mhurhangee/ep-ind-claims huggingface dataset:
Fresh air supply device for an internal combustion engine, - comprising a housing, prepared for installation on a cylinder head of the internal combustion engine, - comprising a flap arrangement arranged in the housing, having flaps for cylinders of the internal combustion engine, to control a flow of fresh air to the respective cylinder, - wherein the flap arrangement comprises a common actuating shaft which is connected to the flaps for conjoint rotation therewith and is mounted in bearings of the flap arrangement rotatably about an axis of rotation, - wherein for each flap, the flap arrangement comprises an enclosure enclosing a flow cross-section that can be controlled by the respective flap, - wherein two such bearings, one on each side of the flap, are arranged opposite one another on each enclosure, characterised in that - the flap arrangement comprises a flap frame that is separate with respect to the housing, which comprises the bearings and the enclosures, on which the actuating shaft is mounted with the flaps and which is inserted in the housing on a side facing the cylinder head, - the respective enclosure and the two associated bearings are divided in a division plane containing the axis of rotation in such a manner that a first half-enclosure together with two first half-bearings can be moved, for the assembly of the flap arrangement, relative to a flap frame that comprises a second half-enclosure (9") and two second half-bearings (7"). - comprising a housing, prepared for installation on a cylinder head of the internal combustion engine, - comprising a flap arrangement arranged in the housing, having flaps for cylinders of the internal combustion engine, to control a flow of fresh air to the respective cylinder, - wherein the flap arrangement comprises a common actuating shaft which is connected to the flaps for conjoint rotation therewith and is mounted in bearings of the flap arrangement rotatably about an axis of rotation, - wherein for each flap, the flap arrangement comprises an enclosure enclosing a flow cross-section that can be controlled by the respective flap, - wherein two such bearings, one on each side of the flap, are arranged opposite one another on each enclosure, - the flap arrangement comprises a flap frame that is separate with respect to the housing, which comprises the bearings and the enclosures, on which the actuating shaft is mounted with the flaps and which is inserted in the housing on a side facing the cylinder head, - the respective enclosure and the two associated bearings are divided in a division plane containing the axis of rotation in such a manner that a first half-enclosure together with two first half-bearings can be moved, for the assembly of the flap arrangement, relative to a flap frame that comprises a second half-enclosure (9") and two second half-bearings (7").
One or more microtubule stabilizing compounds for use in a method of treatment of lesions of CNS axons, wherein the one or more compound(s) is/are administered locally directly into the lesion or immediately adjacent thereto, whereby the one or more compound(s) is/are selected from the group consisting of epothilones.
Apparatus (126, 150) for clamping elongate elements (14, 28) in a parallel piggybacked arrangement during subsea laying of the elements (14, 28), characterised in that the apparatus (126, 150) comprises opposed reciprocating jaws (128, 142) for forcing together clamp segments (42, 78) around the elongate elements (14, 28) to assemble a piggybacking clamp (40, 76) that applies clamping forces to the elongate elements (14, 28).
A method of fabricating a needled fiber structure using a needling machine (100; 200) having a needling head (110; 210) with a plurality of needles, the method comprising at least the following steps: - placing a first fiber layer (10; 31) on a support (120; 220); - needling the first fiber layer, with the needling head being in a first position relative to the support, at least at the end of needling the first layer; - after needling the first layer, implementing relative movement between the support and the needling head so as to cause the needling head to go from the first position relative to the support to a second position that is different from the first; - placing a second fiber layer (20; 32) on the needled first fiber layer; and - needling the second fiber layer placed on the first fiber layer, the needling head being in the second position relative to the support at least at the beginning of needling the second fiber layer; wherein the relative movement is configured so that the needles of the needling head do not strike the first (10; 31) and second (20; 32) layers at the same locations; and wherein (i) the relative movement comprises relative movement in rotation between the support and the needling head, or (ii) the support is a rotary mandrel and the relative movement comprises relative movement in translation between the needling head and the support in a direction parallel to the axis of rotation of the support. - placing a first fiber layer (10; 31) on a support (120; 220); - needling the first fiber layer, with the needling head being in a first position relative to the support, at least at the end of needling the first layer; - after needling the first layer, implementing relative movement between the support and the needling head so as to cause the needling head to go from the first position relative to the support to a second position that is different from the first; - placing a second fiber layer (20; 32) on the needled first fiber layer; and - needling the second fiber layer placed on the first fiber layer, the needling head being in the second position relative to the support at least at the beginning of needling the second fiber layer;
A method of decomposing nitrogen dioxide (NO 2) to nitrogen monoxide in an exhaust gas of an internal combustion engine, which method comprising the steps of contacting an acidic metal oxide selected from the group consisting of zeolites, tungsten-doped titania, silica-titania, zirconia-titania, gamma-alumina, amorphous silica-alumina and mixtures of any two or more thereof, optionally supporting a metal or a compound thereof, selected from the group consisting of rhodium, palladium, iron, copper and mixtures of any two or more thereof, with a gas mixture comprising the exhaust gas, adjusting the composition of the gas mixture by injecting hydrocarbon therein at a rate that changes over the course of a duty cycle so that, on average over the duty cycle, the C1 hydrocarbon: nitrogen oxides (C1 HC:NO x) ratio of the gas mixture contacting the acidic metal oxide is from 0.1 to 1.5 and passing the effluent gas directly to atmosphere optionally via first contacting the gas mixture with a hydrocarbon oxidation catalyst, wherein the hydrocarbon is selected from the group consisting of diesel fuel, gasoline fuel, a gas-to-liquid -based fuel and liquid petroleum gas.
