mhurhangee/ep-ind-claims huggingface dataset:
Tool for processing a workpiece, in particular for pressing, holding and/or cutting a pipe, - having a first pair of jaws (2,4) which has a first upper jaw and a first lower jaw, - having a first effective region which is formed between the front ends of the first jaws (2, 4), - having a first intake contour which is formed between the rear ends (8, 10) of the first jaws (2, 4) and - having a holder which receives the first jaws (2, 4) in a movable manner independently of each other, - wherein the first jaws (2,4) can be pivoted between an open position and a closed position, - there is provided a second pair of jaws (22, 24) which has a second upper jaw and a second lower jaw, - a second effective region is formed between the front ends of the second jaws (22, 24), - a second intake contour is formed between the rear ends (28,30) of the second jaws (22, 24), - the holder receives the second jaws (22, 24) in a movable manner independently of each other and independently of the first jaws (2, 4), - the second jaws (22, 24) can be pivoted between an open position and a closed position and characterised in that - the first intake contour and the second intake contour are configured differently. - having a first pair of jaws (2,4) which has a first upper jaw and a first lower jaw, - having a first effective region which is formed between the front ends of the first jaws (2, 4), - having a first intake contour which is formed between the rear ends (8, 10) of the first jaws (2, 4) and - having a holder which receives the first jaws (2, 4) in a movable manner independently of each other, - wherein the first jaws (2,4) can be pivoted between an open position and a closed position, - there is provided a second pair of jaws (22, 24) which has a second upper jaw and a second lower jaw, - a second effective region is formed between the front ends of the second jaws (22, 24), - a second intake contour is formed between the rear ends (28,30) of the second jaws (22, 24), - the holder receives the second jaws (22, 24) in a movable manner independently of each other and independently of the first jaws (2, 4), - the second jaws (22, 24) can be pivoted between an open position and a closed position and characterised in that - the first intake contour and the second intake contour are configured differently.
Testing device (100, 200, 300) for eye showers, characterized by - a vessel for receiving the shower heads of an eye shower and the flushing fountain emanating from these shower heads, the vessel being aligned parallel to this flushing fountain, - a water transfer for receiving and transferring the water from the flushing fountain from the vessel, - a container for receiving the water of the flushing fountain from the water transfer, - a flow measuring unit for measuring the volume of water in the flushing fountain - a time measuring unit for measuring the flow rate of the flushing fountain water in a time interval, whereby the vessel having an optically evaluable measuring unit (11, 12, 13) for measuring the flushing fountain height. - a vessel for receiving the shower heads of an eye shower and the flushing fountain emanating from these shower heads, the vessel being aligned parallel to this flushing fountain, - a water transfer for receiving and transferring the water from the flushing fountain from the vessel, - a container for receiving the water of the flushing fountain from the water transfer, - a flow measuring unit for measuring the volume of water in the flushing fountain - a time measuring unit for measuring the flow rate of the flushing fountain water in a time interval,
A reinforcement binding machine in which a reel mounting shaft is formed on a case mounted to a binding machine main body, in which a reel around which a wire for reinforcement binding is wound is attached to the reel mounting shaft, in which, when the wire is fed out while rotating the reel, the wire is wound around reinforcing bars in a loop-like form and is then twisted to bind the reinforcing bars, in which an optical sensor facing a side surface of the reel is provided at a bottom of the case, and in which a detection object is provided at a position on the reel on a case bottom side of the reel, characterized in that an opaque cover for covering the optical sensor is rotatably retained by the reel mounting shaft, an opening is formed in a region of the cover passing over the optical sensor, and that the detection object has a reflection light quantity different from a reflection light quantity of the cover.
An audio encoder comprising an input for receiving samples of audio data; an output for encoded audio data; a plurality of signal processing units (13, 14, 15, 16, 17, 18, 19) for implementing a plurality of encoding functions; means (12, 21) for causing at least one of said encoding functions to be applied in use to said audio data samples to produce said encoded audio data, wherein said causing means comprises an operation scheduler arranged to implement an operation schedule that indicates the order in which at least some of the encoding functions are applied to said audio data samples, and to cause said at least some of the encoding functions to be applied to said audio data samples in accordance with said operation schedule by sending said audio data samples to a first of said signal processing units identified by said schedule, receiving processed data back from said first signal processing unit, and then sending the processed data to, and receiving processed data from, the or each next signal processing unit identified by said schedule until all of said at least some of said encoding functions are applied to said audio data samples, characterised in that said encoder further includes means for modifying said operation schedule to change said order in which at least some of the encoding functions are applied to said audio data samples and sent to and received from said signal processing units by said operation scheduler.
