mhurhangee/ep-ind-claims huggingface dataset:
A device for preventing the spread of fire in a conduit and in the distribution elements housed inside said conduit, characterized in that it comprises: - a tight and flexible container, preferably a closed bag, with two opposite faces that comprise two longitudinal and two transversal sides, the two faces being joined along said four sides, - at least two strips of a heat expandable material that prevents the spread of fire, each arranged longitudinally and parallel to the longitudinal sides (5, 5') opposite each other of a same face of the flexible container, - the thickness of each of said at least two strips being comprised between 2.5 ±1 mm, characterised in that one strip is arranged in proximity of one longitudinal side and the other strip in proximity of the other longitudinal side, - a tight and flexible container, preferably a closed bag, with two opposite faces that comprise two longitudinal and two transversal sides, the two faces being joined along said four sides, - at least two strips of a heat expandable material that prevents the spread of fire, each arranged longitudinally and parallel to the longitudinal sides (5, 5') opposite each other of a same face of the flexible container, - the thickness of each of said at least two strips being comprised between 2.5 ±1 mm, characterised in that one strip is arranged in proximity of one longitudinal side and the other strip in proximity of the other longitudinal side,
An steam oven for use on-board a transportation vehicle, the oven comprising steam generator system comprising: an oven cavity; an oven heat generating system comprising one or more heater elements positioned inside the oven cavity and configured to heat the oven cavity; and a water reservoir tube comprising a steam delivery system; wherein the water reservoir tube is positioned inside the oven cavity in close proximity to the oven heat generating system, such that heat is transferred to water in the water reservoir tube in order to generate steam in the water reservoir tube, wherein the steam delivery system delivers steam from the water reservoir directly into the oven cavity, characterized in that the water reservoir tube is configured to conform to the approximate shape of one or more heater elements such that the water reservoir tube generally follows the contour of the one or more heater elements, allowing heat to be transferred to water in the water reservoir tube in order to form steam inside the tube. an oven cavity; an oven heat generating system comprising one or more heater elements positioned inside the oven cavity and configured to heat the oven cavity; and a water reservoir tube comprising a steam delivery system; wherein the water reservoir tube is positioned inside the oven cavity in close proximity to the oven heat generating system, such that heat is transferred to water in the water reservoir tube in order to generate steam in the water reservoir tube, wherein the steam delivery system delivers steam from the water reservoir directly into the oven cavity, characterized in that the water reservoir tube is configured to conform to the approximate shape of one or more heater elements such that the water reservoir tube generally follows the contour of the one or more heater elements, allowing heat to be transferred to water in the water reservoir tube in order to form steam inside the tube.
A method for manufacturing a power amplification stage of a varying envelope input signal having a predetermined statistical distribution of instantaneous power, this amplification stage comprising at least one amplifier and adapter circuits (33, 34, 35) determining adjustment parameters whose value influences transfer functions in average power POUT, in phase PM, and in consumption PDC, of the amplification stage, comprising the following steps: - for each amplifier, selecting a form of ideal variation in average power POUTL derivable at any point and which can be provided by an appropriate choice of the adapter circuits (33, 34, 35), - for each amplifier, calculating, for each value of each adjustment parameter and for each value PIN of average input power, a value of an optimization criterion as a function of the mathematical expectation of at least one optimization parameter linked to the average output power of the amplifier, this mathematical expectation being calculated with said statistical distribution of instantaneous power of the input signal and from at least said ideal variation in average power POUTL, - for each amplifier, selecting from each value of the optimization criterion, an optimal value of each adjustment parameter representing an optimization of the optimization criterion of the amplifier, and determining a corresponding average output power value of the amplifier, - manufacturing the amplification stage with a number N of amplifier(s) in parallel determined as a function of an average output power value to be provided by the amplification stage, and with, for each amplifier, adapter circuits (33, 34, 35) providing said optimal values of the adjustment parameters. - for each amplifier, selecting a form of ideal variation in average power POUTL derivable at any point and which can be provided by an appropriate choice of the adapter circuits (33, 34, 35), - for each amplifier, calculating, for each value of each adjustment parameter and for each value PIN of average input power, a value of an optimization criterion as a function of the mathematical expectation of at least one optimization parameter linked to the average output power of the amplifier, this mathematical expectation being calculated with said statistical distribution of instantaneous power of the input signal and from at least said ideal variation in average power POUTL, - for each amplifier, selecting from each value of the optimization criterion, an optimal value of each adjustment parameter representing an optimization of the optimization criterion of the amplifier, and determining a corresponding average output power value of the amplifier, - manufacturing the amplification stage with a number N of amplifier(s) in parallel determined as a function of an average output power value to be provided by the amplification stage, and with, for each amplifier, adapter circuits (33, 34, 35) providing said optimal values of the adjustment parameters.
