mhurhangee/ep-ind-claims huggingface dataset:
A combustion system with low polluting emissions for a gas turbine equipped with a premixing chamber for air which is mixed with the fuel injected from a series of holes creating a main central flame which is formed in a flame tube, said premixing chamber is convergent towards a connection end with a combustion chamber comprising the flame tube, the flame tube being connected to the premixing chamber through a tapered connection end, said tapered end having a series of holes positioned along a circumference of the tapered end coaxial with its axis, a series of pilot devices distributed in the series of holes of the tapered end and configured to premix fuel gas prior to injecting the fuel gas into the combustion chamber and create a series of corresponding pilot flames suitable for stabilizing the main central flame itself, at the same time reducing the polluting emissions characterized in that each of the series of pilot devices includes a sub pilot device (43,45) configured to inject pilot fuel gas into the respective pilot device prior to mixing the pilot fuel gas and produce diffusion flames for stabilizing the pilot flame.
An exhaust heat recovery system in which a first refrigerant circulates, the exhaust heat recovery system comprising: a transfer device configured to circulate the first refrigerant; an exhaust heat recovery heat exchanger configured to recover exhaust heat from outside of the exhaust heat recovery system; an exhaust heat supply heat exchanger configured to supply the exhaust heat to the outside of the exhaust heat recovery system; an exhaust-heat heat exchanger configured to emit excess heat in the system to the outside of the exhaust heat recovery system; an auxiliary heat exchanging device in which a second refrigerant circulates, the auxiliary heat exchanging device having a compressor, a first heat exchanger, an expansion device, and a second heat exchanger connected thereto sequentially by pipes; the exhaust heat recovery heat exchanger, the transfer device, the first heat exchanger, the exhaust-heat heat exchanger, the second heat exchanger, and the exhaust heat supply heat exchanger being connected sequentially by pipes to circulate the first refrigerant, the auxiliary heat exchanging device including a controller, the controller being configured to, when a temperature of the first refrigerant flowing on an outlet side of the second heat exchanger is higher than an upper limit of a set temperature range, control a rotation speed of the compressor and an amount of throttle of the expansion device such that the temperature of the first refrigerant entering the exhaust-heat heat exchanger increases. a transfer device configured to circulate the first refrigerant; an exhaust heat recovery heat exchanger configured to recover exhaust heat from outside of the exhaust heat recovery system; an exhaust heat supply heat exchanger configured to supply the exhaust heat to the outside of the exhaust heat recovery system; an exhaust-heat heat exchanger configured to emit excess heat in the system to the outside of the exhaust heat recovery system; an auxiliary heat exchanging device in which a second refrigerant circulates, the auxiliary heat exchanging device having a compressor, a first heat exchanger, an expansion device, and a second heat exchanger connected thereto sequentially by pipes; the exhaust heat recovery heat exchanger, the transfer device, the first heat exchanger, the exhaust-heat heat exchanger, the second heat exchanger, and the exhaust heat supply heat exchanger being connected sequentially by pipes to circulate the first refrigerant, the auxiliary heat exchanging device including a controller, the controller being configured to, when a temperature of the first refrigerant flowing on an outlet side of the second heat exchanger is higher than an upper limit of a set temperature range, control a rotation speed of the compressor and an amount of throttle of the expansion device such that the temperature of the first refrigerant entering the exhaust-heat heat exchanger increases.
