mhurhangee/ep-ind-claims huggingface dataset:
A saddle-ride type vehicle equipped with a radiator arrangement structure and with a water-cooled internal combustion engine, characterized in that: a radiator is placed to face a front portion of a rear fender and to incline rearward along the rear fender, and a cooling fan is placed forward of the radiator in a forward inclined position, wherein, in side view, the cooling fan and the radiator are housed in a V-shaped region defined by a main frame and the rear fender, in such a manner as to increase a distance between the cooling fan and the radiator toward their top ends.
A signal processor comprising: an input terminal, configured to receive an input-signal; a voicing-terminal, configured to receive a voicing-signal representative of a voiced speech component of the input-signal; an output terminal; a delay block, configured to receive the input-signal and provide a filter-input-signal as a delayed representation of the input-signal; a filter block, configured to: receive the filter-input-signal; and provide a noise-estimate-signal by filtering the filter-input-signal; a combiner block, configured to: receive a combiner-input-signal representative of the input-signal; receive the noise-estimate-signal; and subtract the noise-estimate-signal from the combiner-input-signal to provide an output-signal to the output terminal; and a filter-control-block, configured to: receive the voicing-signal; receive signalling representative of the input-signal; and set filter coefficients of the filter block in accordance with the voicing-signal and the signalling representative of the input-signal. an input terminal, configured to receive an input-signal; a voicing-terminal, configured to receive a voicing-signal representative of a voiced speech component of the input-signal; an output terminal; a delay block, configured to receive the input-signal and provide a filter-input-signal as a delayed representation of the input-signal; a filter block, configured to: receive the filter-input-signal; and provide a noise-estimate-signal by filtering the filter-input-signal; receive the filter-input-signal; and provide a noise-estimate-signal by filtering the filter-input-signal; a combiner block, configured to: receive a combiner-input-signal representative of the input-signal; receive the noise-estimate-signal; and subtract the noise-estimate-signal from the combiner-input-signal to provide an output-signal to the output terminal; and receive a combiner-input-signal representative of the input-signal; receive the noise-estimate-signal; and subtract the noise-estimate-signal from the combiner-input-signal to provide an output-signal to the output terminal; and a filter-control-block, configured to: receive the voicing-signal; receive signalling representative of the input-signal; and set filter coefficients of the filter block in accordance with the voicing-signal and the signalling representative of the input-signal. receive the voicing-signal; receive signalling representative of the input-signal; and set filter coefficients of the filter block in accordance with the voicing-signal and the signalling representative of the input-signal.
A ground station for analyzing an optical data communication beam emanating from a satellite, comprising - a telescope comprising a frame and an optical unit movably disposed thereon, said optical unit comprising a front side for receiving light and a rear side for outputting a telescope beam formed from the received light, and - an attachment module for being attached to the rear side of the optical unit of the telescope, wherein the telescope beam enters the attachment module and defines an optical axis of the attachment module, - wherein the attachment module comprises a housing in which the following components are disposed: - a daylight camera for receiving light, in particular light from stars, for calibrating the telescope, - an optical data receiver for receiving the optical data communication beam, - a beacon beam source for emitting a beacon beam to a satellite, and - an acquisition and tracking camera for receiving a guide beam emitted by a satellite for tracking the optical unit in accordance with the trajectory of the satellite, - wherein along the optical axis of the attachment module beam splitters (22, 36, 38) for coupling out the portions of the telescope beam to be received by the individual components are disposed. - a telescope comprising a frame and an optical unit movably disposed thereon, said optical unit comprising a front side for receiving light and a rear side for outputting a telescope beam formed from the received light, and - an attachment module for being attached to the rear side of the optical unit of the telescope, wherein the telescope beam enters the attachment module and defines an optical axis of the attachment module, - wherein the attachment module comprises a housing in which the following components are disposed: - a daylight camera for receiving light, in particular light from stars, for calibrating the telescope, - an optical data receiver for receiving the optical data communication beam, - a beacon beam source for emitting a beacon beam to a satellite, and - an acquisition and tracking camera for receiving a guide beam emitted by a satellite for tracking the optical unit in accordance with the trajectory of the satellite, - wherein along the optical axis of the attachment module beam splitters (22, 36, 38) for coupling out the portions of the telescope beam to be received by the individual components are disposed. - a daylight camera for receiving light, in particular light from stars, for calibrating the telescope, - an optical data receiver for receiving the optical data communication beam, - a beacon beam source for emitting a beacon beam to a satellite, and - an acquisition and tracking camera for receiving a guide beam emitted by a satellite for tracking the optical unit in accordance with the trajectory of the satellite, - wherein along the optical axis of the attachment module beam splitters (22, 36, 38) for coupling out the portions of the telescope beam to be received by the individual components are disposed.
