mhurhangee/ep-ind-claims huggingface dataset:
A particulate molecular assembly comprising: an amphiphilic block polymer A1 comprising a hydrophilic block chain having 20 or more sarcosine units and a hydrophobic block chain having 10 or more lactic acid units; and a labeled polymer B comprising at least 10 or more lactic acid units and a labeling group, wherein the labeling group of the polymer B is a signal group or a ligand, wherein the signal group is selected from the group consisting of a near-infrared fluorescent group, a radioactive element-containing group, and a magnetic group, wherein the ligand is selected from the group consisting of an antibody, an adhesion factor, and a tricarboxylic acid which can coordinate to a transition metal, and wherein the labeling group of the polymer B is bound either directly or via a spacer group to any site in the polymer part. an amphiphilic block polymer A1 comprising a hydrophilic block chain having 20 or more sarcosine units and a hydrophobic block chain having 10 or more lactic acid units; and a labeled polymer B comprising at least 10 or more lactic acid units and a labeling group, wherein the labeling group of the polymer B is a signal group or a ligand, wherein the signal group is selected from the group consisting of a near-infrared fluorescent group, a radioactive element-containing group, and a magnetic group, wherein the ligand is selected from the group consisting of an antibody, an adhesion factor, and a tricarboxylic acid which can coordinate to a transition metal, and wherein the labeling group of the polymer B is bound either directly or via a spacer group to any site in the polymer part.
An exhaust purification system of an internal combustion engine which is provided with a first NO X selective reduction catalyst which is arranged inside of an engine exhaust passage and which selectively reduces NO X by feed of a reducing agent, a second NO X selective reduction catalyst which is arranged inside of the engine exhaust passage at the downstream side of the first NO X selective reduction catalyst and which selectively reduces NO X by feed of a reducing agent, and a reducing agent feed device which feeds a reducing agent to the first NO X selective reduction catalyst, wherein the reducing agent includes ammonia, the second NO X selective reduction catalyst is arranged at a predetermined distance from the first NO X selective reduction catalyst or the system is provided with a cooling device which cools the second NO X selective reduction catalyst so that a difference in bed temperature between the first NO X selective reduction catalyst and the second NO X selective reduction catalyst arises which enables the ammonia which flows out from the first NO X selective reduction catalyst to be adsorbed at the second NO X selective reduction catalyst, the second NO X selective reduction catalyst has an activation temperature region present at a relatively high temperature side and the first NO X selective reduction catalyst has an activation temperature region present at a relatively low temperature side, and the system estimates the amount of adsorption of the ammonia which is adsorbed at the second NO X selective reduction catalyst, without estimating the amount of adsorption of the ammonia which is adsorbed at the first NO X selective reduction catalyst, and prevents the amount of adsorption of the ammonia of the second NO X selective reduction catalyst from exceeding an allowable value by adjusting the amount of feed of ammonia from the reducing agent feed device.
Solid fuel heating appliance, comprising a burner and a related solid fuel combustion chamber, within which is blown, through a pipe, air taken from outside for the ignition of said solid fuel, said ignition occurring through the powering of at least two adjacent electrical resistors, said solid fuel being conveyed within a melting pot of said burner via at least one filling and dosing screw conveyor, which draws the solid fuel from a tank that is rechargeable from outside, wherein said burner includes a shaped basket, which is coupled, at least partially, with a conveyor, a frontal mouthpiece and a fixing plate, which has a shaped duct for sending air into said burner, said shaped basket being composed of a rotating ring, which is mounted in front of said electrical resistors and which is mounted in front of a duct carrying said solid fuel within said melting pot, said basket being provided with lateral slots for passing through the solid fuel wastes and with central supporting blades, said ring being mounted on a rotating shaft which is configured to move the ring for prefixed time intervals and for prefixed angles, and wherein said conveyor has at least one first surface facing to a plurality of said slots and a side duct, which is placed laterally with respect to said first surface, characterized in that during the rotation of said ring said solid fuel wastes are dragged firstly on said first surface of the conveyor and then towards said side duct, which is placed in correspondence of a hook, which is welded, in turn, to and internally of said frontal mouthpiece, in order to carry out a complete crushing and compression of said solid fuel wastes.
Mast for a storage and retrieval machine, consisting of several, preferably four support elements or supports, to which connecting plates (10, 11) are fastened in order to form a mast profile, characterized in that connecting plates (10, 11) are fastened in alternating fashion on the inside and outside of the support elements or supports on two opposite side panels of the mast in order to increase the flexural and torsional rigidity, for which purpose the support element comprises corresponding fastening grooves (16, 17) on the inside and outside of the support elements or supports.