An impeller for a centrifugal compressor, the impeller being rotatable about a central axis, comprising: a front face and a rear face axially rearward of the front face, the rear face extending radially outwardly relative to the central axis from a bore of the impeller; an outer hub body including a first material and extending around the central axis, the outer hub body defining a gaspath face extending from an inlet to an outlet, the gaspath face extending radially away from the central axis from the inlet to the outlet; blades protruding from the gaspath face and circumferentially distributed around the central axis; and an inner hub body extending around the central axis, the inner hub body being secured to the outer hub body, the outer hub body axially overlapping and extending around the inner hub body, the inner hub body made of a second material being more cold dwell resistant than the first material, wherein the inner hub body has an outer face facing an inner face of the outer hub body; and the impeller comprises an annular gap between the outer face and the inner face, characterised in that: an entirety of the rear face is defined by the outer hub body; and the annular gap extends radially towards the central axis as the annular gap extends axially toward the outlet. a front face and a rear face axially rearward of the front face, the rear face extending radially outwardly relative to the central axis from a bore of the impeller; an outer hub body including a first material and extending around the central axis, the outer hub body defining a gaspath face extending from an inlet to an outlet, the gaspath face extending radially away from the central axis from the inlet to the outlet; blades protruding from the gaspath face and circumferentially distributed around the central axis; and an inner hub body extending around the central axis, the inner hub body being secured to the outer hub body, the outer hub body axially overlapping and extending around the inner hub body, the inner hub body made of a second material being more cold dwell resistant than the first material, wherein the inner hub body has an outer face facing an inner face of the outer hub body; and the impeller comprises an annular gap between the outer face and the inner face, characterised in that: an entirety of the rear face is defined by the outer hub body; and the annular gap extends radially towards the central axis as the annular gap extends axially toward the outlet. an entirety of the rear face is defined by the outer hub body; and the annular gap extends radially towards the central axis as the annular gap extends axially toward the outlet.
A method in a first network device (102-A) that is communicatively coupled to a second network device (102-B) in a network, the first network device communicatively coupled to a first radio base statio, RBS, (101-A), the second network device communicatively coupled to a second RBS (101-B), the method comprising: receiving a plurality of packets, wherein each packet of the plurality of packets is received over an X2-C interface, wherein each of the plurality of packets contains an Internet Protocol, IP, header, a stream control transmission protocol, SCTP, header, and one or more SCTP chunks; determining a packet type of one or more packets of the received plurality of packets; discovering one or more IP addresses of the second RBS (101-B) using information of the one or more packets of the received plurality of packets, wherein the information used for discovering the one or more IP addresses is determined based on the determined packet type of the one or more packets; and creating a network route between the first RBS and the second RBS for each of the one or more discovered IP addresses, wherein creating the network route for each discovered IP address of the one or more discovered IP addresses includes: generating, for the discovered IP address, a route target, RT, value using a predefined algorithm and the discovered IP address, and responsive to determining that a received update message includes a route with a RT value that matches the generated RT value, installing the route in a routing table. receiving a plurality of packets, wherein each packet of the plurality of packets is received over an X2-C interface, wherein each of the plurality of packets contains an Internet Protocol, IP, header, a stream control transmission protocol, SCTP, header, and one or more SCTP chunks; determining a packet type of one or more packets of the received plurality of packets; discovering one or more IP addresses of the second RBS (101-B) using information of the one or more packets of the received plurality of packets, wherein the information used for discovering the one or more IP addresses is determined based on the determined packet type of the one or more packets; and creating a network route between the first RBS and the second RBS for each of the one or more discovered IP addresses, wherein creating the network route for each discovered IP address of the one or more discovered IP addresses includes: generating, for the discovered IP address, a route target, RT, value using a predefined algorithm and the discovered IP address, and responsive to determining that a received update message includes a route with a RT value that matches the generated RT value, installing the route in a routing table. generating, for the discovered IP address, a route target, RT, value using a predefined algorithm and the discovered IP address, and responsive to determining that a received update message includes a route with a RT value that matches the generated RT value, installing the route in a routing table.
