mhurhangee/ep-ind-claims huggingface dataset:
A process comprising bringing a compound of general formula into the gaseous or aerosol state and depositing the compound of general formula from the gaseous or aerosol state onto a solid substrate, wherein R 1, R 2, R 3, R 4, and R 5 are independent of each other hydrogen, an alkyl group, an alkenyl group, an aryl group or a silyl group, p is 1 or 2, M is Ni or Co, X is a σ-donating ligand which coordinates M, m is 1 or 2 and n is 0 to 3. and depositing the compound of general formula from the gaseous or aerosol state onto a solid substrate, wherein R 1, R 2, R 3, R 4, and R 5 are independent of each other hydrogen, an alkyl group, an alkenyl group, an aryl group or a silyl group, p is 1 or 2, M is Ni or Co, X is a σ-donating ligand which coordinates M, m is 1 or 2 and n is 0 to 3.
A ceiling element (1, 1', 1"), comprising: an inlet for receiving an airflow; an air supply opening for supplying an air flow into a space located below the ceiling element; temperature control means (13 to 15) for changing the temperature of the air flow flowing from the inlet to the air supply opening; and at least one light source for illuminating the surroundings of the ceiling element (1, 1', 1"), characterized in that the ceiling element (1, 1', 1") comprises further outlet openings and a nozzle (10, 10') for generating a cooling flow to said at least one light source by separating a part of the air flow flowing from the inlet towards the air supply opening, whereby said temperature control means (13 to 15) change the temperature of the air flow flowing from the inlet before the air flow is conveyed via said nozzle (10, 10') to said at least one light source, and the ceiling element (1, 1 1") is configured so that the cooling flow is conveyed via the nozzle (10, 10') out of the ceiling element via the outlet openings. an inlet for receiving an airflow; an air supply opening for supplying an air flow into a space located below the ceiling element; temperature control means (13 to 15) for changing the temperature of the air flow flowing from the inlet to the air supply opening; and at least one light source for illuminating the surroundings of the ceiling element (1, 1', 1"), characterized in that the ceiling element (1, 1', 1") comprises further outlet openings and a nozzle (10, 10') for generating a cooling flow to said at least one light source by separating a part of the air flow flowing from the inlet towards the air supply opening, whereby said temperature control means (13 to 15) change the temperature of the air flow flowing from the inlet before the air flow is conveyed via said nozzle (10, 10') to said at least one light source, and the ceiling element (1, 1 1") is configured so that the cooling flow is conveyed via the nozzle (10, 10') out of the ceiling element via the outlet openings.
A fluid application device comprising: an applicator head having an internally formed manifold, the manifold comprising a fluid input conduit, two or more fluid output conduits and a chamber disposed between and fluidically connecting the fluid input conduit and the two or more fluid output conduits; and a flow diverter (22, 122) removably disposed in the chamber, the flow diverter comprising a plug configured for removable insertion in the applicator head between a fluid input conduit and two or more fluid output conduits, said plug having two or more channels (24, 124), each channel (24, 124) in fluid communication with the fluid input conduit and a respective fluid output conduit of the two or more output conduits, wherein the fluid input conduit is configured to receive a fluid from a supply source and the two or more fluid output conduit are configured to discharge the fluid from the applicator head to respective nozzles; characterised by an external attachment surface on the applicator head configured to have two or more nozzles selectively and removably secured thereto, each nozzle configured to receive the fluid from a respective fluid output of the two or more fluid output conduits. an applicator head having an internally formed manifold, the manifold comprising a fluid input conduit, two or more fluid output conduits and a chamber disposed between and fluidically connecting the fluid input conduit and the two or more fluid output conduits; and a flow diverter (22, 122) removably disposed in the chamber, the flow diverter comprising a plug configured for removable insertion in the applicator head between a fluid input conduit and two or more fluid output conduits, said plug having two or more channels (24, 124), each channel (24, 124) in fluid communication with the fluid input conduit and a respective fluid output conduit of the two or more output conduits, wherein the fluid input conduit is configured to receive a fluid from a supply source and the two or more fluid output conduit are configured to discharge the fluid from the applicator head to respective nozzles; characterised by an external attachment surface on the applicator head configured to have two or more nozzles selectively and removably secured thereto, each nozzle configured to receive the fluid from a respective fluid output of the two or more fluid output conduits.