Method for measuring a relative velocity by means of an acoustic sensor, comprising the steps of: - generating an acoustic signal having a first frequency characteristic that describes the characteristic of a frequency of the acoustic signal over a time characteristic, wherein the first frequency characteristic consists of at least a first signal portion having a rising frequency and a second signal portion having a falling frequency, - transmitting the acoustic signal by means of an acoustic sensor, - receiving an acoustic signal, reflected by an object, having a second frequency characteristic that describes the characteristic of a frequency of the reflected acoustic signal over a time characteristic, as a result of which the second frequency characteristic comprises at least a first reflected signal portion having a rising frequency and a second reflected signal portion having a falling frequency, by means of the acoustic sensor, - selecting a first point from the first reflected signal portion of the second frequency characteristic of the reflected acoustic signal in accordance with a selection criterion, - selecting a second point from the second reflected signal portion of the second frequency characteristic of the reflected acoustic signal in accordance with the selection criterion, and - determining a relative velocity (v rel) by comparing a value described by the first and second points (P1, P2) in the second frequency characteristic of the reflected acoustic signal with a reference value. - generating an acoustic signal having a first frequency characteristic that describes the characteristic of a frequency of the acoustic signal over a time characteristic, wherein the first frequency characteristic consists of at least a first signal portion having a rising frequency and a second signal portion having a falling frequency, - transmitting the acoustic signal by means of an acoustic sensor, - receiving an acoustic signal, reflected by an object, having a second frequency characteristic that describes the characteristic of a frequency of the reflected acoustic signal over a time characteristic, as a result of which the second frequency characteristic comprises at least a first reflected signal portion having a rising frequency and a second reflected signal portion having a falling frequency, by means of the acoustic sensor, - selecting a first point from the first reflected signal portion of the second frequency characteristic of the reflected acoustic signal in accordance with a selection criterion, - selecting a second point from the second reflected signal portion of the second frequency characteristic of the reflected acoustic signal in accordance with the selection criterion, and - determining a relative velocity (v rel) by comparing a value described by the first and second points (P1, P2) in the second frequency characteristic of the reflected acoustic signal with a reference value.
A method for receiving, by a user equipment, UE, (12, 900) a downlink signal in an unlicensed carrier in a wireless communication system, the method comprising: receiving a subframe configuration for the unlicensed carrier via downlink control information, DCI, from a network; determining that a first subframe is a partial subframe according to the subframe configuration for the unlicensed carrier, wherein the partial subframe occupies only a part of orthogonal frequency division multiplexing, OFDM, symbols in the first subframe, based on: detecting, using said DCI, that a second subframe, which immediately follows the first subframe, is a full subframe, which occupies all of OFDM symbols in the second subframe; and receiving a downlink signal from the network in the unlicensed carrier via the first subframe and the second subframe. receiving a subframe configuration for the unlicensed carrier via downlink control information, DCI, from a network; determining that a first subframe is a partial subframe according to the subframe configuration for the unlicensed carrier, wherein the partial subframe occupies only a part of orthogonal frequency division multiplexing, OFDM, symbols in the first subframe, based on: detecting, using said DCI, that a second subframe, which immediately follows the first subframe, is a full subframe, which occupies all of OFDM symbols in the second subframe; and receiving a downlink signal from the network in the unlicensed carrier via the first subframe and the second subframe. detecting, using said DCI, that a second subframe, which immediately follows the first subframe, is a full subframe, which occupies all of OFDM symbols in the second subframe; and receiving a downlink signal from the network in the unlicensed carrier via the first subframe and the second subframe.
A braking mode switching apparatus, comprising: a braking mode selection component, wherein the braking mode selection component moves between a first position corresponding to a first braking mode and a second position corresponding to a second braking mode; a transmission member, coupled to the braking mode selection component, and having a first transmission portion and a second transmission portion; a stopper, comprising a first stopper portion and a second stopper portion; a driver, comprising an output shaft; characterised by a motion control component, disposed on the output shaft and coupled to the braking mode selection component, wherein the motion control component is configured to: abut against the first stopper portion in response to a case in which the driver is powered on, and the braking mode selection component is located in the first position, so that the first transmission portion engages with a first execution portion; and abut against the second stopper portion in response to a case in which the driver is not powered on, and the braking mode selection component is located in the second position, so that the second transmission portion engages with a second execution portion. a braking mode selection component, wherein the braking mode selection component moves between a first position corresponding to a first braking mode and a second position corresponding to a second braking mode; a transmission member, coupled to the braking mode selection component, and having a first transmission portion and a second transmission portion; a stopper, comprising a first stopper portion and a second stopper portion; a driver, comprising an output shaft; characterised by a motion control component, disposed on the output shaft and coupled to the braking mode selection component, wherein the motion control component is configured to: abut against the first stopper portion in response to a case in which the driver is powered on, and the braking mode selection component is located in the first position, so that the first transmission portion engages with a first execution portion; and abut against the second stopper portion in response to a case in which the driver is not powered on, and the braking mode selection component is located in the second position, so that the second transmission portion engages with a second execution portion. abut against the first stopper portion in response to a case in which the driver is powered on, and the braking mode selection component is located in the first position, so that the first transmission portion engages with a first execution portion; and abut against the second stopper portion in response to a case in which the driver is not powered on, and the braking mode selection component is located in the second position, so that the second transmission portion engages with a second execution portion.