Continuous flow drier for drying a material by means of hot air, - having a housing, - having a first and a second section (20, 22) through which the material passes in succession in a transport direction and which spatially divide the housing, - having a fresh air supply device for supplying fresh air as supply air, - having an exhaust air recirculation device for removing exhaust air and recirculating it as supply air, and - having a heat exchanger, through which on the one hand the fresh air and on the other hand the exhaust air are guided, for transferring waste heat of the exhaust air into the fresh air, wherein - by means of the exhaust air recirculation device, a first portion of the exhaust air is to be removed from the first section and recirculated directly into the first section as supply air, - by means of the exhaust air recirculation device, a second portion of the exhaust air is to be removed from the first section, guided through the heat exchanger and recirculated into the first section as supply air, characterised in that, by means of the fresh air supply device, the fresh air as supply air is to be supplied through the heat exchanger into the second section, which is located after the first section in the direction of flow of the material, in such a manner that the material is to be dried in the second section with supplied fresh air, wherein the fresh air supply device is provided with a first suction device for extracting exhaust air from the second section by suction, by means of which the fresh air as supply air as air to be conveyed is first drawn by suction through the material to be dried and then subsequently is removed from the second section as exhaust air from the housing into the surroundings thereof, in such a manner that a low pressure is generated within the material and the second section by means of suction. - having a housing, - having a first and a second section (20, 22) through which the material passes in succession in a transport direction and which spatially divide the housing, - having a fresh air supply device for supplying fresh air as supply air, - having an exhaust air recirculation device for removing exhaust air and recirculating it as supply air, and - having a heat exchanger, through which on the one hand the fresh air and on the other hand the exhaust air are guided, for transferring waste heat of the exhaust air into the fresh air, wherein - by means of the exhaust air recirculation device, a first portion of the exhaust air is to be removed from the first section and recirculated directly into the first section as supply air, - by means of the exhaust air recirculation device, a second portion of the exhaust air is to be removed from the first section, guided through the heat exchanger and recirculated into the first section as supply air,
An optoelectronic device comprising: a first electrode (100, 100a); a second electrode (200, 200a) spaced apart from the first electrode; an active layer (150, 150a) between the first and second electrodes, the active layer comprising a quantum dot; an electron transport layer (170, 170a) between the active layer and the second electrode, the electron transport layer having a first absolute value of surface charge density; and a molecular interlayer (160, 160a) between the electron transport layer and the active layer, the molecular interlayer comprising organic molecules and having a second absolute value of surface charge density less than the first absolute value of surface charge density; wherein the electron transport layer (170, 170a) comprises an inorganic semiconductor. a first electrode (100, 100a); a second electrode (200, 200a) spaced apart from the first electrode; an active layer (150, 150a) between the first and second electrodes, the active layer comprising a quantum dot; an electron transport layer (170, 170a) between the active layer and the second electrode, the electron transport layer having a first absolute value of surface charge density; and a molecular interlayer (160, 160a) between the electron transport layer and the active layer, the molecular interlayer comprising organic molecules and having a second absolute value of surface charge density less than the first absolute value of surface charge density; wherein the electron transport layer (170, 170a) comprises an inorganic semiconductor.
A method of wireless communication at a user equipment, UE, comprising: establishing a connection with a cell based on an initial access procedure, wherein a subcarrier spacing of a downlink signal is larger than a subcarrier spacing of an uplink signal; receiving the downlink signal from the cell, the downlink signal comprising an orthogonal frequency division multiple access, OFDMA, signal or single carrier frequency division multiple access, SC-FDMA, signal, the downlink signal further comprising a first cyclic prefix; estimating a time of arrival of the received downlink signal; determining a transmit symbol time for the uplink signal to the cell based on the estimated time of arrival of the received downlink signal; and transmitting the uplink signal to the cell, wherein the uplink signal is one of an OFDMA signal or SC-FDMA signal with a second cyclic prefix, and wherein the length of the second cyclic prefix is longer than the length of the first cyclic prefix. establishing a connection with a cell based on an initial access procedure, wherein a subcarrier spacing of a downlink signal is larger than a subcarrier spacing of an uplink signal; receiving the downlink signal from the cell, the downlink signal comprising an orthogonal frequency division multiple access, OFDMA, signal or single carrier frequency division multiple access, SC-FDMA, signal, the downlink signal further comprising a first cyclic prefix; estimating a time of arrival of the received downlink signal; determining a transmit symbol time for the uplink signal to the cell based on the estimated time of arrival of the received downlink signal; and transmitting the uplink signal to the cell, wherein the uplink signal is one of an OFDMA signal or SC-FDMA signal with a second cyclic prefix, and wherein the length of the second cyclic prefix is longer than the length of the first cyclic prefix.
