mhurhangee/ep-ind-claims huggingface dataset:
A base station apparatus characterized by comprising: a mapping section configured to map first downlink control information in Long-Term-Evolution-Advanced, LTE-A, system to at least one of control channel elements, CCEs+, wherein each of the CCEs+ is comprised of resource elements and the CCEs+ are numbered respectively by the CCE+ numbers that are assigned thereto; and a transmitting section configured to transmit the first downlink control information on said at least one of the CCEs+ that are numbered by the CCE+ numbers, wherein the CCE+ numbers are respectively assigned to the CCEs+ such that each of the CCEs+ has a CCE+ number same as a CCE number that is assigned to a CCE, that is used for second downlink control information in LTE system and that is comprised of the resource elements, of which said each of the CCEs+ is comprised. a mapping section configured to map first downlink control information in Long-Term-Evolution-Advanced, LTE-A, system to at least one of control channel elements, CCEs+, wherein each of the CCEs+ is comprised of resource elements and the CCEs+ are numbered respectively by the CCE+ numbers that are assigned thereto; and a transmitting section configured to transmit the first downlink control information on said at least one of the CCEs+ that are numbered by the CCE+ numbers, wherein the CCE+ numbers are respectively assigned to the CCEs+ such that each of the CCEs+ has a CCE+ number same as a CCE number that is assigned to a CCE, that is used for second downlink control information in LTE system and that is comprised of the resource elements, of which said each of the CCEs+ is comprised.
A packaged article comprising: a package acting as a cartridge that provides for storing, shipping, and feeding tolerance rings (200, 200', 200", 200′′′); and a plurality of tolerance rings (200, 200', 200", 200′′′) nested in the package such that an inner radial edge of the tolerance ring contacts or is in close proximity to an outer radial edge of another tolerance ring (200"), wherein the tolerance rings (200, 200', 200", 200′′′) each comprise a plurality of waves extending at least one of radially inward or outward and having first and second end portions (416, 420) terminating at first and second ends, respectively, wherein each tolerance ring (200, 200', 200", 200′′′) has a circumference that spans 180° or less in an uninstalled, unbiased state. a package acting as a cartridge that provides for storing, shipping, and feeding tolerance rings (200, 200', 200", 200′′′); and a plurality of tolerance rings (200, 200', 200", 200′′′) nested in the package such that an inner radial edge of the tolerance ring contacts or is in close proximity to an outer radial edge of another tolerance ring (200"), wherein the tolerance rings (200, 200', 200", 200′′′) each comprise a plurality of waves extending at least one of radially inward or outward and having first and second end portions (416, 420) terminating at first and second ends, respectively, wherein each tolerance ring (200, 200', 200", 200′′′) has a circumference that spans 180° or less in an uninstalled, unbiased state.
A laser scanner for the detection and determination of distances of objects in a monitoring zone, comprising a light transmitter for the transmission of a transmission light beam having a plurality of consecutive individual light pulses; a rotatable deflection unit for the periodic deflection of the transmission light beam into the monitoring zone; an angular measurement unit for the generation of angular position signals in dependence on an angular position of the deflection unit; a light receiver for the generation of received signals from the transmission light remitted or reflected from objects in the monitoring zone; a first histogram memory having a plurality of memory spaces in which respectively a section of the received signal can be accumulated; and an evaluation unit which is configured to identify a received pulse associated with an object in a first histogram taken from the first histogram memory and therefrom to determine the distance of the object by means of a light time of flight method, wherein the first histogram is collected over a time interval which is associated with an angular position signal corresponding to an angular section, characterized in that at least a second histogram memory having a plurality of memory spaces in which respectively a section of the received signal can be accumulated is provided in order to accumulate the first histogram and a second histogram taken from the second histogram memory in overlapping time intervals, and in that the laser scanner is configured as a safety scanner having a secure output, wherein the evaluation unit is configured to recognize inadmissible intrusions into protective fields within the monitoring zone and thereupon to output a safety-related shut-down signal at the secure output.