A method for wireless communications, comprising: receiving multiple feedback aspects of a channel for the wireless communications; determining multiple codewords (W 1, W 2) based on the multiple feedback aspects, wherein determining comprises selecting each of the multiple codewords (W 1, W 2) from one of different codebooks; determining a final precoding matrix based on the multiple codewords (W 1, W 2); enforcing at least one codebook property in the final precoding matrix, wherein enforcing at least one codebook property comprises providing the different codebooks and ensuring that all of the multiple codewords (W 1, W 2) in each of the different codebooks meet the at least one codebook property, and wherein the at least one codebook property comprises a constant modulus, wherein the constant modulus property of a codebook means that all matrix elements of the codebook are of equal absolute value; applying the final precoding matrix to a plurality of spatial streams to form precoded spatial streams; and transmitting the precoded spatial streams. receiving multiple feedback aspects of a channel for the wireless communications; determining multiple codewords (W 1, W 2) based on the multiple feedback aspects, wherein determining comprises selecting each of the multiple codewords (W 1, W 2) from one of different codebooks; determining a final precoding matrix based on the multiple codewords (W 1, W 2); enforcing at least one codebook property in the final precoding matrix, wherein enforcing at least one codebook property comprises providing the different codebooks and ensuring that all of the multiple codewords (W 1, W 2) in each of the different codebooks meet the at least one codebook property, and wherein the at least one codebook property comprises a constant modulus, wherein the constant modulus property of a codebook means that all matrix elements of the codebook are of equal absolute value; applying the final precoding matrix to a plurality of spatial streams to form precoded spatial streams; and transmitting the precoded spatial streams.
A base station apparatus (1-1, 1-2), the base station apparatus (1-1, 1-2) being configured to communicate with multiple terminal apparatuses (2-1 to 2-8), the base station apparatus (1-1, 1-2) comprising: a transmission unit configured to transmit a first frame to obtain a Transmission opportunity in which a radio medium is used without restraint, the base station apparatus (1-1, 1-2) being characterized in that the transmission unit is further configured to transmit a Trigger frame providing an instruction of simultaneous transmission of a second frame to be transmitted to the base station apparatus (1-1, 1-2) itself, to the multiple terminal apparatuses (2-1 to 2-8) in the Transmission opportunity, and to transmit a third frame addressed to the multiple terminal apparatuses (2-1 to 2-8) in the Transmission opportunity, wherein a value indicating a Transmission opportunity that is written in the third frame and that the third frame is to obtain is different from a value indicating a Remaining Duration of the Transmission opportunity obtained by the first frame at a time of transmission of the third frame. a transmission unit configured to transmit a first frame to obtain a Transmission opportunity in which a radio medium is used without restraint, the base station apparatus (1-1, 1-2) being characterized in that the transmission unit is further configured to transmit a Trigger frame providing an instruction of simultaneous transmission of a second frame to be transmitted to the base station apparatus (1-1, 1-2) itself, to the multiple terminal apparatuses (2-1 to 2-8) in the Transmission opportunity, and to transmit a third frame addressed to the multiple terminal apparatuses (2-1 to 2-8) in the Transmission opportunity, wherein a value indicating a Transmission opportunity that is written in the third frame and that the third frame is to obtain is different from a value indicating a Remaining Duration of the Transmission opportunity obtained by the first frame at a time of transmission of the third frame.