An insertion assembly for the continuous and automated feeding of laminar elements into a graphic printing station, with the laminar elements in a stacking area for laminar elements, arranged in at least one column, comprising: - an insertion device that includes a rotating belt system (61, 71) on which the laminar elements can be moved horizontally, and suction means, with the insertion device connected to the stacking area, and - a pulling device that includes a rotating belt system (62, 72) on which the laminar elements from the insertion device can be moved horizontally, and suction means, with the pulling device connectable to a graphic printing station equipped with a rotating belt, with said pulling device adjoining the insertion device in a direction of forward motion, such that a laminar element is carried from the stacking area to the graphic printing station through the insertion device and the pulling device, with the speed of the rotating belt of the pulling device constant and equal or essentially equal to the speed of movement of a series of movement elements in the printing station, on which the laminar element moves during the operation thereof, characterized in that the insertion device includes a lifting means that lifts the laminar element with respect to the rotating belt, with the movement of the lifting means synchronized with the suction means, and the suction means include valve means (91, 92) that are integrally connected to the lifting means, such that when the valve means are open, the lifting means is in a bottom position and when the valve means are closed, the lifting means is in a top position. - an insertion device that includes a rotating belt system (61, 71) on which the laminar elements can be moved horizontally, and suction means, with the insertion device connected to the stacking area, and - a pulling device that includes a rotating belt system (62, 72) on which the laminar elements from the insertion device can be moved horizontally, and suction means, with the pulling device connectable to a graphic printing station equipped with a rotating belt, with said pulling device adjoining the insertion device in a direction of forward motion,
A computing device that implements an image or video encoder adapted to perform a method comprising: encoding image or video content for which values of quantization parameter, QP, vary according to a relationship between a luma component and one or more chroma components, outputting at least part of a bitstream including the encoded content, wherein the encoding includes: determining a QP index from a luma component QP and a chroma component QP offset; and mapping the QP index to a chroma component QP, wherein the mapping follows a table that maps different values of QP index to corresponding values of chroma component QP, wherein qP I represents the QP index, wherein QP C represents a value of chroma QP, characterized in that the table is: qP I QP C qP I QP C <30 = qP I 37 34 30 29 38 35 31 30 39 35 32 31 40 36 33 32 41 36 34 33 42 37 35 33 43 37 36 34 >43 = qP I - 6 encoding image or video content for which values of quantization parameter, QP, vary according to a relationship between a luma component and one or more chroma components, outputting at least part of a bitstream including the encoded content, wherein the encoding includes: determining a QP index from a luma component QP and a chroma component QP offset; and mapping the QP index to a chroma component QP, wherein the mapping follows a table that maps different values of QP index to corresponding values of chroma component QP, wherein qP I represents the QP index, wherein QP C represents a value of chroma QP, characterized in that the table is: qP I QP C qP I QP C <30 = qP I 37 34 30 29 38 35 31 30 39 35 32 31 40 36 33 32 41 36 34 33 42 37 35 33 43 37 36 34 >43 = qP I - 6 determining a QP index from a luma component QP and a chroma component QP offset; and mapping the QP index to a chroma component QP, wherein the mapping follows a table that maps different values of QP index to corresponding values of chroma component QP, wherein qP I represents the QP index, wherein QP C represents a value of chroma QP, characterized in that the table is: qP I QP C qP I QP C <30 = qP I 37 34 30 29 38 35 31 30 39 35 32 31 40 36 33 32 41 36 34 33 42 37 35 33 43 37 36 34 >43 = qP I - 6
A wave energy conversion apparatus comprising one or more movable buoyant members; one or more movable reaction masses located independent of the sea bed; said one or more reaction masses being suspended beneath said one or more buoyant members by a plurality of linkages, each linkage comprising an elongate non-rigid member which allows the or each buoyant member and the or each reaction mass to each move relative to one another; at least two of said linkages extending between the or one of said one or more buoyant members and the or one of said one or more reaction masses at an orientation inclined to the vertical; each linkage comprising, or being independently associated with, at least one extensible member whereby the effective length of each linkage can vary between an extended and a non-extended configuration such that the or each reaction mass can move with respect to the or each buoyant member and the sea bed in both a vertical and a horizontal direction, each extensible member providing a restoring force for biasing the respective linkage to a non-extended configuration whereby the linkage is maintained in tension, and one or more converters for converting kinetic energy of relative movement between the or each buoyant member and the or each reaction mass into useful power.