An organic light-emitting element comprising: an anode and a cathode; a first layer between the anode and the cathode, the first layer generating holes, the first layer including a first P-type semiconductor material,; a second layer between the anode and the cathode, the second layer generating holes and contacting the cathode, the second layer including a second P-type semiconductor material; wherein the first P-type semiconductor material and the second P-type semiconductor material are the same material; a third layer between the first layer and the second layer, and a fourth layer between the second layer and the third layer and in contact with the second layer, the fourth layer generating electrons, the fourth layer including an N-type semiconductor material, wherein each of the first and second P-type semiconductor materials is metal oxide and the N-type semiconductor material is metal oxide, and the third layer includes a light-emitting material being diffused in a layer formed with a material having a wider energy gap than the light-emitting material. an anode and a cathode; a first layer between the anode and the cathode, the first layer generating holes, the first layer including a first P-type semiconductor material,; a second layer between the anode and the cathode, the second layer generating holes and contacting the cathode, the second layer including a second P-type semiconductor material; wherein the first P-type semiconductor material and the second P-type semiconductor material are the same material; a third layer between the first layer and the second layer, and a fourth layer between the second layer and the third layer and in contact with the second layer, the fourth layer generating electrons, the fourth layer including an N-type semiconductor material, wherein each of the first and second P-type semiconductor materials is metal oxide and the N-type semiconductor material is metal oxide, and the third layer includes a light-emitting material being diffused in a layer formed with a material having a wider energy gap than the light-emitting material.
A teleconferencing method in which nodes perform audio coding to generate spatially layered encoded audio, and at least some of the spatially layered encoded audio is transmitted from one of the nodes to at least another one of the nodes, said method including a step of: (a) in at least one of the nodes which is configured to generate spatially layered encoded audio in response to soundfield audio data, said encoded audio including any of a number of different subsets of a set of layers, said set of layers including at least one monophonic layer, at least one soundfield layer and at least one metadata layer comprising metadata indicative of at least one processing operation to be performed on the encoded audio, determining a first subset of the set of layers by performing at least one of downstream capability-driven layer selection, perceptually-driven layer selection, and endpoint-driven layer selection, characterized in that said first subset including at least one of: - said monophonic layer and said metadata layer or - said monophonic layer, said soundfield layer and said metadata layer. (a) in at least one of the nodes which is configured to generate spatially layered encoded audio in response to soundfield audio data, said encoded audio including any of a number of different subsets of a set of layers, said set of layers including at least one monophonic layer, at least one soundfield layer and at least one metadata layer comprising metadata indicative of at least one processing operation to be performed on the encoded audio, determining a first subset of the set of layers by performing at least one of downstream capability-driven layer selection, perceptually-driven layer selection, and endpoint-driven layer selection, - said monophonic layer and said metadata layer or - said monophonic layer, said soundfield layer and said metadata layer.
Process for the preparation of a composition of compounds originating at least partly from biomaterials, the compounds being selected from the group consisting of 2, 3, 3, 3-tetrafluoro-1-propene or 3, 3, 3-trifluoro-2-chloro-1-1-propene, comprising the step of providing one or more carbon chains comprising one or more carbon atoms having a biocarbon content of at least 1%, determined according to ASTM D6866 and ASTM D 7026, and converting by synthesis into the desired halogen compound, characterized in that the supply step includes a step of alcohol production by fermentation of biomass; or the supply step includes a production step; or of alcohol according to the following sub-steps: (i) production of methane from biomass, (i) steam reforming thereof into a synthesis gas and then converting the synthesis gas into alcohol; or the supply step comprises a step of production of alcohol by direct gasification of biomass into a synthesis gas, followed by conversion of the synthesis gas into alcohol, and characterized in that the step of synthesis into the halogen compound comprises at least one chlorination step followed by at least one step of partial or complete fluorination and characterized in that the alcohol is converted into a saturated halogen compound.