A pharmaceutical composition comprising a compound 5-(1,3-benzoxazol-2-yl)-4-(pyridin-4-yl)pyrimidin-2-amine (Compound 324) or a pharmaceutically acceptable salt or solvate thereof.
An IV infusion set, in which an outlet provided on an IV bag is connected to a drip chamber, an IV tube is connected to the drip chamber to allow an IV fluid to flow, an injection site for injecting the IV fluid into a patient is connected to an end of the IV tube, and a Y-port, a three-way stopcock, a filter, a luer lock, in addition to the drip chamber and the injection site are connected to the IV tube, the IV infusion set comprising: a connection structure for the IV tube in which a connector is in a sliding manner provided on an outer circumferential surface of the IV tube to lock the IV tube, with at least one of the drip chamber, the injection site, the Y-port, the three-way stopcock, the filter, and the luer lock being connected to the IV tube, wherein the connector is formed in an annular ring shape to be fitted over the outer circumferential surface of the IV tube, with an insertion part being provided in the connector to allow the IV tube to be inserted therein, characterized in that the insertion part is tapered downward such that the IV tube is firmly connected to the at least one of the drip chamber, the injection site, the Y-port, the three-way stopcock, the filter, and the luer lock, and the insertion part is provided on an inner wall thereof with a compression piece configured to press the IV tube against the at least one of the drip chamber, the injection site, the Y-port, the three-way stopcock, the filter, and the luer lock when the IV tube is connected to the at least one of the drip chamber, the injection site, the Y-port, the three-way stopcock, the filter, and the luer lock such that the IV tube is prevented from being separated therefrom. a connection structure for the IV tube in which a connector is in a sliding manner provided on an outer circumferential surface of the IV tube to lock the IV tube, with at least one of the drip chamber, the injection site, the Y-port, the three-way stopcock, the filter, and the luer lock being connected to the IV tube, wherein the connector is formed in an annular ring shape to be fitted over the outer circumferential surface of the IV tube, with an insertion part being provided in the connector to allow the IV tube to be inserted therein, characterized in that the insertion part is tapered downward such that the IV tube is firmly connected to the at least one of the drip chamber, the injection site, the Y-port, the three-way stopcock, the filter, and the luer lock, and the insertion part is provided on an inner wall thereof with a compression piece configured to press the IV tube against the at least one of the drip chamber, the injection site, the Y-port, the three-way stopcock, the filter, and the luer lock when the IV tube is connected to the at least one of the drip chamber, the injection site, the Y-port, the three-way stopcock, the filter, and the luer lock such that the IV tube is prevented from being separated therefrom.
A method, in a user equipment, UE,, comprising: receiving, in a downlink signal having a series of subframes, a beam-formed reference signal in each of a plurality of subframes, wherein the beam-formed reference signals are received in fewer than all of the subframes of the downlink signal; performing mobility management measurements using at least a first subset of the received beam-formed reference signals; and performing radio link monitoring, RLM, using at least some of the first subset of beam-formed reference signals used for the mobility management measurements. receiving, in a downlink signal having a series of subframes, a beam-formed reference signal in each of a plurality of subframes, wherein the beam-formed reference signals are received in fewer than all of the subframes of the downlink signal; performing mobility management measurements using at least a first subset of the received beam-formed reference signals; and performing radio link monitoring, RLM, using at least some of the first subset of beam-formed reference signals used for the mobility management measurements.
