identifiers of the selected at least two control devices to enable control of the at least two control devices upon a command subsequently received by at least one of the at least two control devices.
A mobile robot having a chassis with a front end and a back end, comprising at least: • a pair of drive wheels wherein each drive wheel of the pair of drive wheels is coupled to a respective drive motor of a set of drive motors, • a pair of front caster wheels at the front end of the mobile robot, • a pair of back caster wheels at the back end of the mobile robot, wherein ∘ each drive wheel of the pair of drive wheels is mechanically interconnected with a respective front caster wheel of the pair of front caster wheels by a bogie arm having a pivot point, o the robot chassis is supported by the bogie arms at the pivot points and by the pair of back caster wheels, characterized in that • the bogie arms each comprise a bogie arm extension protruding behind the axis of the drive wheels, wherein each bogie arm extension is adapted for mounting of one or more traction weight blocks, • and one or more traction weight blocks. • a pair of drive wheels wherein each drive wheel of the pair of drive wheels is coupled to a respective drive motor of a set of drive motors, • a pair of front caster wheels at the front end of the mobile robot, • a pair of back caster wheels at the back end of the mobile robot, ∘ each drive wheel of the pair of drive wheels is mechanically interconnected with a respective front caster wheel of the pair of front caster wheels by a bogie arm having a pivot point, o the robot chassis is supported by the bogie arms at the pivot points and by the pair of back caster wheels, • the bogie arms each comprise a bogie arm extension protruding behind the axis of the drive wheels, wherein each bogie arm extension is adapted for mounting of one or more traction weight blocks, • and one or more traction weight blocks.
Method of landing an aircraft of the powered airship type with at least partial buoyancy having a general shape defined by an upper portion that is rounded and a bottom face (511, 611, 711) of flat or very slightly curved shape, thus producing an overall resultant force directed towards the ground, a force called downward force, in particular with an overall nose-down torque (56, 66), and comprising, in the front portion, one or more elevators and a rigid anchoring device, said method comprising the following steps: - descending towards the ground with a forward velocity that is not zero relative to the atmosphere, as far as a distance from the ground at which the relative wind speed exerts on the airship in neutral attitude, an overall resultant force directed towards the ground, called downward force, in particular with an overall nose-down torque (56, 66); - operating the elevators so as to obtain a nose-lift angle supplying a lift that partially compensates the downward force, thus causing descending flight, until contact (FIGURE 9c) of a rear portion of the airship with the ground is obtained; - operating the elevators so as to obtain a reduction of the nose-lift angle until contact of a front portion (722, 721) of the airship with the ground is obtained under the effect of said downward force. - descending towards the ground with a forward velocity that is not zero relative to the atmosphere, as far as a distance from the ground at which the relative wind speed exerts on the airship in neutral attitude, an overall resultant force directed towards the ground, called downward force, in particular with an overall nose-down torque (56, 66); - operating the elevators so as to obtain a nose-lift angle supplying a lift that partially compensates the downward force, thus causing descending flight, until contact (FIGURE 9c) of a rear portion of the airship with the ground is obtained; - operating the elevators so as to obtain a reduction of the nose-lift angle until contact of a front portion (722, 721) of the airship with the ground is obtained under the effect of said downward force.
A method for multiplexing uplink grant resources, comprising: determining, by a network device, control information, wherein the control information comprises uplink grant resources information and multiplexing manner information, wherein, the uplink grant resources information is used for indicating uplink grant resources configured by the network device for a terminal device, the multiplexing manner information is used for indicating a logical channel multiplexing manner of remaining uplink grant resources, wherein the remaining uplink grant resources are uplink grant resources in the uplink grant resources except a part of uplink grant resources used for carrying data in one or more logical channels corresponding to the uplink grant resources; and transmitting, by the network device, the control information to the terminal device. determining, by a network device, control information, wherein the control information comprises uplink grant resources information and multiplexing manner information, wherein, the uplink grant resources information is used for indicating uplink grant resources configured by the network device for a terminal device, the multiplexing manner information is used for indicating a logical channel multiplexing manner of remaining uplink grant resources, wherein the remaining uplink grant resources are uplink grant resources in the uplink grant resources except a part of uplink grant resources used for carrying data in one or more logical channels corresponding to the uplink grant resources; and transmitting, by the network device, the control information to the terminal device.
