mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for detecting matter, the apparatus comprising: a light source arrangement adapted to emit a first set of light beams and a second set of light beams towards a first detection zone through which the matter is provided, a spectroscopy system including a spectrometer, wherein the spectroscopy system is adapted to receive and analyse light which is reflected and/or scattered by matter in the first detection zone, wherein the received light of the spectroscopy system originates from the first and second sets of light beams, and a laser triangulation system including, a laser arrangement adapted to emit a line of laser light towards a second detection zone through which the matter is provided, and a camera-based sensor arrangement configured to receive and analyse light which is reflected and/or scattered by matter in the second detection zone, wherein the received light of the camera-based sensor arrangement originates from the line of laser light, wherein the apparatus is configured such that the received light of the spectroscopy system completely intersects the received light of the camera-based sensor arrangement and/or the line of laser light, characterized in that the apparatus is configured such that the matter is provided through the first detection zone or second detection zone first and subsequently through the other one of the first detection zone and the second detection zone. a light source arrangement adapted to emit a first set of light beams and a second set of light beams towards a first detection zone through which the matter is provided, a spectroscopy system including a spectrometer, wherein the spectroscopy system is adapted to receive and analyse light which is reflected and/or scattered by matter in the first detection zone, wherein the received light of the spectroscopy system originates from the first and second sets of light beams, and a laser triangulation system including, a laser arrangement adapted to emit a line of laser light towards a second detection zone through which the matter is provided, and a camera-based sensor arrangement configured to receive and analyse light which is reflected and/or scattered by matter in the second detection zone, wherein the received light of the camera-based sensor arrangement originates from the line of laser light, a laser arrangement adapted to emit a line of laser light towards a second detection zone through which the matter is provided, and a camera-based sensor arrangement configured to receive and analyse light which is reflected and/or scattered by matter in the second detection zone, wherein the received light of the camera-based sensor arrangement originates from the line of laser light, wherein the apparatus is configured such that the received light of the spectroscopy system completely intersects the received light of the camera-based sensor arrangement and/or the line of laser light, characterized in that the apparatus is configured such that the matter is provided through the first detection zone or second detection zone first and subsequently through the other one of the first detection zone and the second detection zone.
A printer, comprising: a printer body; a lid attached to the printer body to be opened and closed; a hook provided in the printer body and configured to catch a shaft of a platen roller attached to the lid, thereby to lock the platen roller when the lid is closed; a lock lever provided in the printer body and formed monolithically with the hook, wherein the lock lever is configured to pivot to unlock the locked platen roller; and an open lever slidably attached to the lid and configured to slide along a groove in an exterior surface of the lid along the lengthwise direction of the lid, wherein the open lever includes a projection and the groove comprises an opening, wherein the lock lever comprises a slope that is sloped in such a direction that as the open lever is moved along the groove along the lengthwise direction of the lid, the projection moves along the slope to move together with the lid in the opening direction of the lid to open the lid, the slope being configured to be contacted by the projection through the opening, and wherein the open lever is configured to slide along the groove along the lengthwise direction of the lid to press the slope of the lock lever with the projection to unlock the locked platen roller to open the lid. a printer body; a lid attached to the printer body to be opened and closed; a hook provided in the printer body and configured to catch a shaft of a platen roller attached to the lid, thereby to lock the platen roller when the lid is closed; a lock lever provided in the printer body and formed monolithically with the hook, wherein the lock lever is configured to pivot to unlock the locked platen roller; and an open lever slidably attached to the lid and configured to slide along a groove in an exterior surface of the lid along the lengthwise direction of the lid, wherein the open lever includes a projection and the groove comprises an opening, wherein the lock lever comprises a slope that is sloped in such a direction that as the open lever is moved along the groove along the lengthwise direction of the lid, the projection moves along the slope to move together with the lid in the opening direction of the lid to open the lid, the slope being configured to be contacted by the projection through the opening, and wherein the open lever is configured to slide along the groove along the lengthwise direction of the lid to press the slope of the lock lever with the projection to unlock the locked platen roller to open the lid.
An apparatus operable in wireless communication systems comprising a first base station serving a first cell and a second cell, and a second base station serving a third cell, wherein the first and second cells have a first transmission power control combination index and the third cell has a second transmission power control combination index different from the first transmission power control combination index, the apparatus comprising: means for identifying a transmission power control combination index; means for ascertaining whether a value from the transmission power control combination index differs from the value that the apparatus is currently using; and means for performing a serving cell change that includes undertaking a media access control status reset based at least in part on the condition that the two values are different. means for identifying a transmission power control combination index; means for ascertaining whether a value from the transmission power control combination index differs from the value that the apparatus is currently using; and means for performing a serving cell change that includes undertaking a media access control status reset based at least in part on the condition that the two values are different.