A method of wireless communication, the method comprising: transmitting, by a user equipment, LTE, to a base station, an indication of LTE capabilities regarding at least one of: whether the UE can support wideband physical resource groups, PRGs, in transmission time intervals, TTIs, having durations of one millisecond, 1 ms, or more; whether the UE can support wideband PRGs in short TTIs having durations of less than 1 ms; or whether the UE can support simultaneous wideband PRGs in TTIs having durations of 1 ms or more and wideband PRGs in short TTIs having durations of less than 1 ms; and receiving a configuration, by the UE from the base station, to perform wireless communications in wideband mode for a given TTI. transmitting, by a user equipment, LTE, to a base station, an indication of LTE capabilities regarding at least one of: whether the UE can support wideband physical resource groups, PRGs, in transmission time intervals, TTIs, having durations of one millisecond, 1 ms, or more; whether the UE can support wideband PRGs in short TTIs having durations of less than 1 ms; or whether the UE can support simultaneous wideband PRGs in TTIs having durations of 1 ms or more and wideband PRGs in short TTIs having durations of less than 1 ms; and whether the UE can support wideband physical resource groups, PRGs, in transmission time intervals, TTIs, having durations of one millisecond, 1 ms, or more; whether the UE can support wideband PRGs in short TTIs having durations of less than 1 ms; or whether the UE can support simultaneous wideband PRGs in TTIs having durations of 1 ms or more and wideband PRGs in short TTIs having durations of less than 1 ms; and receiving a configuration, by the UE from the base station, to perform wireless communications in wideband mode for a given TTI.
A light source system, comprising: an excitation light source for emitting an excitation light during at least first time intervals and second time intervals; a compensation light source for emitting a compensation light during at least third time intervals, the compensation light emitted by the compensation light source being a laser light including at least one color; a rotating color wheel (103, 403), including at least a first region (201, 404) and a second region (202, 405), wherein during the first time intervals and the second time intervals, the first region (201, 404) is illuminated by the excitation light and converts it to a light sequence including at least two colors, and wherein during the third time intervals, the second region (202, 405) transmits the compensation light; wherein the light including the at least two colors includes at least a broad band fluorescent light, and wherein the at least one color laser light compensates for the fluorescent light or lights divided from the fluorescent light; wherein a spectral range of the at least one color laser light overlaps partly with a spectral range of the fluorescent light, and wherein the spectral range of the fluorescent light is 480 - 700 nm; characterized in that the compensation light source includes a first compensation light source and a second compensation light source, the first compensation light source emitting a first compensation light, and the second compensation light source emitting a second compensation light. an excitation light source for emitting an excitation light during at least first time intervals and second time intervals; a compensation light source for emitting a compensation light during at least third time intervals, the compensation light emitted by the compensation light source being a laser light including at least one color; a rotating color wheel (103, 403), including at least a first region (201, 404) and a second region (202, 405), wherein during the first time intervals and the second time intervals, the first region (201, 404) is illuminated by the excitation light and converts it to a light sequence including at least two colors, and wherein during the third time intervals, the second region (202, 405) transmits the compensation light; wherein the light including the at least two colors includes at least a broad band fluorescent light, and wherein the at least one color laser light compensates for the fluorescent light or lights divided from the fluorescent light;
A catalyst comprising a) an organic inorganic composite material obtained by bonding (i) an organosilicon compound having at least two groups containing reactive silicon at a molecular end, bonded to one silicon atom constituting the organosilicon compound, and (ii) an inorganic oxide material, the organosilicon compound and the inorganic oxide material being bonded to each other through the plurality of groups containing the reactive silicon of the organosilicon compound, an oxygen atom on a surface of the inorganic oxide material and a silicon atom of the group containing reactive silicon being covalently-bonded, and b) a transition metal or a compound thereof, wherein the organosilicon compound is represented by the following general formula: wherein X represents chlorine, bromine, iodine, siloxy group, hydroxy group, alkoxy group, allyl group or imidazolyl group, Y is an alkylene group having 1 to 3 carbon number, having bonded thereto isocyanato group, mercapto group, methylthio group, phenylthio group, dimethylphosphino group, dibutylphosphino group, dicyclohexylphosphino group, diphenylphosphino group, dimethylamino group, epoxy group, oxazolyl group, chlorine or bromine, A represents a divalent hydrocarbon group, R represents methyl group, ethyl group, butyl group or phenyl group, Q represents methyl group, ethyl group, butyl group or phenyl group, k is an integer of 1 to 3, n is 1 or 2, m is 2 or 3, 1 is 0 or 1, and 1+m+n is 4. a) an organic inorganic composite material obtained by bonding (i) an organosilicon compound having at least two groups containing reactive silicon at a molecular end, bonded to one silicon atom constituting the organosilicon compound, and (ii) an inorganic oxide material, the organosilicon compound and the inorganic oxide material being bonded to each other through the plurality of groups containing the reactive silicon of the organosilicon compound, an oxygen atom on a surface of the inorganic oxide material and a silicon atom of the group containing reactive silicon being covalently-bonded, and b) a transition metal or a compound thereof,
