mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a cold rolled steel sheet having a tensile strength TS of at least 1470 MPa and a total elongation TE of at least 16%, the tensile strength and the total elongation being measured in the transverse direction relative to the direction of rolling, the method comprising the successive steps of: - annealing at an annealing temperature AT a cold rolled steel sheet made of steel whose chemical composition contains in weight %: 0.34 % ≤ C ≤ 0.40 % 1.50 % ≤ Mn ≤ 2.30 % 1.50 ≤ Si ≤ 2.40 ⁢ % 0.46 % ≤ Cr ≤ 0.7 ⁢ % 0 % ≤ Mo ≤ 0.3 ⁢ % 0.01 % ≤ Al ≤ 0.08 %, and 0.03 ⁢ % ≤ Nb ≤ 0.05 ⁢ %, the remainder being Fe and unavoidable impurities, wherein Ni, Cu, V, Ti, B, S, P and N are considered as unavoidable impurities, and wherein their contents are less than 0.05% for Ni, 0.05% for Cu, 0.007% for V, 0.001 % for B, 0.005% for S, 0.02% for P and 0.010% for N, the annealing temperature AT being higher than the Ac3 transformation point of the steel, - quenching the annealed steel sheet by cooling it down to a quenching temperature QT lower than the Ms transformation point of the steel and between 200 °C and 230 °C, and, - making a partitioning treatment by reheating the quenched steel sheet at a partitioning temperature PT between 350°C and 450°C and maintaining the steel sheet at this temperature during a partitioning time Pt between 40 seconds and 120 seconds, - coating the steel sheet then cooling to the room temperature in order to obtain a coated steel sheet, the coating step being a galvannealing step with an alloying temperature GA between 470°C and 520°C, preferably between 480°C and 500°C, the sheet being maintained at the alloying temperature GA for a time comprised between 5s and 15s. - annealing at an annealing temperature AT a cold rolled steel sheet made of steel whose chemical composition contains in weight %: 0.34 % ≤ C ≤ 0.40 % 1.50 % ≤ Mn ≤ 2.30 % 1.50 ≤ Si ≤ 2.40 ⁢ % 0.46 % ≤ Cr ≤ 0.7 ⁢ % 0 % ≤ Mo ≤ 0.3 ⁢ % 0.01 % ≤ Al ≤ 0.08 %, and 0.03 ⁢ % ≤ Nb ≤ 0.05 ⁢ %, the remainder being Fe and unavoidable impurities, wherein Ni, Cu, V, Ti, B, S, P and N are considered as unavoidable impurities, and wherein their contents are less than 0.05% for Ni, 0.05% for Cu, 0.007% for V, 0.001 % for B, 0.005% for S, 0.02% for P and 0.010% for N, the annealing temperature AT - quenching the annealed steel sheet by cooling it down to a quenching temperature QT lower than the Ms transformation point of the steel and between 200 °C and 230 °C, and, - making a partitioning treatment by reheating the quenched steel sheet at a partitioning temperature PT between 350°C and 450°C and maintaining the steel sheet at this temperature during a partitioning time Pt between 40 seconds and 120 seconds, - coating the steel sheet then cooling to the room temperature in order to obtain a coated steel sheet, the coating step being a galvannealing step with an alloying temperature GA between 470°C and 520°C, preferably between 480°C and 500°C, the sheet being maintained at the alloying temperature GA for a time comprised between 5s and 15s.
A process in direct chill casting wherein molten metal is introduced into a casting mold and cooled by impingement of a liquid coolant on solidifying metal in a casting pit having top, intermediate and bottom portions and including a movable platen comprising: detecting an occurrence of a bleed-out or a run-out; after detecting the occurrence of a bleed-out or a run-out: exhausting generated gas from the casting pit at a volume flow rate that is enhanced relative to a volume flow rate prior to detecting an occurrence of a bleed-out or a run-out; and introducing an inert gas into the casting pit, the inert gas having a density less than a density of air. detecting an occurrence of a bleed-out or a run-out; after detecting the occurrence of a bleed-out or a run-out: exhausting generated gas from the casting pit at a volume flow rate that is enhanced relative to a volume flow rate prior to detecting an occurrence of a bleed-out or a run-out; and introducing an inert gas into the casting pit, the inert gas having a density less than a density of air. exhausting generated gas from the casting pit at a volume flow rate that is enhanced relative to a volume flow rate prior to detecting an occurrence of a bleed-out or a run-out; and introducing an inert gas into the casting pit, the inert gas having a density less than a density of air.