A channel equalization and tracking apparatus, wherein the apparatus comprises a Fourier transforming unit configured to transform a received time-domain signal multicarrier into a frequency-domain signal; a compensating and equalizing unit configured to perform phase compensation and frequency-domain equalization on the signal outputted by the Fourier transforming unit by using a multiplication, that is performed according to time delay information obtained from Clock Recovery and a channel equalizer coefficient, by combining a coefficient of phase rotation obtained from the time delay information and the channel equalizer coefficient into one, and acquire an equalized signal; a deciding unit configured to decide the equalized signal and convert the equalized signal into a value corresponding to a constellation point; and a channel tracking unit configured to track a channel according to the signal outputted by the Fourier transforming unit and an error signal obtained according to the equalized signal and the value acquired by the deciding unit.
Assembly for the air circuit of an internal combustion engine, comprising: - a first duct which can convey fluid, - a second duct which extends between an inlet in the first duct and an outlet in the first duct, so as to form a bypass of a portion of the first duct, the second duct comprising a source of pressure variation, - a flap for routing the fluid into either the second duct or said portion of the first duct, the flap being able to move between: - a first position allowing the fluid to flow predominantly in the portion of the first duct and - a second position allowing the fluid to flow predominantly in the second duct, - a holding member which exerts a torque configured to bring said routing flap into the first position or to hold it there, the flap switching from the first position to the second position when the pressure variation generated in the second duct by the source exceeds a predefined value, this pressure variation then exerting, on the routing flap, a torque which allows this switching to the second position in spite of the torque exerted by the holding member, the wall of the second duct at the level of the routing flap and the flap itself being configured to define a passage cross section for the fluid flowing in the second duct, said cross section increasing no earlier than when said flap reaches a third position in which it closes off said portion of the first duct. - a first duct which can convey fluid, - a second duct which extends between an inlet in the first duct and an outlet in the first duct, so as to form a bypass of a portion of the first duct, the second duct comprising a source of pressure variation, - a flap for routing the fluid into either the second duct or said portion of the first duct, the flap being able to move between: - a first position allowing the fluid to flow predominantly in the portion of the first duct and - a second position allowing the fluid to flow predominantly in the second duct, - a first position allowing the fluid to flow predominantly in the portion of the first duct and - a second position allowing the fluid to flow predominantly in the second duct, - a holding member which exerts a torque configured to bring said routing flap into the first position or to hold it there,
An integrated circuit for executing instructions comprising: a processor core including a pipeline configured to execute instructions; an indirect jump target predictor circuit in a fetch stage of the pipeline configured to generate predictions for target addresses of fetched indirect jump instructions; and an immediate jump handler circuit configured to: detect a sequence of instructions fetched by the processor core, wherein the sequence of instructions includes a first instruction, with a result that depends on an immediate field of the first instruction and a program counter value, followed by a second instruction that is an indirect jump instruction; responsive to detection of the sequence of instructions, prevent the indirect jump target predictor circuit from generating a target address prediction for the second instruction; and responsive to detection of the sequence of instructions, determine a target address for the second instruction before the first instruction is issued to an execution stage of the pipeline. a processor core including a pipeline configured to execute instructions; an indirect jump target predictor circuit in a fetch stage of the pipeline configured to generate predictions for target addresses of fetched indirect jump instructions; and an immediate jump handler circuit configured to: detect a sequence of instructions fetched by the processor core, wherein the sequence of instructions includes a first instruction, with a result that depends on an immediate field of the first instruction and a program counter value, followed by a second instruction that is an indirect jump instruction; responsive to detection of the sequence of instructions, prevent the indirect jump target predictor circuit from generating a target address prediction for the second instruction; and responsive to detection of the sequence of instructions, determine a target address for the second instruction before the first instruction is issued to an execution stage of the pipeline. detect a sequence of instructions fetched by the processor core, wherein the sequence of instructions includes a first instruction, with a result that depends on an immediate field of the first instruction and a program counter value, followed by a second instruction that is an indirect jump instruction; responsive to detection of the sequence of instructions, prevent the indirect jump target predictor circuit from generating a target address prediction for the second instruction; and responsive to detection of the sequence of instructions, determine a target address for the second instruction before the first instruction is issued to an execution stage of the pipeline.