A method of processing video data, the method comprising: receiving a bitstream of encoded video data, wherein the bitstream comprises at least a syntax element, a first network abstraction layer unit type, and a coded access unit, wherein the coded access unit comprises a plurality of pictures; determining a value of the syntax element, wherein the syntax element includes an indication of whether the access unit was coded using cross-layer alignment, and wherein the syntax element is signaled at a position in a network abstraction layer unit that does not need to be entropy decoded to interpret the syntax element; and in response to determining that the syntax element indicates cross-layer alignment: determining the first network abstraction layer unit type for a picture in the access unit; determining whether the first network abstraction layer unit type is equal to a value in a predetermined range of type values; and in response to determining that the first network abstraction layer unit type is equal to a value in the predetermined range of type values, setting a network abstraction layer unit type for all other pictures in the coded access unit to be equal to the value of the first network abstraction layer unit type. receiving a bitstream of encoded video data, wherein the bitstream comprises at least a syntax element, a first network abstraction layer unit type, and a coded access unit, wherein the coded access unit comprises a plurality of pictures; determining a value of the syntax element, wherein the syntax element includes an indication of whether the access unit was coded using cross-layer alignment, and wherein the syntax element is signaled at a position in a network abstraction layer unit that does not need to be entropy decoded to interpret the syntax element; and in response to determining that the syntax element indicates cross-layer alignment: determining the first network abstraction layer unit type for a picture in the access unit; determining whether the first network abstraction layer unit type is equal to a value in a predetermined range of type values; and in response to determining that the first network abstraction layer unit type is equal to a value in the predetermined range of type values, setting a network abstraction layer unit type for all other pictures in the coded access unit to be equal to the value of the first network abstraction layer unit type. determining the first network abstraction layer unit type for a picture in the access unit; determining whether the first network abstraction layer unit type is equal to a value in a predetermined range of type values; and in response to determining that the first network abstraction layer unit type is equal to a value in the predetermined range of type values, setting a network abstraction layer unit type for all other pictures in the coded access unit to be equal to the value of the first network abstraction layer unit type.
Packaging device for a product to be dispensed, comprising: - a bottle suitable for containing the product to be dispensed and having a neck comprising an inner wall delimiting an opening, - a dispensing device comprising a body and suitable for dispensing said product, the dispensing device being a "pump"-type device, - a fastening element for securing the body of the dispensing device in the neck of the bottle, the fastening element cooperating with the inner wall of the neck of the bottle, characterized in that the fastening element comprises a cylindrical double wall comprising an outer wall and an inner wall forming an internal hollow shaft (42; 47), said outer and inner walls being coaxial, and in that said dispensing device comprises a fastening member (40, 41) of said dispensing device, the fastening member being integral with said dispensing device and being fixed around the internal hollow shaft (42; 47) of the fastening element. - a bottle suitable for containing the product to be dispensed and having a neck comprising an inner wall delimiting an opening, - a dispensing device comprising a body and suitable for dispensing said product, the dispensing device being a "pump"-type device, - a fastening element for securing the body of the dispensing device in the neck of the bottle, the fastening element cooperating with the inner wall of the neck of the bottle,
A base station with an integrated terminal adapter, TA, configured to convey wireless traffic between a mobile station and a conventional wireless network via the Internet, the base station being configured to connect to the Internet at a user-selected location, wherein the base station is configured to connect to at least one fixed telephone, wherein the base station is configured to convey a phone call between the mobile station or the TA and a wireless network via the Internet, and characterised in that the base station is configured, for outgoing calls, to distinguish between different phone numbers and to provide information to identify a selected phone number as an originating phone number.