Device for magnetic measurement comprising a DC magnetic field sensor constituted by at least four discrete elongate elements, each element being constituted by at least one coil and a magnetic material without remanence, these discrete elements being substantially identical; characterized in that said four discrete elongate elements comprise: - a first discrete element orientated in a given direction, a second element is associated therewith in order to constitute a first differential pair orientated in a substantially identical direction but opposite way, and - two other elements constituting a second differential pair substantially identical to the first but once more orientated in a substantially identical direction to the direction of the first pair but respectively opposite way. - a first discrete element orientated in a given direction, a second element is associated therewith in order to constitute a first differential pair orientated in a substantially identical direction but opposite way, and - two other elements constituting a second differential pair substantially identical to the first but once more orientated in a substantially identical direction to the direction of the first pair but respectively opposite way.
A balancing device for a rotating part, - said rotating part defining a rotation axis, - said balancing device defining a central axis and being able to be bound to said rotating part so that said central axis basically coincides with said rotation axis, and comprising: - at least one eccentric mass that can be rotated about said central axis and that is not balanced in relation to said central axis, - at least one balancing motor, designed to rotate said eccentric mass, in relation to said rotating part around said central axis, - a fixed portion integral, in use, with said rotating part, and being characterised in that said balancing motor comprises stick-slip motor means, - said balancing motor comprising at least one active portion, movable in relation to said fixed portion and connected to said fixed portion by at least one thrust element, said thrust element being designed to move, by means of its active deformation following electrical impulses, at least part of said active portion in the circumferential direction in relation to said central axis. - said active portion comprising a support, protruding in the direction of said central axis, and said support resting, in the direction of said central axis, on said eccentric mass, - and said balancing device comprises axial thrust means designed to press said support against said eccentric mass. - said rotating part defining a rotation axis, - said balancing device defining a central axis and being able to be bound to said rotating part so that said central axis basically coincides with said rotation axis, and comprising: - at least one eccentric mass that can be rotated about said central axis and that is not balanced in relation to said central axis, - at least one balancing motor, designed to rotate said eccentric mass, in relation to said rotating part around said central axis, - a fixed portion integral, in use, with said rotating part, and being characterised in that said balancing motor comprises stick-slip motor means, - at least one eccentric mass that can be rotated about said central axis and that is not balanced in relation to said central axis, - at least one balancing motor, designed to rotate said eccentric mass, in relation to said rotating part around said central axis, - a fixed portion integral, in use, with said rotating part, - said balancing motor comprising at least one active portion, movable in relation to said fixed portion and connected to said fixed portion by at least one thrust element, said thrust element being designed to move, by means of its active deformation following electrical impulses, at least part of said active portion in the circumferential direction in relation to said central axis. - said active portion comprising a support, protruding in the direction of said central axis, and said support resting, in the direction of said central axis, on said eccentric mass, - and said balancing device comprises axial thrust means designed to press said support against said eccentric mass.
A transceiver module for an optoelectronic sensor, the transceiver module comprising a light transmitter having transmission optics (16, 16a) and a light receiver having reception optics (16, 16b), wherein a transmission angle ( α s) of transmitted light of the light transmitter is smaller than a receiving angle (α E) of received light impinging on the light receiver, light transmitter and light receiver are arranged coaxially, and the transmission optics (16, 16a) and the reception optics (16, 16b) are configured as common optics, with light transmitter and light receiver being micromechanically connected to one another at least indirectly, wherein the common optics is configured as a common lens, the common lens being configured as a multi-zone lens having a transmission zone and a reception zone, wherein in particular the transmission zone is arranged centrally and the reception zone is arranged surrounding the transmission zone and wherein in particular the light transmitter is arranged at the focal point of the transmission zone, characterized in that the reception zone has a cone component, and an annular beam profile of the received light generated by the cone component has a central region of a size corresponding to the light transmitter.