A method for negotiating a maximum packaging interval, applied to a Voice over Long Term Evolution, VoLTE, apparatus supporting a VoLTE function, and comprising: Obtaining Connected Mode Discontinuous Reception, CDRX, period configuration information of a base station; configuring a maximum packaging interval maxptime of downlink data based on the CDRX period configuration information, wherein the maximum packaging interval maxptime is greater than or equal to a CDRX period and is less than or equal to maximum data packet duration supported by the VoLTE apparatus, and the maximum packaging interval maxptime is a positive integer multiple of a packaging interval ptime; and sending the maximum packaging interval maxptime to a proxy call session control function PCSCF apparatus in an Internet Protocol,IP, multimedia subsystem IMS core network. Obtaining Connected Mode Discontinuous Reception, CDRX, period configuration information of a base station; configuring a maximum packaging interval maxptime of downlink data based on the CDRX period configuration information, wherein the maximum packaging interval maxptime is greater than or equal to a CDRX period and is less than or equal to maximum data packet duration supported by the VoLTE apparatus, and the maximum packaging interval maxptime is a positive integer multiple of a packaging interval ptime; and sending the maximum packaging interval maxptime to a proxy call session control function PCSCF apparatus in an Internet Protocol,IP, multimedia subsystem IMS core network.
A rocking vehicle comprising: an upper arm that is rockably supported by a body frame; a lower arm that is disposed below the upper arm and rockably supported by the body frame; side members (34, 34) to which end portions (62, 63) of the upper arm and end portions (52, 52) of the lower arm are turnably coupled; a rocker mechanism that is configured from a rocker arm and the side members (34,34), the rocker arm being composed of the upper arm and the lower arm; and a roll damper that is configured to suppress displacement of the rocker arm with respect to the body frame; wherein with the rocking vehicle in the upright position the roll damper is disposed along a left-right vehicle width center, and wherein the roll damper is disposed so that a load in the same direction of a contracting direction and an extension direction is generated on the roll damper even if the vehicle is tilted to either side, characterized in that the upper arm includes an extending portion that extends downwardly from a rocking center thereof, and the roll damper has one end supported by the extending portion. an upper arm that is rockably supported by a body frame; a lower arm that is disposed below the upper arm and rockably supported by the body frame; side members (34, 34) to which end portions (62, 63) of the upper arm and end portions (52, 52) of the lower arm are turnably coupled; a rocker mechanism that is configured from a rocker arm and the side members (34,34), the rocker arm being composed of the upper arm and the lower arm; and a roll damper that is configured to suppress displacement of the rocker arm with respect to the body frame; wherein with the rocking vehicle in the upright position the roll damper is disposed along a left-right vehicle width center, and wherein the roll damper is disposed so that a load in the same direction of a contracting direction and an extension direction is generated on the roll damper even if the vehicle is tilted to either side, characterized in that the upper arm includes an extending portion that extends downwardly from a rocking center thereof, and the roll damper has one end supported by the extending portion.
An oil pressure control apparatus, comprising: a pump that is adapted to eject oil by being driven by rotation of an engine; a first flow passage (11 A) that interconnects the pump and a first predetermined portion; a second flow passage that is branched from the first flow passage and that is adapted to supply oil to a second predetermined portion, which is different from the first predetermined portion; and a flow passage area adjusting portion that is provided in the second flow passage, and that is adapted to increase a flow passage area of the second flow passage when a pressure of oil in the second flow passage increases and is adapted to reduce the flow passage area when the pressure of the oil decreases; wherein the flow passage area adjusting portion is configured including a spool that is formed such that a first pressure receiving face (31 a) and a second pressure receiving face (31 b) having an area smaller than that of the first pressure receiving face (31 a) oppose each other with the second flow passage interposed therebetween, and that can move according to a pressure of oil in the second flow passage, and a biasing member that is adapted to bias the spool in a direction from the first pressure receiving face (31 a) to the second pressure receiving face (31 b). a pump that is adapted to eject oil by being driven by rotation of an engine; a first flow passage (11 A) that interconnects the pump and a first predetermined portion; a second flow passage that is branched from the first flow passage and that is adapted to supply oil to a second predetermined portion, which is different from the first predetermined portion; and a flow passage area adjusting portion that is provided in the second flow passage, and that is adapted to increase a flow passage area of the second flow passage when a pressure of oil in the second flow passage increases and is adapted to reduce the flow passage area when the pressure of the oil decreases; wherein the flow passage area adjusting portion is configured including a spool that is formed such that a first pressure receiving face (31 a) and a second pressure receiving face (31 b) having an area smaller than that of the first pressure receiving face (31 a) oppose each other with the second flow passage interposed therebetween, and that can move according to a pressure of oil in the second flow passage, and a biasing member that is adapted to bias the spool in a direction from the first pressure receiving face (31 a) to the second pressure receiving face (31 b).