A bag for holding medical fluids for renal therapy consisting of film wall sections (102a, 102b, 202c, 202d), which are welded together peripherally along a bordering line (108, 208) in at least some sections, having at least one access port (106, 107, 206, 207) whose first end (106a, 107a) brings an inner area of the bag in fluid connection with the outer area and which is incorporated into the bordering line (108, 208) with a seal, and a flexurally rigid plastic part (122, 222), wherein the flexurally rigid plastic part (122, 222) is connected to the film walls (102a, 102b, 202c, 202d) separately from the bordering line (108, 208), characterized in that the flexurally rigid plastic part (122, 222) is welded without a seal to the film walls (102a, 102b, 202c, 202d) separately from the sealing bordering line (108, 208); and in that receptacles for access ports/withdrawal ports (106, 107, 206, 207) and/or vent ports (124, 125, 224, 225) and/or tube holders are integrated into the flexurally rigid plastic part (122, 222).
A screw compressor comprising: a male rotor and a female rotor; and a housing having: a first bore and a second bore respectively accommodating portions of the male rotor and the female rotor; an inlet; an outlet; an economizer port along at least one of the first bore and the second bore; an external port communicating with the economizer port; and a chamber between the economizer port and the external port, characterised in that: the chamber has a volume of at least 0.8 liter; the volume is at least 30% of a displacement per revolution of the male rotor; the chamber has a protuberant portion; and at a first location the protuberant portion has a minimum cross-sectional area of at least twice an area of the external port. a male rotor and a female rotor; and a housing having: a first bore and a second bore respectively accommodating portions of the male rotor and the female rotor; an inlet; an outlet; an economizer port along at least one of the first bore and the second bore; an external port communicating with the economizer port; and a chamber between the economizer port and the external port, a first bore and a second bore respectively accommodating portions of the male rotor and the female rotor; an inlet; an outlet; an economizer port along at least one of the first bore and the second bore; an external port communicating with the economizer port; and a chamber between the economizer port and the external port, characterised in that: the chamber has a volume of at least 0.8 liter; the volume is at least 30% of a displacement per revolution of the male rotor; the chamber has a protuberant portion; and at a first location the protuberant portion has a minimum cross-sectional area of at least twice an area of the external port. the chamber has a volume of at least 0.8 liter; the volume is at least 30% of a displacement per revolution of the male rotor; the chamber has a protuberant portion; and at a first location the protuberant portion has a minimum cross-sectional area of at least twice an area of the external port.
An intraosseous biopsy needle set operable to be rotatably inserted into a bone and associated bone marrow, the intraosseous biopsy needle set comprising: an outer penetrator (110c, 110d, 110h) having a first end (111, 111d), a second end, and a longitudinal bore, the longitudinal bore extending from the first end of the outer penetrator to the second end of the outer penetrator; an inner penetrator operable to be slidably received within the longitudinal bore of the outer penetrator (1 10c, 1 10d, 1 10h), the inner penetrator having a first end configured to at least partially extend from the first end (111, 111d) of the outer penetrator (110c, 110d, 110h); and a generally helical thread (190, 190a) disposed on an interior portion of the outer penetrator proximate to the first end of the outer penetrator, the helical thread (190, 190a) configured to assist with capturing a specimen of bone or bone marrow; where the first end of the inner penetrator includes a first tapered cutting surface, and characterized in that a portion of the first tapered cutting surface is disposed within the first end (111, 111d) of the outer penetrator (1 10c, 1 10d, 1 10h) when the inner penetrator is fully inserted into the outer penetrator. an outer penetrator (110c, 110d, 110h) having a first end (111, 111d), a second end, and a longitudinal bore, the longitudinal bore extending from the first end of the outer penetrator to the second end of the outer penetrator; an inner penetrator operable to be slidably received within the longitudinal bore of the outer penetrator (1 10c, 1 10d, 1 10h), the inner penetrator having a first end configured to at least partially extend from the first end (111, 111d) of the outer penetrator (110c, 110d, 110h); and a generally helical thread (190, 190a) disposed on an interior portion of the outer penetrator proximate to the first end of the outer penetrator, the helical thread (190, 190a) configured to assist with capturing a specimen of bone or bone marrow; where the first end of the inner penetrator includes a first tapered cutting surface, and characterized in that a portion of the first tapered cutting surface is disposed within the first end (111, 111d) of the outer penetrator (1 10c, 1 10d, 1 10h) when the inner penetrator is fully inserted into the outer penetrator.