A method for regulating transmission of data packets between a first network and a second network over a datalink, the method comprising: determining a first plurality of token bucket rate parameters, each parameter corresponding to a one of a first plurality of packet drop precedence level, DP, levels and one of a first plurality of timescales, TS,), wherein determining the first plurality of bucket rate parameters is based on a peak rate requirement, data link capacity, and a nominal speed requirement associated with the data link; determining a second plurality of token bucket rate parameters based on the first plurality of token bucket rate parameters and a guaranteed rate requirement, wherein the second plurality comprises a further DP level than the first plurality; regulating data packets sent between the first network and the second network via the data link based on the second plurality of token bucket rate parameters; the method being characterized in that: the first plurality of token bucket rate parameters associated with each DP level are arranged in monotonically decreasing order for increasing TS values; and the second plurality of token bucket rate parameters associated with each DP level are arranged in monotonically decreasing order for increasing TS values. determining a first plurality of token bucket rate parameters, each parameter corresponding to a one of a first plurality of packet drop precedence level, DP, levels and one of a first plurality of timescales, TS,), wherein determining the first plurality of bucket rate parameters is based on a peak rate requirement, data link capacity, and a nominal speed requirement associated with the data link; determining a second plurality of token bucket rate parameters based on the first plurality of token bucket rate parameters and a guaranteed rate requirement, wherein the second plurality comprises a further DP level than the first plurality; regulating data packets sent between the first network and the second network via the data link based on the second plurality of token bucket rate parameters; the method being characterized in that: the first plurality of token bucket rate parameters associated with each DP level are arranged in monotonically decreasing order for increasing TS values; and the second plurality of token bucket rate parameters associated with each DP level are arranged in monotonically decreasing order for increasing TS values. the first plurality of token bucket rate parameters associated with each DP level are arranged in monotonically decreasing order for increasing TS values; and the second plurality of token bucket rate parameters associated with each DP level are arranged in monotonically decreasing order for increasing TS values.
Luminescence conversion LED with a radiation-emitting chip, wherein the primary radiation of the chip is UV to blue and is at least partially converted by a conversion element into longer-wave secondary radiation, and wherein the conversion element is formed by a separate arrangement of two phosphors of which a first phosphor emits secondary red, and a second phosphor emits secondary yellow to green, wherein the first phosphor alone is applied directly on the chip characterized in that the layer thickness of the first phosphor is not more than 40 μm, and wherein the second phosphor is dispersed in a casting compound having a layer thickness of at least 200 μm.
Cryogenic heat exchanger having an inlet for liquid nitrogen (LN 2) and an outlet for the gaseous nitrogen (N 2), the heat exchanger being configured as a hollow cylinder with a cylinder casing, with two end faces parallel to one another and with a labyrinth inside it which is formed by at least two hollow cylinders (11, 12, 13) concentric with the cylinder casing, the inlet being configured as a radially extending connection on the cylinder casing, characterised in that the outlet is configured as a hollow cylinder open at both its end faces and concentric with the cylinder casing, said cylinder being provided with a plurality of radial passages, in that the two ends of the at least two hollow cylinders (11, 12, 13) are inserted in concentric grooves in the two parallel end faces, said grooves facing the interior of the hollow cylinder, so as to form internal chambers, in that each hollow cylinder (11, 12, 13) is provided with at least one radial passage embodied as a hole, in that the at least one radial passage embodied as a hole in one of the hollow cylinders is arranged diametrically to the at least one radial passage in the adjacent, other hollow cylinder (11, 13), and in that the at least one radial passage embodied as a hole in one hollow cylinder is arranged close to an end face of the cylinder, in the axial direction thereof, and the at least one radial passage in the adjacent, other hollow cylinder (11, 13) is arranged close to the other end face of the cylinder, in the axial direction thereof.