A container including a storage chamber (126, 326) within which is located at least one concentrated product; a mixing chamber coupled to the storage chamber (126, 326); and a closure element (120, 320), wherein the storage chamber (126, 326) is isolated from the mixing chamber; the mixing chamber is defined by a body having a longitudinal length defined between opposed first and second ends and along at least a portion of the length of the mixing chamber, the body defines circular bellows, such that the mixing chamber has a collapsed configuration when the ends (106, 108) of the body are urged together and an expanded configuration when the ends of the body are urged apart; wherein the bellows further including a latching arrangement which acts to latch the bellows in their collapsed configuration and/or their expanded configuration; wherein a first end of the mixing chamber is open and is selectively closable via the closure element (120, 320); wherein the second end of the mixing chamber is closed via a wall which forms part of the mixing chamber body; and wherein the mixing chamber is detachably coupled to the storage chamber (126, 326) via a screw coupling or a snap fit coupling; characterised in that the circular bellows are defined by a series of bellows wall sections, wherein each bellows wall section includes a first wall portion and a second wall portion; the first and second wall portions (12, 14) are conical sections which are angled relative to each other; the first and second wall portions (12, 14) extend outwardly from the longitudinal axis of the mixing chamber and together define a V-shape; the connection between the first and second wall portions (12, 14) forms an outer return portion; and adjacent bellows wall sections are connected via inner return portions.
A device for heating objects, comprising a furnace line divided into several chambers (12.1, 12.2, 12.3) which have chamber boundaries (13.1, 13.2, 13.3), several supports (6, 10) which transport the objects (7, 11), the objects (7, 11) being placed on the supports (6, 10) positioned on transport carriages, a drive device which progresses the transport carriages through the furnace line and several heating elements provided above the objects (7, 11) in the furnace line, characterized in that the heating elements are positioned uninterruptedly above the entire furnace line and can be operated and regulated in such a way as to form heating zones suited to the dimensions of the objects (7, 11) the heating zones suited to the dimensions of the objects (7, 11) and the chambers (12.1, 12.2, 12.3) are independent of one another.
A method of operating a video game console, the method comprising: executing a communication client application on the video game console to allow the user to conduct bidirectional communications with other users via a packet-based network, and output notifications to the user of incoming communication events received from the other users over the packet-based network, wherein the execution of the communication client application further comprises: deferring one or more of said notifications of incoming communication events received during a video game based on a user-setting; determining a delineation within the video game; and automatically outputting the one or more notifications to the user following said delineation, characterized in that the delineation is determined based on an API signaling occurrence within the video game. deferring one or more of said notifications of incoming communication events received during a video game based on a user-setting; determining a delineation within the video game; and automatically outputting the one or more notifications to the user following said delineation, characterized in that the delineation is determined based on an API signaling occurrence within the video game.
An e-paper writing head comprising: an ion generator; and an array of electrode nozzles aligned to receive and guide ions generated by the ion generator; characterised by an air flow source including at least one port (448, 454) positioned to cause air flow over the array of electrode nozzles for reducing moisture or preventing migration of secondary ions that carry the moisture. an ion generator; and an array of electrode nozzles aligned to receive and guide ions generated by the ion generator; characterised by an air flow source including at least one port (448, 454) positioned to cause air flow over the array of electrode nozzles for reducing moisture or preventing migration of secondary ions that carry the moisture.
A torque transfer assembly comprising a drive shaft and a driven shaft and a dielectric insert positioned between the drive shaft and the driven shaft, the insert comprising a dielectric adhesive or resin material injected between the drive shaft and the driven shaft to form an insulating layer and to extend into the drive shaft and into the driven shaft, the insulating layer providing a dielectric barrier and torque transfer member between the drive shaft and the driven shaft; and characterised in that: the insert further comprises a support structure embedded in the dielectric material and formed as a thin lattice or cage structure around which the dielectric material is shaped and cured.