A vascular treatment device, comprising: an elongated intraluminal member shaped and dimensioned for passage through blood vessels of a subject; and a motorized drive system coupled to the intraluminal member, the motorized drive system comprising a motor drive circuit and a motor, wherein the motorized drive system is configured to: rotate the intraluminal member or portion thereof in a first direction, characterised in that said motorized drive system is further configured to periodically change the direction of rotation of the intraluminal member or portion thereof to perform rotational oscillation, wherein the periodic changing of the direction of rotation of the intraluminal member occurs at pre-selected time intervals, and wherein the rotational oscillation of the intraluminal member or portion thereof damages an inner wall of the blood vessels, and inhibits entanglement of the intraluminal member or portion thereof with the inner wall of the blood vessels. an elongated intraluminal member shaped and dimensioned for passage through blood vessels of a subject; and a motorized drive system coupled to the intraluminal member, the motorized drive system comprising a motor drive circuit and a motor, wherein the motorized drive system is configured to: rotate the intraluminal member or portion thereof in a first direction, characterised in that said motorized drive system is further configured to periodically change the direction of rotation of the intraluminal member or portion thereof to perform rotational oscillation, wherein the periodic changing of the direction of rotation of the intraluminal member occurs at pre-selected time intervals, and wherein the rotational oscillation of the intraluminal member or portion thereof damages an inner wall of the blood vessels, and inhibits entanglement of the intraluminal member or portion thereof with the inner wall of the blood vessels. rotate the intraluminal member or portion thereof in a first direction, characterised in that said motorized drive system is further configured to periodically change the direction of rotation of the intraluminal member or portion thereof to perform rotational oscillation, wherein the periodic changing of the direction of rotation of the intraluminal member occurs at pre-selected time intervals, and wherein the rotational oscillation of the intraluminal member or portion thereof damages an inner wall of the blood vessels, and inhibits entanglement of the intraluminal member or portion thereof with the inner wall of the blood vessels.
A dual coil solenoid valve for a fuel gas control valve, comprising a stationary coil assembly and a moving coil assembly, wherein said stationary coil assembly comprises a stationary magnetic core and a stationary coil, said moving coil assembly comprises a moving magnetic core and a moving coil, a groove is provided on the inside of both said stationary magnetic core and said moving magnetic core, said stationary coil is arranged in the groove of said stationary magnetic core, said moving coil is arranged in the groove of said moving magnetic core, and said stationary coil assembly and said moving coil assembly have the same cross-sectional shape and area and are arranged oppositely with their axes coinciding with each other; characterized in that said stationary magnetic core and moving magnetic core are E-shaped.
A footwear system, comprising: an article of footwear including an upper member and a sole member engaged with the upper member; and a data transmission system engaged with the article of footwear; a remote system in communication with the data transmission system for receiving data from the data transmission system; wherein the data transmission system is arranged to transmit data from the article of footwear for receipt by the remote system; wherein the data transmitted includes user identification data and article of footwear identification data, and wherein the data is configured to be used to register the user for an athletic event or competition; wherein the remote system is configured to register the user for the athletic event or competition using the transmitted data. an article of footwear including an upper member and a sole member engaged with the upper member; and a data transmission system engaged with the article of footwear; a remote system in communication with the data transmission system for receiving data from the data transmission system; wherein the data transmission system is arranged to transmit data from the article of footwear for receipt by the remote system; wherein the data transmitted includes user identification data and article of footwear identification data, and wherein the data is configured to be used to register the user for an athletic event or competition; wherein the remote system is configured to register the user for the athletic event or competition using the transmitted data.
Method for operating a dual-fuel large diesel engine, in particular a longitudinally scavenged two-stroke large diesel engine, which can be operated in a liquid mode in which a liquid fuel is introduced into a cylinder for combustion and which can also be operated in a gas mode in which a gas as fuel is introduced into the cylinder, the gas is mixed with scavenging air and combusted at an air-gas-ratio, wherein during operation in gas mode a control parameter is monitored which allows detecting changes in the air-gas ratio, and wherein the large diesel engine is operated in a power balance mode, if the control parameter reaches a limit value, wherein in the power balance mode the air-gas ratio is increased for the combustion of gas, wherein in the power balance mode an additional amount of liquid fuel is introduced in addition to the gas into the combustion chamber.