A method operational in an interfering first transmitter device for facilitating successive interference cancellation, SIC, in a wireless peer-to-peer network, comprising: receiving (534, 704) a first rate report signal from a first receiver device indicating a first transmission rate, the first receiver device being the intended receiver of a first traffic signal to be transmitted by the interfering first transmitter device; receiving (536, 706) a second rate report signal from a second receiver device indicating a second transmission rate; and selecting (538,708) a traffic transmission rate not exceeding the smallest of the first and second transmission rates for wirelessly transmitting the first traffic signal to the intended first receiver device. receiving (534, 704) a first rate report signal from a first receiver device indicating a first transmission rate, the first receiver device being the intended receiver of a first traffic signal to be transmitted by the interfering first transmitter device; receiving (536, 706) a second rate report signal from a second receiver device indicating a second transmission rate; and selecting (538,708) a traffic transmission rate not exceeding the smallest of the first and second transmission rates for wirelessly transmitting the first traffic signal to the intended first receiver device.
A fluid delivery system comprising: a volumetric pump; and one or more reservoirs coupled to the pump, wherein the pump comprises: at least one first piston inside a first hollow cylindrical part; at least one second piston positioned opposite to the first piston inside a second hollow cylindrical part, both cylindrical parts (52, 52') being assembled end-to-end facing each other to form a housing; at least one inlet port through which a medical fluid can flow into at least one pump chamber; at least one outlet port through which the medical fluid can be expelled; and a drive link providing a bidirectional linear movement to cause sliding between the housing and the pistons (54, 54') along the axis of the pistons, characterised in that at least one of the one or more reservoirs includes a contrast media; the fluid delivered comprises a medical fluid including the contrast media; and the pump comprises a disc mounted midway inside said housing, the disc comprising the inlet and outlet ports (58, 60), the disc including a receptacle to receive a drive member, wherein linear movement of the drive member causes angular movement of the disc to close the inlet and outlets ports (58, 60) in a synchronized fashion to provide a substantially continuous delivery of the medical fluid to a patient. a volumetric pump; and one or more reservoirs coupled to the pump, at least one first piston inside a first hollow cylindrical part; at least one second piston positioned opposite to the first piston inside a second hollow cylindrical part, both cylindrical parts (52, 52') being assembled end-to-end facing each other to form a housing; at least one inlet port through which a medical fluid can flow into at least one pump chamber; at least one outlet port through which the medical fluid can be expelled; and a drive link providing a bidirectional linear movement to cause sliding between the housing and the pistons (54, 54') along the axis of the pistons, at least one of the one or more reservoirs includes a contrast media; the fluid delivered comprises a medical fluid including the contrast media; and the pump comprises a disc mounted midway inside said housing, the disc comprising the inlet and outlet ports (58, 60), the disc including a receptacle to receive a drive member, wherein linear movement of the drive member causes angular movement of the disc to close the inlet and outlets ports (58, 60) in a synchronized fashion to provide a substantially continuous delivery of the medical fluid to a patient.
A light source for generating light having a spectral emittance in at least a part of the range of 380 nm to 680 nm, the light having a spectral power distribution E(λ) as a function of the wavelength λ, wherein the light source is comprising a lighting control element and at least one additional lighting control element, the lighting control element and the at least one additional lighting control element being set to obtain generated light with a power distribution over a first range of 600 nm <= λ < 680 nm, a second range of 505 nm <= λ < 600 nm, and a third range of 380 nm <= λ < 505 nm, wherein a first ratio of the integral power distribution over said first range to that of a range of 380 nm <= λ <= 680 nm is given by the relation: ∫ 600 680 E λ dλ ∫ 380 680 E λ dλ = P 1 a second ratio of the integral power distribution over said second range to that of a range of 380 nm <= λ <= 680 nm is given by the relation: ∫ 505 680 E λ dλ ∫ 380 680 E λ dλ = P m wherein P m >= 0.08, a third ratio of the integral power distribution over said third range to that of a range of 380 nm <= λ <= 680 nm is given by the relation: ∫ 380 505 E λ dλ ∫ 380 680 E λ dλ = P s wherein P s >= 0.03 or P s >= 0.015 if P l >= 0.75 and each of the first, second and third range has a spectral coverage by the lighting control element respectively by the at least one additional lighting control element of at least 10%, characterized in that 0.70 <= P 1 <= 0.95.