A method for producing an aqueous fluorinated polymer dispersion, which comprises subjecting a monomer containing at least one fluorinated monomer to emulsion polymerization in the presence of a hydrocarbon anionic emulsifier having a critical micelle concentration of at most 0.09 mass%, as measured at 25 °C by the surface tension method, in an aqueous medium to produce an aqueous dispersion of a fluorinated polymer, wherein the hydrocarbon anionic emulsifier is at least one member selected from the group consisting of a polyoxyethylene alkyl ether sulfate and a dialkyl sulfosuccinate, represented by the following formula or: R α O(CH 2 CH 2 O) m SO 3 - M α + wherein R α is a C 4-24 alkyl group, m is an integer of from 2 to 20, and M α + is a cation; wherein each of R β and R γ which are independent of each other, is a cyclic C 4-12 alkyl group, and M β + is a cation, wherein the hydrocarbon anionic emulsifier is not sodium dicyclohexyl sulfosuccinate. wherein each of R β and R γ which are independent of each other, is a cyclic C 4-12 alkyl group, and M β + is a cation, wherein the hydrocarbon anionic emulsifier is not sodium dicyclohexyl sulfosuccinate.
A converging split-flow microchannel evaporator (10, 50, 92), comprising: a thermally conductive contact surface to mate to a surface to be cooled, a core mounted in thermal connection with the contact surface and defining at least one layer of microchannels (28, 30) each spanning between a first end and a second end, a first fluid inlet (20, 56) hydraulically connected to the first end of a first plurality (28, 70) of the microchannels defined in the core, a first plurality of inlet restrictions (32, 90) at the first fluid inlet (20, 70) that each restrict the flow into one of the first plurality of microchannels (28, 70) defined in the core, wherein each of the first plurality of microchannels (28, 70) is provided with a corresponding one of the first plurality of inlet restrictions (32, 90), a second fluid inlet (22, 58) hydraulically connected to the first end of a second plurality (30, 72) of the microchannels defined in the core, a second plurality of inlet restrictions (34, 90) at the second fluid inlet (22, 58) that each restrict the flow into one of the second plurality of microchannels (30, 72) defined in the core, wherein each of the second plurality of microchannels (30, 72) is provided with a corresponding one of the second plurality of inlet restrictions (34, 90), and a fluid outlet (26, 82) located between the first fluid inlet and the second fluid inlet (22, 58), hydraulically connected to the second ends of the microchannels in the first plurality of microchannels (28, 56), and hydraulically connected to the second ends of the microchannels in the second plurality of microchannels (30, 72). a thermally conductive contact surface to mate to a surface to be cooled, a core mounted in thermal connection with the contact surface and defining at least one layer of microchannels (28, 30) each spanning between a first end and a second end, a first fluid inlet (20, 56) hydraulically connected to the first end of a first plurality (28, 70) of the microchannels defined in the core, a first plurality of inlet restrictions (32, 90) at the first fluid inlet (20, 70) that each restrict the flow into one of the first plurality of microchannels (28, 70) defined in the core, wherein each of the first plurality of microchannels (28, 70) is provided with a corresponding one of the first plurality of inlet restrictions (32, 90), a second fluid inlet (22, 58) hydraulically connected to the first end of a second plurality (30, 72) of the microchannels defined in the core, a second plurality of inlet restrictions (34, 90) at the second fluid inlet (22, 58) that each restrict the flow into one of the second plurality of microchannels (30, 72) defined in the core, wherein each of the second plurality of microchannels (30, 72) is provided with a corresponding one of the second plurality of inlet restrictions (34, 90), and a fluid outlet (26, 82) located between the first fluid inlet and the second fluid inlet (22, 58), hydraulically connected to the second ends of the microchannels in the first plurality of microchannels (28, 56), and hydraulically connected to the second ends of the microchannels in the second plurality of microchannels (30, 72).
A method for a device capable of carrier aggregation, comprising: applying at least one timer function by counting downlink subframes from at least two different serving cells according to a counting rule, wherein the at least one timer function is associated with a common discontinuous reception operation at the device, applied to the at least two different serving cells, the counting rule is applied in the at least two different serving cells, and time division duplexing configurations of the at least two different serving cells are cell specific. applying at least one timer function by counting downlink subframes from at least two different serving cells according to a counting rule, wherein the at least one timer function is associated with a common discontinuous reception operation at the device, applied to the at least two different serving cells, the counting rule is applied in the at least two different serving cells, and time division duplexing configurations of the at least two different serving cells are cell specific.