Injection moulding device for producing plastics parts from one or more material components, comprising: a. an injection mould with a centre part, which can be rotated about a first axis of rotation, is arranged between a first and a second mould half, can be displaced relative to said mould halves in a first direction, and comprises at least a pair of lateral surfaces, which are arranged opposite one another with respect to the first axis of rotation of the centre part, and in a closed position with the first and second mould halves form cavities; b. a retaining device, which serves to retain the centre part with respect to the first and the second mould half, and also c. a transfer device, which at least in an open position is arranged laterally next to the centre part and serves to transfer plastics parts adhering to a lateral surface of the centre part that is turned in this position; d. wherein the transfer device is fastened to the retaining device of the centre part and includes a base, which can be displaced with respect to the retaining device, and a storage means, which can be rotated about a second axis, serves to temporarily transfer and store plastic parts from cavities of the centre part and comprises retaining means arranged distributed on the perimeter of the storage means. a. an injection mould with a centre part, which can be rotated about a first axis of rotation, is arranged between a first and a second mould half, can be displaced relative to said mould halves in a first direction, and comprises at least a pair of lateral surfaces, which are arranged opposite one another with respect to the first axis of rotation of the centre part, and in a closed position with the first and second mould halves form cavities; b. a retaining device, which serves to retain the centre part with respect to the first and the second mould half, and also c. a transfer device, which at least in an open position is arranged laterally next to the centre part and serves to transfer plastics parts adhering to a lateral surface of the centre part that is turned in this position; d. wherein the transfer device is fastened to the retaining device of the centre part and includes a base, which can be displaced with respect to the retaining device, and a storage means, which can be rotated about a second axis, serves to temporarily transfer and store plastic parts from cavities of the centre part and comprises retaining means arranged distributed on the perimeter of the storage means.
A method for Automatic Gain Control AGC during a compressed mode search in a Multiple Input Multiple Output MIMO system, the method comprising: simultaneously determining power at a first frequency band using a first receiver connected to a first antenna and determining power at a second frequency band using a second receiver connected to a second antenna, the second receiver being in a compressed mode; when the second receiver changes from receiving the second frequency band to receiving the first frequency band, correcting the power determined at the first frequency band using the first receiver; and applying the corrected power determined at the first frequency band using the first receiver to the second receiver, wherein the correcting of the power determined at the first frequency band using the first receiver comprises determining (420 an average value of the difference between the power determined at the first frequency band using the first receiver of a predefined number of times and the power determined at the second frequency band using the second receiver of a predefined number of times; comparing the average value with at least one predefined threshold value; and based on the comparison result, correcting the power determined at the first frequency band using the receiver. simultaneously determining power at a first frequency band using a first receiver connected to a first antenna and determining power at a second frequency band using a second receiver connected to a second antenna, the second receiver being in a compressed mode; when the second receiver changes from receiving the second frequency band to receiving the first frequency band, correcting the power determined at the first frequency band using the first receiver; and applying the corrected power determined at the first frequency band using the first receiver to the second receiver, wherein the correcting of the power determined at the first frequency band using the first receiver comprises determining (420 an average value of the difference between the power determined at the first frequency band using the first receiver of a predefined number of times and the power determined at the second frequency band using the second receiver of a predefined number of times; comparing the average value with at least one predefined threshold value; and based on the comparison result, correcting the power determined at the first frequency band using the receiver. determining (420 an average value of the difference between the power determined at the first frequency band using the first receiver of a predefined number of times and the power determined at the second frequency band using the second receiver of a predefined number of times; comparing the average value with at least one predefined threshold value; and based on the comparison result, correcting the power determined at the first frequency band using the receiver.
A device (21, 50) for breaking eggs (23, 55, 56), comprising: - at least one pair of supports (22, 51-54) for an egg; - at least one blade (24, 57-60), ∘ which is movable from a position outside the supports to a position inside the supports for cleaving an egg situated on the supports; - a lock for fixing the position of an egg placed on the supports; wherein: ∘ the lock is movable between: ▪ a first position wherein the lock unblocks a space for placing an egg on the supports; and ▪ a second position wherein the lock blocks a space for removing an egg (55, 56) from the supports; characterized in that ∘ the periphery of the lock is provided with a roughening, such as a toothing, for increasing the grip, and wherein the lock is provided with an adjustable clamp in order to allow the lock to be movable in a first position with respect to the clamp and to allow the clamp to engage with the roughening on the lock in a second state, the clamp being configured ∘ to ensure that the lock bears against an egg in the second position without exerting pressure or to ensure that the lock is positioned just above an egg. - at least one pair of supports (22, 51-54) for an egg; - at least one blade (24, 57-60), ∘ which is movable from a position outside the supports to a position inside the supports for cleaving an egg situated on the supports; ∘ which is movable from a position outside the supports to a position inside the supports for cleaving an egg situated on the supports; - a lock for fixing the position of an egg placed on the supports; ∘ the lock is movable between: ▪ a first position wherein the lock unblocks a space for placing an egg on the supports; and ▪ a second position wherein the lock blocks a space for removing an egg (55, 56) from the supports; ▪ a first position wherein the lock unblocks a space for placing an egg on the supports; and ▪ a second position wherein the lock blocks a space for removing an egg (55, 56) from the supports; ∘ the periphery of the lock is provided with a roughening, such as a toothing, for increasing the grip, and wherein the lock is provided with an adjustable clamp in order to allow the lock to be movable in a first position with respect to the clamp and to allow the clamp to engage with the roughening on the lock in a second state, the clamp being configured ∘ to ensure that the lock bears against an egg in the second position without exerting pressure or to ensure that the lock is positioned just above an egg.