A wellbore obstruction-clearing tool, fit to a downhole end of a tubing string for advancing the tubing string through obstructions in a wellbore, the tubing string having an axial bore therethrough for communicating fluids to an annulus between the tubing string and the wellbore for circulation to surface, the tool comprising a tubular mandrel for connection to the downhole end of the tubing string, the mandrel having a mandrel bore extending axially therethrough, the mandrel bore being fluidly connected to the axial bore, the wellbore obstruction-clearing tool further characterized by: a tubular sleeve having, a sleeve bore extending axially therethrough and concentrically fit about the mandrel, the sleeve bore being fluidly connected with the mandrel bore, and a downhole end for engaging the wellbore obstructions; and a helical drive arrangement acting between the mandrel and the sleeve for driving the sleeve axially and rotationally along the mandrel between a retracted position and an extended position in response to reciprocating axial movement of the tubing string and mandrel, the engagement of the downhole end of the sleeve creating debris from the wellbore obstructions, and wherein the fluids from the sleeve bore convey debris along the annulus to surface. a tubular sleeve having, a sleeve bore extending axially therethrough and concentrically fit about the mandrel, the sleeve bore being fluidly connected with the mandrel bore, and a downhole end for engaging the wellbore obstructions; and a sleeve bore extending axially therethrough and concentrically fit about the mandrel, the sleeve bore being fluidly connected with the mandrel bore, and a downhole end for engaging the wellbore obstructions; and a helical drive arrangement acting between the mandrel and the sleeve for driving the sleeve axially and rotationally along the mandrel between a retracted position and an extended position in response to reciprocating axial movement of the tubing string and mandrel, the engagement of the downhole end of the sleeve creating debris from the wellbore obstructions, and wherein the fluids from the sleeve bore convey debris along the annulus to surface.
Final position retraction and damping device for a slidable leaf as a sliding leaf or slidable rising sliding leaf of a window or a door, comprising an energy accumulator for retracting the sliding leaf into the closed position, and a damping element for braking the sliding leaf before the sliding leaf arrives at the final and closed position, wherein the energy accumulator and the damping element are formed solely by a gas pressure spring, and a push rod, and a common housing accommodating the two elements, the elements being arranged mounted in housing of the final position retraction and damping device, further comprising a driver and control device, with which the push rod is operationally connected to a driver which can be secured to a frame of the window or door, which is configured such as to lock the energy accumulator in an open position of the sliding leaf, characterized in that the final position retraction and damping device can be arranged lying in a receiving groove of a sliding leaf in a covered manner, wherein the gas pressure spring is axially movable in the sliding direction of the sliding leaf by means of the rotational axis of the gas pressure spring by means of one end of the push rod using a guide pin and is secured in a pivotable manner transversely to the sliding direction, that the driver and control device, configured as U-shaped, consist of two limbs (15, 16) and a central body which can connect the limbs (15, 16), which comprise in each case two guide pins (12, 20) spaced apart at an interval, wherein the guide pin is received by a bore, wherein the guide pins (12, 20) are guided in a movable manner in a slotted guide section which runs in the sliding direction of the sliding leaf,that a curved end portion is formed so as to face away from the frame in extension of the slotted guide on the side oriented towards the gas pressures spring, which, in the mounted state of the final position retraction and damping device, faces away from the frame of the window or door, and wherein, with the receiving of at least the guide pin into the curved end portion, the driver and control device adopt an external engagement position of the driver and forms the locked position of the energy accumulator.
A method comprising: receiving an interest packet header from a forwarding router node of a network overlay, wherein the received interest packet header comprises one or more information entries regarding router nodes along an interest path of the interest packet; determining the interest path of the interest packet and one or more destination router nodes of the network overlay based on the information entries; computing one or more paths over the network overlay that non-redundantly encompass each of the one or more destination router nodes, wherein non-redundantly encompassing each of the above- mentioned router nodes means that among all of the one or more paths, each of the destination router nodes is included in only one path and included only one time; determining an addressing method for the one or more computed paths over the network overlay; performing at least one of: a.) encoding each computed path in a data packet header; and b.) encoding each computed path as state entries of each router node of the network overlay on each respective path; and returning the computed path information to the forwarding router node. receiving an interest packet header from a forwarding router node of a network overlay, wherein the received interest packet header comprises one or more information entries regarding router nodes along an interest path of the interest packet; determining the interest path of the interest packet and one or more destination router nodes of the network overlay based on the information entries; computing one or more paths over the network overlay that non-redundantly encompass each of the one or more destination router nodes, wherein non-redundantly encompassing each of the above- mentioned router nodes means that among all of the one or more paths, each of the destination router nodes is included in only one path and included only one time; determining an addressing method for the one or more computed paths over the network overlay; performing at least one of: a.) encoding each computed path in a data packet header; and b.) encoding each computed path as state entries of each router node of the network overlay on each respective path; and a.) encoding each computed path in a data packet header; and b.) encoding each computed path as state entries of each router node of the network overlay on each respective path; and returning the computed path information to the forwarding router node.