A process for producing a thiol compound comprising (i) contacting a) an olefin compound, b) H 2 S c) a phenol compound, and d) a photoinitiator and/or a free radical initiator, and (ii) forming the thiol compound, wherein the amount of the phenol compound is in a range from 0.05 wt.% to 5 wt.% based on the weight of the olefin compound. (i) contacting a) an olefin compound, b) H 2 S c) a phenol compound, and d) a photoinitiator and/or a free radical initiator, and a) an olefin compound, b) H 2 S c) a phenol compound, and d) a photoinitiator and/or a free radical initiator, and (ii) forming the thiol compound,
An operator assembly for moving a window vent relative to a window frame, the operator assembly comprising: a base adapted to be fixed to the window frame, the base at least partially defining a channel; a cover attached to the base; a first arm; a second arm is pivotally coupled to both the first arm and the base and rotatable relative to the base between a closed position and an open position; a drive member received in the channel for linear movement therein relative to the base among a first position in which the drive member is configured to engage a locking feature of the window vent with the arm in the closed position, a second position in which the drive member is configured to be spaced from and disengaged from the locking feature without rotating the arm out of the closed position, and a third position in which the drive member is configured to be further spaced from the locking feature, and wherein movement of the drive member from the second position to the third position is configured to correspondingly cause movement of the second arm from the closed position to the open position; wherein the drive member comprises a first slot having a horizontally extending portion and a vertically extending portion that are angled relative to each other; wherein the first arm includes a peg that is slidably received in the first slot; wherein the cover comprises an inclined slot that is angled relative to both the horizontally extending portion and the vertically extending portion of the first slot; and wherein the peg is slidably received within the inclined slot. a base adapted to be fixed to the window frame, the base at least partially defining a channel; a cover attached to the base; a first arm; a second arm is pivotally coupled to both the first arm and the base and rotatable relative to the base between a closed position and an open position; a drive member received in the channel for linear movement therein relative to the base among a first position in which the drive member is configured to engage a locking feature of the window vent with the arm in the closed position, a second position in which the drive member is configured to be spaced from and disengaged from the locking feature without rotating the arm out of the closed position, and a third position in which the drive member is configured to be further spaced from the locking feature, and wherein movement of the drive member from the second position to the third position is configured to correspondingly cause movement of the second arm from the closed position to the open position; wherein the drive member comprises a first slot having a horizontally extending portion and a vertically extending portion that are angled relative to each other; wherein the first arm includes a peg that is slidably received in the first slot; wherein the cover comprises an inclined slot that is angled relative to both the horizontally extending portion and the vertically extending portion of the first slot; and wherein the peg is slidably received within the inclined slot.
A radio base station apparatus that is adapted to control transmission of an aperiodic SRS (Sounding Reference Signal) by a mobile terminal apparatus, the radio base station apparatus comprising: an SRS setting section configured to select a specific bit information piece to report to the mobile terminal apparatus, from a table having a bit information piece to indicate not to trigger the aperiodic SRS and a plurality of bit information pieces each to indicate to transmit the aperiodic SRS using a predetermined default SRS parameter, the bit information piece to indicate not to trigger the aperiodic SRS and the plurality of bit information pieces each to indicate to transmit the aperiodic SRS being all defined in a same bit field, wherein the radio base station apparatus is adapted to report, to the mobile terminal apparatus, the predetermined default SRS parameter by higher layers and the specific bit information piece by a downlink control channel. an SRS setting section configured to select a specific bit information piece to report to the mobile terminal apparatus, from a table having a bit information piece to indicate not to trigger the aperiodic SRS and a plurality of bit information pieces each to indicate to transmit the aperiodic SRS using a predetermined default SRS parameter, the bit information piece to indicate not to trigger the aperiodic SRS and the plurality of bit information pieces each to indicate to transmit the aperiodic SRS being all defined in a same bit field, wherein the radio base station apparatus is adapted to report, to the mobile terminal apparatus, the predetermined default SRS parameter by higher layers and the specific bit information piece by a downlink control channel.