An epidemic prevention channel, characterized in that: comprising a channel body, the channel body is provided with an air inlet system, an air return system, and an exhaust system, an interior of the channel body is divided into an upper area and a lower area, the air inlet system comprises air inlets, an air intake fan, a first filtering and sterilizing device, and a first nozzle group formed by a plurality of nozzles installed on a top wall of the channel body and side walls of the upper area, the air intake fan introduces external fresh air through the air inlets, the external fresh air passes through the air inlets, the air intake fan, the first filtering and sterilizing device, and the first nozzle group in sequence and is sprayed into and purifies the upper area of the channel body, the air return system comprises an air return port, an air return fan, a second filtering and sterilizing device, and a second nozzle group formed by a plurality of nozzles installed on side walls of the lower area of the channel body and, an air in the channel body passes through the air return port, the air return fan, the second filtering and sterilizing device, and the second nozzle group in sequence and circulates, is sprayed into, and purifies the lower area of the channel body, the exhaust system comprises an exhaust air inlet provided at a bottom of two ends of the channel body, an exhaust pipe communicating with the exhaust air inlet, an exhaust fan, a third filtering and sterilizing device, and an exhaust air outlet, and the air discharged from the interior of the channel body passes through the exhaust air inlet, the exhaust pipe, the exhaust fan, the third filtering and sterilizing device, and the exhaust air outlet in sequence and flows to the outside of the epidemic prevention channel.
A cable jacket composition comprising a multimodal olefin copolymer, wherein the multimodal olefin copolymer has density of 0.935-0.960 g/cm 3 measured according to ISO 1183-1:2004 on compression molded specimen prepared according to EN ISO 1872-2; and MFR 2 of 2.2-10.0 g/10 min measured according to ISO 1133-1 at 190°C, and the composition has ESCR of at least 2000 hours measured according to IEC 60811-406, method B and cable shrinkage of 0.70% or lower measured as disclosed in the specification.
A method, comprising: receiving, by a master node, a data analysis request; creating, by the master node, a plan to generate a response to the request; assigning to each of a plurality of distributed processing segments a corresponding portion of the plan to be performed by that segment, including by invoking as indicated in the assignment one or more data analytical functions embedded in the processing segment; and characterized by sending, by the master node, to each of the plurality of distributed processing segments for which a portion of the plan is assigned, the corresponding portion of the plan to be performed by that segment and metadata, wherein the metadata is used to locate or access a subset of data in a distributed storage layer on which the segment is to perform the indicated processing. receiving, by a master node, a data analysis request; creating, by the master node, a plan to generate a response to the request; assigning to each of a plurality of distributed processing segments a corresponding portion of the plan to be performed by that segment, including by invoking as indicated in the assignment one or more data analytical functions embedded in the processing segment; and characterized by sending, by the master node, to each of the plurality of distributed processing segments for which a portion of the plan is assigned, the corresponding portion of the plan to be performed by that segment and metadata, wherein the metadata is used to locate or access a subset of data in a distributed storage layer on which the segment is to perform the indicated processing.
Use of a cutting tool comprising a cemented carbide substrate comprising WC and a binder phase for machining in Ti, Ti-alloys or Ni-based alloys wherein a cryogenic coolant is used, characterised in that the binder phase content is of between 2 and 4 wt%; the average WC grain size is of between 1.2 and 8 μm; and the cemented carbide is free from eta phase and free graphite. the binder phase content is of between 2 and 4 wt%; the average WC grain size is of between 1.2 and 8 μm; and the cemented carbide is free from eta phase and free graphite.
Process for producing glass foam with reuse of a waste glass mixture containing visual display unit glass from televisions, calculators or other monitors and also glass from fluorescent tubes and/or energy-saving lamps and/or photovoltaic units, which comprises the following process steps in the order indicated: • separate milling of individual fractions of the waste glass which originate from different sources to give glass flour, • mixing of a glass sintering composition from proportions of the various glass flour fractions and an inorganic carbon carrier substance as activator without addition of water or other liquids in a dry process and • thermal treatment of the glass sintering composition, wherein the glass sintering composition is firstly subjected to a sintering process and later to a foaming process which takes place at temperatures in the temperature range 855°C-890°C, and the glass foam formed is subsequently cooled, wherein the glass sintering composition is composed of 15% by weight-45% by weight of visual display unit glass, 10% by weight-83% by weight of glass from fluorescent tubes and/or energy-saving lamps and/or photovoltaic units, 0% by weight-8% by weight of container glass and 1% by weight-2% by weight of the activator and the representative chemical composition of the visual display unit glass used has the following proportions in percent by weight: 55.0 SiO 2; 10.2 Na 2 O; 9.1 PbO; 6.3 BaO; 6.0 K 2 O; 5.8 SrO; 2.5 Al 2 O 3; 1.8 CaO; 1.2 ZrO 2; 0.4 MgO; 0.2 TiO 2; 0.1 Fe 2 O 3; 1.4 other components and the representative chemical composition of the glass from fluorescent tubes and/or energy-saving lamps and/or photovoltaic units which is used has the following proportions in percent by weight: 55-70 SiO 2; 2.6 Al 2 O 3; 0.5-4 Li 2 O; < 0.1 Na 2 O; 10-15 K 2 O; 0-3 MgO; 0-4 CaO; 4-7 SrO; 7-10 BaO; 0-0.5 CeO 2 or contains the following representative proportions in percent by weight: 65-73 SiO 2; 1-5 Al 2 O 3; 0.5-2 Li 2 O; 5-10 Na 2 O; 3-7 K 2 O; 0.5-2 MgO; 1-3 CaO; 1-10 SrO; 1-15 BaO; 0-3 B 2 O 3; 0-2 Sb 2 O 3; 0-0. 