Method for shaking foam cans following a production and filling process, comprising the following steps: - supplying foam cans by means of a conveyor belt; - machine-loading a predetermined number of foam cans in a standing position into a holder of a shaking frame in a lying position; - shaking the shaking frame mechanically; - mechanically unloading the foam cans onto a conveyor belt resulting in shaken foam cans, wherein the shaking frame is rotatable about a lying axis, wherein the holder of the shaking frame is parallel to the lying axis, wherein the holder of the shaking frame is lifted after loading the predetermined number of foam cans by rotation about the lying axis to a first position, the first position being on a first side of a standing plane, wherein the lying axis lies in the standing plane, wherein the foam cans are shaken by moving the shaking frame from the first position to a second position and back a number of times, the second position being on a second opposite side of the standing plane, wherein the foam cans move through a circular arc of at least 30° and at most 90° and wherein the shaking frame, after shaking the foam cans, lowers to a lying position for unloading the shaken foam cans. - supplying foam cans by means of a conveyor belt; - machine-loading a predetermined number of foam cans in a standing position into a holder of a shaking frame in a lying position; - shaking the shaking frame mechanically; - mechanically unloading the foam cans onto a conveyor belt resulting in shaken foam cans,
Method of determining an exit temperature of a gas exiting a combustor of a gas turbine, the method comprising: • determining a mass flow ( ṁ fuel) and a temperature ( T fuel) of fuel being delivered to the combustor; • determining a mass flow ( ṁ air) and a temperature ( T air) of air being delivered to the combustor; • determining a temperature dependence of the specific heat capacity ( Cp comb) of a burnt mixture of the fuel and the air being delivered to the combustor; and • determining an exit temperature of the burnt mixture exiting the combustor based on the determined mass flow ( ṁ fuel) and temperature ( T fuel) of the fuel, the determined mass flow ( ṁ air) and temperature ( T air) of the air, and the determined temperature dependence of the specific heat capacity ( Cp comb) of the burnt mixture. • determining a mass flow ( ṁ fuel) and a temperature ( T fuel) of fuel being delivered to the combustor; • determining a mass flow ( ṁ air) and a temperature ( T air) of air being delivered to the combustor; • determining a temperature dependence of the specific heat capacity ( Cp comb) of a burnt mixture of the fuel and the air being delivered to the combustor; and • determining an exit temperature of the burnt mixture exiting the combustor based on the determined mass flow ( ṁ fuel) and temperature ( T fuel) of the fuel, the determined mass flow ( ṁ air) and temperature ( T air) of the air, and the determined temperature dependence of the specific heat capacity ( Cp comb) of the burnt mixture.
A milk frothing apparatus comprising: - a dispensing wand which comprises a first channel having a first inlet configured to receive a flow of air-steam mixture from a first delivery conduit and a first outlet configured to dispense the flow of air-steam mixture into a container designed to receive milk to be frothed, and a second channel separated from the first channel and having a second inlet configured to receive milk to be dispensed from a second delivery conduit and a second outlet configured to dispense the milk into said container, - a support element for supporting the container designed to receive the milk to be frothed, - a first delivery conduit configured to deliver a flow of air-steam mixture to the first inlet of the wand, the apparatus being characterized by: - a second delivery conduit configured to deliver milk to be frothed to the second inlet of the wand, - a pump configured to draw milk, and connected to the second delivery conduit for delivering the milk that has been drawn by the pump into the second delivery conduit, - a control unit connected to the pump and configured to control the pump. - a dispensing wand which comprises a first channel having a first inlet configured to receive a flow of air-steam mixture from a first delivery conduit and a first outlet configured to dispense the flow of air-steam mixture into a container designed to receive milk to be frothed, and a second channel separated from the first channel and having a second inlet configured to receive milk to be dispensed from a second delivery conduit and a second outlet configured to dispense the milk into said container, - a support element for supporting the container designed to receive the milk to be frothed, - a first delivery conduit configured to deliver a flow of air-steam mixture to the first inlet of the wand, the apparatus being characterized by: - a second delivery conduit configured to deliver milk to be frothed to the second inlet of the wand, - a pump configured to draw milk, and connected to the second delivery conduit for delivering the milk that has been drawn by the pump into the second delivery conduit, - a control unit connected to the pump and configured to control the pump.