A method of coding video data, the method comprising: selecting between at least a first quantization granularity and a second, different quantization granularity, wherein the first quantization granularity corresponds to a first amount of quantization step size increase for a quantization parameter, QP, increment of one and wherein the second quantization granularity corresponds to a second, different, amount of quantization step size increase for a QP increment of one; and coding one or more transform coefficients associated with residual video data using the selected quantization granularity; wherein coding the one or more transform coefficients comprises determining a delta QP for the transform coefficients, wherein determining the delta QP comprises: when a reference QP has the same quantization granularity as an actual QP, determining a difference between the actual QP and the reference QP; and when the reference QP has a different quantization granularity than the actual QP, mapping the quantization granularity of the reference QP to the quantization granularity of the actual QP and determining a difference between the actual QP and the mapped reference QP. selecting between at least a first quantization granularity and a second, different quantization granularity, wherein the first quantization granularity corresponds to a first amount of quantization step size increase for a quantization parameter, QP, increment of one and wherein the second quantization granularity corresponds to a second, different, amount of quantization step size increase for a QP increment of one; and coding one or more transform coefficients associated with residual video data using the selected quantization granularity; wherein coding the one or more transform coefficients comprises determining a delta QP for the transform coefficients, wherein determining the delta QP comprises: when a reference QP has the same quantization granularity as an actual QP, determining a difference between the actual QP and the reference QP; and when the reference QP has a different quantization granularity than the actual QP, mapping the quantization granularity of the reference QP to the quantization granularity of the actual QP and determining a difference between the actual QP and the mapped reference QP. when a reference QP has the same quantization granularity as an actual QP, determining a difference between the actual QP and the reference QP; and when the reference QP has a different quantization granularity than the actual QP, mapping the quantization granularity of the reference QP to the quantization granularity of the actual QP and determining a difference between the actual QP and the mapped reference QP.
An image formation device comprising: a support to support movement of a substrate along a travel path; a fluid ejection device along the travel path to deposit droplets of ink particles within a liquid carrier onto the substrate to at least partially form an image on the substrate; a first porous element (150, 1250) located downstream along the travel path from the fluid ejection device to be in contact against the substrate to remove, via electroosmotic flow through the first porous element, at least a portion of the liquid carrier from the substrate; and characterized in that the image formation device further comprises a second porous element in contact against the first porous element at a location separated from a location at which the first porous element engages the substrate to remove, via electroosmotic flow through the second porous element, liquid carrier from the first porous element. a support to support movement of a substrate along a travel path; a fluid ejection device along the travel path to deposit droplets of ink particles within a liquid carrier onto the substrate to at least partially form an image on the substrate; a first porous element (150, 1250) located downstream along the travel path from the fluid ejection device to be in contact against the substrate to remove, via electroosmotic flow through the first porous element, at least a portion of the liquid carrier from the substrate; and characterized in that the image formation device further comprises a second porous element in contact against the first porous element at a location separated from a location at which the first porous element engages the substrate to remove, via electroosmotic flow through the second porous element, liquid carrier from the first porous element.
A bispecific antibody specifically binding to human CD3ε and the extracellular domain of human ROR1, comprising: a) a first Fab which specifically binds to the extracellular domain of human ROR1, wherein the first Fab comprises a first light chain and a first heavy chain, wherein the first light chain comprises a variable domain VL and a constant domain CL, and wherein the first heavy chain comprises a variable domain VH and a constant domain CH1; and b) a second Fab which specifically binds to human CD3ε, wherein the second Fab comprises a second light chain and a second heavy chain, wherein the second light chain is a crossover light chain that comprises a variable domain VH and a constant domain CL, and wherein the second heavy chain is a crossover heavy chain that comprises a variable domain VL and a constant domain CH1; and wherein in the constant domain CL of the first light chain the amino acid at position 123 and the amino acid at position 124 are substituted independently by lysine, arginine or histidine (numbering according to Kabat), and wherein in the constant domain CH1 of the first heavy chain, the amino acid at position 147 and the amino acid at position 213 are substituted independently by glutamic acid, or aspartic acid (numbering according to EU index of Kabat). a) a first Fab which specifically binds to the extracellular domain of human ROR1, wherein the first Fab comprises a first light chain and a first heavy chain, wherein the first light chain comprises a variable domain VL and a constant domain CL, and wherein the first heavy chain comprises a variable domain VH and a constant domain CH1; and b) a second Fab which specifically binds to human CD3ε, wherein the second Fab comprises a second light chain and a second heavy chain, wherein the second light chain is a crossover light chain that comprises a variable domain VH and a constant domain CL, and wherein the second heavy chain is a crossover heavy chain that comprises a variable domain VL and a constant domain CH1; and wherein