An aromatic polyester, comprising: as constituent units, a repeating unit represented by Formula (a) below; a repeating unit derived from an aromatic dicarboxylic acid; a repeating unit derived from an aromatic amine selected from the group consisting of aromatic diamines and aromatic amines having a hydroxyl group; and a repeating unit derived from an aromatic diol; wherein a content of the repeating unit is 16 mol% or more and 19 mol% or less, a content of the repeating unit is more than 40 mol% and 43 mol% or less, a total content of the repeating unit and the repeating unit is more than 40 mol% and 43 mol% or less, and a content of the repeating unit is 0.5 mol% or more and less than 15 mol% with respect to a total of the repeating units to -O-Ar 1 -CO- (a) in the formula, Ar 1 represents a 1,4-phenylene group, a 2,6-naphthylene group, or a 4,4'-biphenylene group; and at least one hydrogen atom of the group represented by Ar 1 may be each independently substituted with a halogen atom, an alkyl group, or an aryl group. as constituent units, a repeating unit represented by Formula (a) below; a repeating unit derived from an aromatic dicarboxylic acid; a repeating unit derived from an aromatic amine selected from the group consisting of aromatic diamines and aromatic amines having a hydroxyl group; and a repeating unit derived from an aromatic diol; wherein a content of the repeating unit is 16 mol% or more and 19 mol% or less, a content of the repeating unit is more than 40 mol% and 43 mol% or less, a total content of the repeating unit and the repeating unit is more than 40 mol% and 43 mol% or less, and a content of the repeating unit is 0.5 mol% or more and less than 15 mol% with respect to a total of the repeating units to -O-Ar 1 -CO- (a) in the formula, Ar 1 represents a 1,4-phenylene group, a 2,6-naphthylene group, or a 4,4'-biphenylene group; and at least one hydrogen atom of the group represented by Ar 1 may be each independently substituted with a halogen atom, an alkyl group, or an aryl group.
A semiconductor field effect transistor structure comprising: a semiconductor substrate having a well region located within an upper region thereof; a semiconductor material stack comprising, from bottom to top, a buffer layer and a channel layer, the buffer layer and the channel layer each comprising a semiconductor, the semiconductor of the channel layer being non-doped, wherein said buffer layer of said semiconductor material stack is located directly on an upper surface of said well region of the substrate; and a gate material stack located directly on an upper surface of said channel layer; characterized in that: said gate material stack comprises, from bottom to top, a high k gate dielectric layer, a work function metal layer, and a polysilicon layer; and said well region has a dopant concentration of 5x10 18 atoms/cm 3 or greater; wherein, for a p-type field effect transistor, said well region includes n-type dopants and said buffer layer comprises non-doped Si, and said channel layer comprises a SiGe alloy; or, for an n-type field effect transistor, said well region includes p-type dopants and said buffer layer comprises non-doped or p-type doped SiC, and said channel layer comprises Si. a semiconductor substrate having a well region located within an upper region thereof; a semiconductor material stack comprising, from bottom to top, a buffer layer and a channel layer, the buffer layer and the channel layer each comprising a semiconductor, the semiconductor of the channel layer being non-doped, wherein said buffer layer of said semiconductor material stack is located directly on an upper surface of said well region of the substrate; and a gate material stack located directly on an upper surface of said channel layer;
A method for recording and processing data, said data being stored on different objects (11, 12, 13, 14, 15, 16, 18), such as measuring instruments or RFID cards, which have an interface for reading out the data, for example via NFC, RDID, Bluetooth, WLAN, ZigBee, ANT, IrDA Zeroconf, WPan, Z-Wave, Bonjour or EnOcean, the reading instrument used to being a container, such as a suitcase or a special laying area or a sensing area, in or on which all the objects storing data may be laid, and the data of those objects, which have been laid in or on the container, are read, characterized in that the data determine, on at least one of the objects laid in or on the container, for example an RFID card, which processing steps have to be carried out.
An apparatus configured for bonding semiconductor structures comprising: equipment configured for positioning a first surface of a first semiconductor structure directly opposite and in contact with a first surface of a second semiconductor structure; and equipment configured for forming a bond interface area between said first surfaces of said first and second semiconductor structures by pressing said first and second semiconductor structures together with a force column configured to apply uniform pressure to the entire bond interface area between said first surfaces, the apparatus being characterized in that said force column comprises a plurality of uniformly distributed forces arranged in a column having a base dimensioned to match the entire bond interface area between said first surfaces (410a, 420a). equipment configured for positioning a first surface of a first semiconductor structure directly opposite and in contact with a first surface of a second semiconductor structure; and equipment configured for forming a bond interface area between said first surfaces of said first and second semiconductor structures by pressing said first and second semiconductor structures together with a force column configured to apply uniform pressure to the entire bond interface area between said first surfaces, the apparatus being characterized in that said force column comprises a plurality of uniformly distributed forces arranged in a column having a base dimensioned to match the entire bond interface area between said first surfaces (410a, 420a).