A dissection device, comprising: a tubular elongated member having sidewall defining a lumen therethrough, wherein the elongated member includes- a proximal region configured to be positioned external to a human patient and a distal region configured to be intravascularly delivered to a blood vessel and positioned within a blood vessel wall, wherein the distal region includes an angled distal face having a distal-most edge configured to puncture the vessel wall and a proximal-most edge; and an exit port located along the distal face and in fluid communication with the lumen, characterised in that a central longitudinal axis of the exit port is offset from a central longitudinal axis of the elongated member such that the exit port is positioned along the distal face closer to the distal-most edge than the proximal-most edge; and a guide member that is a separate component fixed to the sidewall within the lumen, wherein at least a portion of the guide member is positioned at the distal face such that the guide member restricts the exit port to a distal portion of the distal face. a proximal region configured to be positioned external to a human patient and a distal region configured to be intravascularly delivered to a blood vessel and positioned within a blood vessel wall, wherein the distal region includes an angled distal face having a distal-most edge configured to puncture the vessel wall and a proximal-most edge; and an exit port located along the distal face and in fluid communication with the lumen, characterised in that a central longitudinal axis of the exit port is offset from a central longitudinal axis of the elongated member such that the exit port is positioned along the distal face closer to the distal-most edge than the proximal-most edge; and a guide member that is a separate component fixed to the sidewall within the lumen, wherein at least a portion of the guide member is positioned at the distal face such that the guide member restricts the exit port to a distal portion of the distal face.
UV Purification module having a UV light module, adapted for installation in or mounting on a housing of a kitchen air purification apparatus suitable for commercial use, having a rectangular parallelepipedal module housing with an interior space which accommodates the UV light module with at least one UV radiator for cold combustion of an oil and/or fat mist in kitchen fumes, wherein the module housing has on a lower housing portion, at the bottom, an air-inlet opening into the interior space, on an upper housing portion, at the top, an air-outlet opening out of the interior space and on an intermediately arranged central housing portion, on an accessible side wall, an access to the interior space which is closed with a sealing access cover that unblocks the access, the UV light module being releasably attached to the central housing portion by way of guide elements, characterised in that the UV purification module has a flame protection filter, and the lower housing portion is in the form of a lower modular housing insert and/or the upper housing portion is in the form of an upper modular housing insert, the housing inserts (8, 9) being securely connected, preferably screwed, to the central housing portion, and the outlet opening of the module housing has air-guide plates extending in the direction of the inlet opening.
An apparatus comprising: a first composite transport member configured for use in a fluid transport system, wherein the first transport member is comprised of a composite material configured to reduce voltages and currents, induced in response to an electromagnetic event, along the first composite transport member; a second composite transport member configured for use in the fluid transport system, wherein the second transport member is comprised of the composite material configured to reduce voltages and currents, induced in response to the electromagnetic event, along the second composite transport member; and a coupling assembly configured to couple the first composite transport member to the second composite transport member in the fluid transport system; wherein: the fluid transport system is a fuel system and each of the first and second composite transport members is a tube having a channel through which fuel is moved, the channel extending along an axis through the transport member; the electrical resistance of the coupling assembly is lower than a specified length of the first and second composite transport members, wherein the specified length is 0.3m; and the electrical resistance of the first composite transport member varies with respect to the axis through the first composite transport member. a first composite transport member configured for use in a fluid transport system, wherein the first transport member is comprised of a composite material configured to reduce voltages and currents, induced in response to an electromagnetic event, along the first composite transport member; a second composite transport member configured for use in the fluid transport system, wherein the second transport member is comprised of the composite material configured to reduce voltages and currents, induced in response to the electromagnetic event, along the second composite transport member; and a coupling assembly configured to couple the first composite transport member to the second composite transport member in the fluid transport system; wherein: the fluid transport system is a fuel system and each of the first and second composite transport members is a tube having a channel through which fuel is moved, the channel extending along an axis through the transport member; the electrical resistance of the coupling assembly is lower than a specified length of the first and second composite transport members, wherein the specified length is 0.3m; and the electrical resistance of the first composite transport member varies with respect to the axis through the first composite transport member. the fluid transport system is a fuel system and each of the first and second composite transport members is a tube having a channel through which fuel is moved, the channel extending along an axis through the transport member; the electrical resistance of the coupling assembly is lower than a specified length of the first and second composite transport members, wherein the specified length is 0.3m; and the electrical resistance of the first composite transport member varies with respect to the axis through the first composite transport member.
Positive displacement pump with a variable delivery volume, in particular single-stroke vane cell pump, for generating a pressure medium flow to a consumer, having a housing, in which a rotor is mounted, having a cam ring which encloses the rotor, and having working chambers which are delimited by rotor elements between the rotor and the cam ring, the volume of which working chambers can be set by way of a change in the eccentricity between the rotor and the cam ring, the cam ring being surrounded by an outer ring which is arranged in the housing and holds the cam ring such that it can move freely, two pressure chambers being configured between the outer ring and the cam ring, which pressure chambers can be pressurized via fluid connections in order to displace the cam ring, the fluid connections being formed in each case at least from a bore in the housing and a corresponding bore in the outer ring, a relief bore being provided, in order to relieve a radial gap between the housing and the outer ring of leakage liquids of the fluid connections (23, 24) which lead to the pressure chambers (19, 20), characterized in that the relief bore leads from the radial gap into a region, in which the pressure level of the pump suction side prevails.