A computer-implemented method comprising: receiving, by a computing device, first audio data of a first utterance of one or more first terms spoken by a user; providing, by the computing device, the first audio data as an input to a model that is configured to receive first given audio data of a first given utterance of one or more first given terms spoken in a first voice and output second given audio data of a second given utterance of the one or more first given terms spoken in a synthesized voice without performing speech recognition on the first given audio data, wherein the model is configured to adjust a time period between each of the one or more first given terms; in response to providing the first audio data as an input to the model, receiving, by the computing device, second audio data of a second utterance of the one or more first terms spoken in the synthesized voice, wherein the time periods between each of the one or more first terms in the first utterance are different than the time periods between each of the one or more terms in the second utterance; and providing, for output by the computing device, the second audio data of the second utterance of the one or more first terms spoken in the synthesized voice. receiving, by a computing device, first audio data of a first utterance of one or more first terms spoken by a user; providing, by the computing device, the first audio data as an input to a model that is configured to receive first given audio data of a first given utterance of one or more first given terms spoken in a first voice and output second given audio data of a second given utterance of the one or more first given terms spoken in a synthesized voice without performing speech recognition on the first given audio data, wherein the model is configured to adjust a time period between each of the one or more first given terms; in response to providing the first audio data as an input to the model, receiving, by the computing device, second audio data of a second utterance of the one or more first terms spoken in the synthesized voice, wherein the time periods between each of the one or more first terms in the first utterance are different than the time periods between each of the one or more terms in the second utterance; and providing, for output by the computing device, the second audio data of the second utterance of the one or more first terms spoken in the synthesized voice. wherein the time periods between each of the one or more first terms in the first utterance are different than the time periods between each of the one or more terms in the second utterance; and providing, for output by the computing device, the second audio data of the second utterance of the one or more first terms spoken in the synthesized voice.
An apparatus for opening an envelope for insertion of a collation in an envelope insertion station, the apparatus including: a plurality of suction cups (11, 21) that are positionable above an envelope in the insertion station, wherein the suction cups are mounted on arms, the arms being moveable to cause the suction cups to move up and down to engage a top surface of the envelope and to lift the top surface away from the bottom surface in order to facilitate insertion of the collation, and wherein the plurality of suction cups comprises: a first group of one or more suction cups mounted on one or more first arms that are moveable to cause the first group of suction cups to move up and down to open all envelopes; and a second group of one or more additional suction cups mounted on one or more second arms that are moveable to cause the second group of suction cups to move up and down independently from the first group to open envelopes having characteristics that require the additional suction cups. a first group of one or more suction cups mounted on one or more first arms that are moveable to cause the first group of suction cups to move up and down to open all envelopes; and a second group of one or more additional suction cups mounted on one or more second arms that are moveable to cause the second group of suction cups to move up and down independently from the first group to open envelopes having characteristics that require the additional suction cups.
A double-axis plaiting device for a dyeing machine, comprising a connecting tube, a plaiter positioned at an end of said connecting tube, a motor and an actuating cylinder, said motor and actuating cylinder actuating the movements of said plaiter, characterized in that said device further includes a support ring surrounding the plaiter, said support ring has a pair of sleeve (17A&17B) and a transmission shaft actuated by said motor, the support ring is inserted into those sleeves by two rods (16A & 16B) connecting to the plaiter, wherein said plaiter has a ball and said ball connects to another ball by means of a socketed arm, driven by a piston operated by said actuating cylinder; said balls (15A & 15B) and socketed arm forming a ball-and-socket joint, said ball-and-socked joint being positioned between the ring and the plaiter and wherein the piston for driving the socketed arm and thereby the plaiter, is arranged to perform a back and forth linear motion.