UPS installation comprising a machine cabinet and the following components which are arranged in the machine cabinet: - an AC-to-DC converter having a power output stage and connected to a DC voltage link on its output side, - a DC-to-AC converter having a further power output stage and connected to the DC voltage link on its input side, - a bidirectional DC-to-AC converter having an even further power output stage and connected to the DC voltage link, - a bypass to the AC-to-DC converter and the DC-to-AC converter connected in series, in which a bypass switch is arranged, - a controller for the AC-to-DC converter, the DC-to-AC converter, and the bypass switch and - a blower drawing air out of surroundings of the machine cabinet through air filters into the machine cabinet, blowing the air within the machine cabinet through a heat exchanger and ejecting the air out of the machine cabinet again, - a coolant circuit, in which the heat exchanger is arranged together with a coolant pump and cooling bodies for the power output stages, characterized in - that a motor/generator, which is arranged in the machine cabinet, for which the controller is also provided, and which has a rotor to which a flywheel is mechanically coupled, is connected to the bidirectional DC-to-AC converter at its AC side, - that coolant channels through the motor/generator are arranged in the coolant circuit, wherein the coolant channels include stator channels which run through a stator of the motor/generator. - an AC-to-DC converter having a power output stage and connected to a DC voltage link on its output side, - a DC-to-AC converter having a further power output stage and connected to the DC voltage link on its input side, - a bidirectional DC-to-AC converter having an even further power output stage and connected to the DC voltage link, - a bypass to the AC-to-DC converter and the DC-to-AC converter connected in series, in which a bypass switch is arranged, - a controller for the AC-to-DC converter, the DC-to-AC converter, and the bypass switch and - a blower drawing air out of surroundings of the machine cabinet through air filters into the machine cabinet, blowing the air within the machine cabinet through a heat exchanger and ejecting the air out of the machine cabinet again, - a coolant circuit, in which the heat exchanger is arranged together with a coolant pump and cooling bodies for the power output stages, characterized in - that a motor/generator, which is arranged in the machine cabinet, for which the controller is also provided, and which has a rotor to which a flywheel is mechanically coupled, is connected to the bidirectional DC-to-AC converter at its AC side, - that coolant channels through the motor/generator are arranged in the coolant circuit, wherein the coolant channels include stator channels which run through a stator of the motor/generator.
The method for producing a foundation element in the ground, in which - a hole is produced in the ground and - a hardenable mass is introduced into the hole, which hardens to the foundation element, - wherein an insert body is inserted approximately centrally into the hole, the insert body being spaced apart from a circumferential wall of the hole, wherein a ring-shaped intermediate space is formed between the circumferential wall of the hole and the insert body, and - wherein the hardenable mass is introduced into the ring-shaped intermediate space, which hardens to form a ring-shaped foundation element, wherein the insert body is surrounded on its outer side by a sheathing element and after hardening of the mass to the ring-shaped foundation element the insert body is withdrawn from the foundation element, wherein the sheathing element remains on the ring-shaped foundation element. - a hole is produced in the ground and - a hardenable mass is introduced into the hole, which hardens to the foundation element, - wherein an insert body is inserted approximately centrally into the hole, the insert body being spaced apart from a circumferential wall of the hole, wherein a ring-shaped intermediate space is formed between the circumferential wall of the hole and the insert body, and - wherein the hardenable mass is introduced into the ring-shaped intermediate space, which hardens to form a ring-shaped foundation element,
A sustained release pheromone preparation comprising: a first pheromone substance, and a first container having the first pheromone substance sealed therein and comprising a first polymer membrane made of an ethylene-vinyl acetate copolymer containing vinyl acetate units of from 0.5 to 10 wt%, wherein the first pheromone substance is lavandulyl senecioate, which is a pheromone substance of vine mealybug, and the lavandulyl senecioate can be released into the air through the first polymer membrane for 150 days or more. a first pheromone substance, and a first container having the first pheromone substance sealed therein and comprising a first polymer membrane made of an ethylene-vinyl acetate copolymer containing vinyl acetate units of from 0.5 to 10 wt%,