An apparatus comprising: a port for transmitting data; and a link coupled to the port, the port, in preparation to transmit a data block across the link, being configured to: determine a size of a burst of data to be transmitted across the link; determine a plurality of error correcting code words for forward error correction based on the size of the burst of data; interleave each of the plurality of error correcting code words to correspond with consecutive symbols of the burst of data; and transmit the burst of data comprising the interleaved plurality of error correcting code across the link, characterised in that the link is a multilane link and the port is configured to: determine a bandwidth utilization for the link; determine a length of error correcting code for forward error correction using the bandwidth utilization; encode a physical layer token with the length of error correcting code; and transmit the physical layer token across each lane of the link. a port for transmitting data; and a link coupled to the port, the port, in preparation to transmit a data block across the link, being configured to: determine a size of a burst of data to be transmitted across the link; determine a plurality of error correcting code words for forward error correction based on the size of the burst of data; interleave each of the plurality of error correcting code words to correspond with consecutive symbols of the burst of data; and transmit the burst of data comprising the interleaved plurality of error correcting code across the link, characterised in that the link is a multilane link and the port is configured to: determine a bandwidth utilization for the link; determine a length of error correcting code for forward error correction using the bandwidth utilization; encode a physical layer token with the length of error correcting code; and transmit the physical layer token across each lane of the link. determine a size of a burst of data to be transmitted across the link; determine a plurality of error correcting code words for forward error correction based on the size of the burst of data; interleave each of the plurality of error correcting code words to correspond with consecutive symbols of the burst of data; and transmit the burst of data comprising the interleaved plurality of error correcting code across the link, characterised in that the link is a multilane link and the port is configured to: determine a bandwidth utilization for the link; determine a length of error correcting code for forward error correction using the bandwidth utilization; encode a physical layer token with the length of error correcting code; and transmit the physical layer token across each lane of the link.
An expandable non-woven material, in particular a cover material layer for a multi-layered laminate, comprising water jet-solidified and thermally-treated staple fibres, characterised in that - the non-woven material contains 40-45 wt.% of first staple fibres at 1.3 dtex/40mm, 40-45 wt.% of second staple fibres at 2.2 dtex/40 mm and 10-20 wt.% of melt fibres at 2.2 dtex/40mm, - the staple fibres and binding fibres were mixed together and carded to produce the nonwoven material, - the carded non-woven material was solidified using water jets and then subjected to hot-air drying to remove excess water, wherein the binding fibres were activated and thermally solidified during drying. - the non-woven material contains 40-45 wt.% of first staple fibres at 1.3 dtex/40mm, 40-45 wt.% of second staple fibres at 2.2 dtex/40 mm and 10-20 wt.% of melt fibres at 2.2 dtex/40mm, - the staple fibres and binding fibres were mixed together and carded to produce the nonwoven material, - the carded non-woven material was solidified using water jets and then subjected to hot-air drying to remove excess water, wherein the binding fibres were activated and thermally solidified during drying.
A berbamine derivative of formula wherein, n = 1-7; R 1 is selected from H, C 1 -C 6 alkyl, and halogenated C 1 -C 6 alkyl; R 2 is selected from C 6 -C 10 aryl carbamoyl, C 6 -C 10 aryl carbonyl amino, and N-linked nitrogen-containing heterocycle-carbonyl with 3 to 7 ring members in the heterocycle, each of which is optionally substituted with a substituent selected from C 1 -C 6 alkoxy, halogenated C 1 -C 6 alkoxy, C 1 -C 6 alkyl, halogenated C 1 -C 6 alkyl, and halogen; X and Y are independently absent, CH, N or S, provided that X and Y cannot be absent at the same time; or a pharmaceutically acceptable salt thereof. n = 1-7; R 1 is selected from H, C 1 -C 6 alkyl, and halogenated C 1 -C 6 alkyl; R 2 is selected from C 6 -C 10 aryl carbamoyl, C 6 -C 10 aryl carbonyl amino, and N-linked nitrogen-containing heterocycle-carbonyl with 3 to 7 ring members in the heterocycle, each of which is optionally substituted with a substituent selected from C 1 -C 6 alkoxy, halogenated C 1 -C 6 alkoxy, C 1 -C 6 alkyl, halogenated C 1 -C 6 alkyl, and halogen; X and Y are independently absent, CH, N or S, provided that X and Y cannot be absent at the same time;