An in vitro method for aiding assessment of the likelihood of dysplasia or esophagal adenocarcinoma being present in a subject, wherein the sample is from a subject having Barrett's Esophagus, the method comprising (a) providing an esophagal sample from said subject (b) determining the methylation status of (i) SLC22A18, (ii) PIGR, (iii) GJA12 and (iv) RIN2 in said sample; comparing the methylation values of (b) to a reference standard, wherein said reference standard is from a subject having Barrett's esophagus, but not having dysplasia or esophagal adenocarcinoma; wherein if 2 or more of said genes are methylated at a level higher than the reference standard then an increased likelihood of presence of dysplasia or esophagal adenocarcinoma is determined. (a) providing an esophagal sample from said subject (b) determining the methylation status of (i) SLC22A18, (ii) PIGR, (iii) GJA12 and (iv) RIN2 (i) SLC22A18, (ii) PIGR, (iii) GJA12 and (iv) RIN2
A composition for application to a substrate, to generate a pigmented magnetic layer upon and / or integral with said substrate, the composition comprising: particles each comprising: (i) a core consisting essentially of a magnetic material; (ii) a coating at least substantially enveloping the core to cause said particles when applied to a substrate to form a pigmented magnetic layer having a Hunter Lab colour scale L-value of at least 50, wherein the coating of each particle is sufficiently opaque to conceal a colour of said core, or any additional coating if present beneath said coating; and (iii) optionally one or more additional coatings each disposed between said core and said coating and / or at least substantially enveloping said coating; optionally a liquid phase, which if present retains said particles at least partially in suspension; and optionally one or more other magnetic or non-magnetic inks or toners. particles each comprising: (i) a core consisting essentially of a magnetic material; (ii) a coating at least substantially enveloping the core to cause said particles when applied to a substrate to form a pigmented magnetic layer having a Hunter Lab colour scale L-value of at least 50, wherein the coating of each particle is sufficiently opaque to conceal a colour of said core, or any additional coating if present beneath said coating; and (iii) optionally one or more additional coatings each disposed between said core and said coating and / or at least substantially enveloping said coating; (i) a core consisting essentially of a magnetic material; (ii) a coating at least substantially enveloping the core to cause said particles when applied to a substrate to form a pigmented magnetic layer having a Hunter Lab colour scale L-value of at least 50, wherein the coating of each particle is sufficiently opaque to conceal a colour of said core, or any additional coating if present beneath said coating; and (iii) optionally one or more additional coatings each disposed between said core and said coating and / or at least substantially enveloping said coating; optionally a liquid phase, which if present retains said particles at least partially in suspension; and optionally one or more other magnetic or non-magnetic inks or toners.
Method for managing the longitudinal speed of a first vehicle, comprising: - a step of detecting vehicles in nearby traffic, the first vehicle comprising detecting at least one vehicle (401, 402, 411, 421) ahead of the first vehicle and at least one vehicle (403, 412, 422) behind the first vehicle, - a step of calculating reference speeds, comprising calculating at least a first reference speed on the basis of the at least one vehicle ahead of the first vehicle and calculating at least a second reference speed on the basis of the at least one vehicle behind the first vehicle, characterized in that the method comprises - a step of calculating a maximum speed setpoint (CMAX) on the basis of the first reference speed, - a step of calculating a minimum speed setpoint (CMIN) on the basis of the second reference speed, - a step of calculating a speed setpoint of the first vehicle, the speed setpoint of the first vehicle being less than or equal to said maximum speed setpoint (CMAX) and greater than or equal to said minimum speed setpoint (CMIN). - a step of detecting vehicles in nearby traffic, the first vehicle comprising detecting at least one vehicle (401, 402, 411, 421) ahead of the first vehicle and at least one vehicle (403, 412, 422) behind the first vehicle, - a step of calculating reference speeds, comprising calculating at least a first reference speed on the basis of the at least one vehicle ahead of the first vehicle and calculating at least a second reference speed on the basis of the at least one vehicle behind the first vehicle, characterized in that the method comprises - a step of calculating a maximum speed setpoint (CMAX) on the basis of the first reference speed, - a step of calculating a minimum speed setpoint (CMIN) on the basis of the second reference speed, - a step of calculating a speed setpoint of the first vehicle, the speed setpoint of the first vehicle being less than or equal to said maximum speed setpoint (CMAX) and greater than or equal to said minimum speed setpoint (CMIN).
An electronic component package comprising: a housing including a flow path disposed on one surface thereof; and an inlet and an outlet disposed in the housing, wherein cooling water flows into the flow path, wherein the flow path includes a first region connected to the inlet and a second region connected to the outlet, wherein the first region includes a first tapered portion connected to the inlet and a guide dividing the cooling water in the two flows, wherein the guide includes a first end portion which faces the inlet, a second end portion disposed opposite to the first end portion and a bent portion disposed between the first end portion and the second end portion, characterized in that width of first end portion is increased a distance away from the inlet so that a width of the bent portion is wider than the width of the first end portion, wherein the first tapered portion becomes bent so that an inner sidewall of the first tapered portion has a portion which intersects a central axis of the inlet. a housing including a flow path disposed on one surface thereof; and an inlet and an outlet disposed in the housing, wherein cooling water flows into the flow path, wherein the flow path includes a first region connected to the inlet and a second region connected to the outlet, wherein the first region includes a first tapered portion connected to the inlet and a guide dividing the cooling water in the two flows, wherein the guide includes a first end portion which faces the inlet, a second end portion disposed opposite to the first end portion and a bent portion disposed between the first end portion and the second end portion, characterized in that width of first end portion is increased a distance away from the inlet so that a width of the bent portion is wider than the width of the first end portion, wherein the first tapered portion becomes bent so that an inner sidewall of the first tapered portion has a portion which intersects a central axis of the inlet.