A composition for stabilizing halogen-containing polymers comprising a component A being a compound 1,3-diketone of formula wherein: R 1 and R 3, independently from one another, are (C 2 -C 22) alkyl; hydroxy(C 5 -C 10) alkyl; (C 3 -C 7)alkenyl; phenyl; phenyl substituted with a substituent selected from OH, (C 1 -C 4)alkyl or halogen(C 1 -C 4)alkyl; phenyl(C 7 -C 10)alkyl; (C 5 -C 12)cycloalkyl; (C 5 -C 12)cycloalkyl substituted with (C 1 -C 4)alkyl; R 2 is selected from the group consisting of hydrogen, (C 1 -C 8)alkyl, (C 3 -C 7)alkenyl, (C 2 -C 12)alkylphenyl, alkyl(C 7 -C 12)phenyl and (C 7 -C 10)alkyl, or its salt of a metal M selected from Zn, Mg and Ca, and a component B being a compound of metal M selected from the group consisting of ZnO, Mg 2 and Ca 2, wherein the compound 1,3-diketone of formula is selected from the group consisting of stearoylbenzoylmethane, dehydroacetic acid (3-acetyl-2-hydroxy-6-methyl-4H-pyran-4-one) and dibenzoylmethane, and wherein the molar ratio between M and 1,3-diketone compound is in the range from 1.1:2 to 5.0:2. R 1 and R 3, independently from one another, are (C 2 -C 22) alkyl; hydroxy(C 5 -C 10) alkyl; (C 3 -C 7)alkenyl; phenyl; phenyl substituted with a substituent selected from OH, (C 1 -C 4)alkyl or halogen(C 1 -C 4)alkyl; phenyl(C 7 -C 10)alkyl; (C 5 -C 12)cycloalkyl; (C 5 -C 12)cycloalkyl substituted with (C 1 -C 4)alkyl; R 2 is selected from the group consisting of hydrogen, (C 1 -C 8)alkyl, (C 3 -C 7)alkenyl, (C 2 -C 12)alkylphenyl, alkyl(C 7 -C 12)phenyl and (C 7 -C 10)alkyl, or its salt of a metal M selected from Zn, Mg and Ca, and a component B being a compound of metal M selected from the group consisting of ZnO, Mg 2 and Ca 2, wherein the compound 1,3-diketone of formula is selected from the group consisting of stearoylbenzoylmethane, dehydroacetic acid (3-acetyl-2-hydroxy-6-methyl-4H-pyran-4-one) and dibenzoylmethane, and wherein the molar ratio between M and 1,3-diketone compound is in the range from 1.1:2 to 5.0:2.
A flushing device for a flush tank, comprising a support structure extending along an axis and having a drain hole delimited by a sealing seat; a valve body extending and sliding along the axis in the structure and having a shutter cooperating with the sealing seat to open/close the drain hole; an actuating mechanism connected to the valve body for raising the valve body to two different heights, i.e. in a full flush position and in a partial flush position; and a pair of movable floats (5A, 5B), defining a full flush float and a partial flush float respectively and selectively connectable to the valve body for operating respective flush modes; wherein the floats (5A, 5B) are provided with respective triggers (63A, 63B) rotatably hinged to respective floats (5A, 5B) and to the structure; the triggers (63A, 63B) being provided with respective joint members cooperating with respective abutment portions of the valve body for axially fastening the valve body selectively to either one or the other of the floats (5A, 5B) and releasing the valve body from the floats (5A, 5B); the actuating mechanism comprising: a slider, connected to at least one control button operable by a user and sliding parallel to the axis along two predetermined travels of different length, i.e. a long travel and a short travel; at least one lever (22A, 22B) hinged to the structure and operated by the slider via a pushing member and engaging at least one coupling seat on the valve body; characterized in that the slider has a top end flange cooperating with one or more pushing elements (31A, 31B); and a stem extending along the axis from the flange and acting on said at least one lever (22A, 22B) via the pushing member; the pushing member being coupled to the stem by a releasable and/or adjustable coupling, so as to adjust the position of the pushing member along the stem.
An apparatus for monitoring the integrity of a subsea well or fluid sequestration site, the apparatus comprising a detection mechanism (140, 160, 400) and a signalling device (265, 395), wherein the detection mechanism (140, 160, 400) is configured to react in response to contact with a predetermined chemical (145, 180) and thereby release the signalling device (265, 395).