A transport case with a hinge, the hinge comprising two elements (2, 3) which are mutually articulated about a common axis and are both able to rotate with respect to said common axis, each element (2, 3) being delimited by two parallel walls and having a total width that is equal to a width of a channel delimited between stiffening ribs of the transport case on which the hinge is installed, each element (2, 3) being associated with the stiffening ribs of the respective transport case, once it is inserted between said ribs, without any mechanical machining of the surfaces of the case, characterized in that the hinge comprising at least one through hole in said walls for fixing the element (2, 3) to the stiffening ribs of the respective transport case, said through hole accommodating a fixing stem, nail or screw.
An agent for use as a pharmaceutical product for preventing or ameliorating skin aging, comprising triterpenoid saponins represented by the following formula as an active ingredient: wherein at least one of R 1 and R 2 is a tigloyl group and the other represents a tigloyl group or an angeloyl group; R 3 represents a methyl group or a hydroxymethyl group; and R 4 represents Glc, Xyl or Gal.
A distance measuring device adapted to irradiate an object with light and receive reflected light therefrom to measure a distance from the object, comprising: a light source device having at least one light-emitting part (12a, 12b; 312); a deflection part being provided rotatably around a predetermined axis line and having plural deflection faces (24a, 24b) adapted to reflect light from the light source device toward the object; a reflection part being provided rotatably around the axis line and integrally with the deflection part and having plural reflection faces (32a, 32b) being provided to correspond to the plural deflection faces (24a, 24b) individually and reflecting a portion of light reflected from a corresponding deflection face (24a, 24b) and reflected from the object; and a light-receiving part having at least one light-receiving element (44; 144a, 144b) adapted to receive light reflected from the reflection part; wherein respective inclination angles (β) of the plural deflection faces are mutually different with respect to the axis line; wherein the deflection part and the reflection part are attached to an rotation axis defining the axis line; characterized in that: the deflection part and the reflection part are mutually separated in a direction of the axis line; the reflection faces (32a, 32b) are parallel to the axis line; and the respective inclination angles (β) of opposing deflection faces (24a, 24b) are only different in their sign (β, -β) with respect to the axis line. a light source device having at least one light-emitting part (12a, 12b; 312); a deflection part being provided rotatably around a predetermined axis line and having plural deflection faces (24a, 24b) adapted to reflect light from the light source device toward the object; a reflection part being provided rotatably around the axis line and integrally with the deflection part and having plural reflection faces (32a, 32b) being provided to correspond to the plural deflection faces (24a, 24b) individually and reflecting a portion of light reflected from a corresponding deflection face (24a, 24b) and reflected from the object; and a light-receiving part having at least one light-receiving element (44; 144a, 144b) adapted to receive light reflected from the reflection part; wherein respective inclination angles (β) of the plural deflection faces are mutually different with respect to the axis line; wherein the deflection part and the reflection part are attached to an rotation axis defining the axis line; characterized in that: the deflection part and the reflection part are mutually separated in a direction of the axis line; the reflection faces (32a, 32b) are parallel to the axis line; and the respective inclination angles (β) of opposing deflection faces (24a, 24b) are only different in their sign (β, -β) with respect to the axis line. the deflection part and the reflection part are mutually separated in a direction of the axis line; the reflection faces (32a, 32b) are parallel to the axis line; and the respective inclination angles (β) of opposing deflection faces (24a, 24b) are only different in their sign (β, -β) with respect to the axis line.