5 Fe 2 O 3; > 0 B 2 O 3 > 0 Sb 2 O 3. • separate milling of individual fractions of the waste glass which originate from different sources to give glass flour, • mixing of a glass sintering composition from proportions of the various glass flour fractions and an inorganic carbon carrier substance as activator without addition of water or other liquids in a dry process and • thermal treatment of the glass sintering composition, wherein the glass sintering composition is firstly subjected to a sintering process and later to a foaming process which takes place at temperatures in the temperature range 855°C-890°C, and the glass foam formed is subsequently cooled, wherein
A FCC catalyst for enhanced production of light olefins from heavy hydrocarbon feedstock, the catalyst comprising: between 10 and 20% by weight of an ultra-stable Y-type zeolite; between 10 and 20% by weight of a pentasil zeolite; between 20 and 30% by weight of a binder material; and between 30 and 40% by weight clay filler material. between 10 and 20% by weight of an ultra-stable Y-type zeolite; between 10 and 20% by weight of a pentasil zeolite; between 20 and 30% by weight of a binder material; and between 30 and 40% by weight clay filler material.
Braking apparatus for an elevator, which comprises: - an apparatus for dynamic braking, for braking an electric machine with dynamic braking, - an input for a control signal (5, 7) of the braking apparatus, - a controller for controlling the apparatus for dynamic braking as a response to the aforementioned control signal (5, 7) of the braking apparatus, wherein the controller comprises control modes (10, 11, 12, 13) for controlling the apparatus for dynamic braking according to the control mode to be used at any given time, characterized in that - the controller is arranged to activate the apparatus for dynamic braking after a set activation delay of dynamic braking subsequent to receiving an emergency stop signal, and - in that a machinery brake is arranged to be activated after a certain activation delay of machinery braking subsequent to receiving the emergency stop signal, wherein the activation delay of dynamic braking is set to be longer than the activation delay of the machinery braking. - an apparatus for dynamic braking, for braking an electric machine with dynamic braking, - an input for a control signal (5, 7) of the braking apparatus, - a controller for controlling the apparatus for dynamic braking as a response to the aforementioned control signal (5, 7) of the braking apparatus, - the controller is arranged to activate the apparatus for dynamic braking after a set activation delay of dynamic braking subsequent to receiving an emergency stop signal, and - in that a machinery brake is arranged to be activated after a certain activation delay of machinery braking subsequent to receiving the emergency stop signal,
Bumper beam for vehicles with mountings (20, 21) to the vehicle at its ends, where the bumper beam has a U-profile with its bottom towards the vehicle, and an upper and a lower side called webs (13, 14), wherein each mounting (20, 21) consists of a plate formed from one piece that has two bent standing sides (23, 24) and from side flanges (25, 26) with holes for mounting to the vehicle, the standing sides having cut-outs adapted for the bottom and webs (13, 14) of the bumper beam and welded to the beam, characterized in t hat both mountings (20, 21) consist of a standing hat profile with a central flange that couples the two side flanges together both below and above the cut-outs.
A guide assembly (10a, 10b) for a disc brake for a heavy commercial vehicle, wherein the guide assembly (10a, 10b) is configured to slidably support a disc caliper, the guide assembly (10a, 10b) comprising: a guide pin having a mounting portion, wherein a perimeter of the mounting portion comprises a first, polygonal cross-sectional profile; and a brake carrier having a receiving portion configured to receive the mounting portion, the receiving portion comprising a second cross-sectional profile that is different to the first cross-sectional profile of the mounting portion; and wherein the mounting portion comprises at least one mating edge region configured to form an interference engagement with the receiving portion when the mounting portion is received in the receiving portion. a guide pin having a mounting portion, wherein a perimeter of the mounting portion comprises a first, polygonal cross-sectional profile; and a brake carrier having a receiving portion configured to receive the mounting portion, the receiving portion comprising a second cross-sectional profile that is different to the first cross-sectional profile of the mounting portion; and wherein the mounting portion comprises at least one mating edge region configured to form an interference engagement with the receiving portion when the mounting portion is received in the receiving portion.
A protein comprising a first antigen binding unit specifically binding to DLL3 and a second antigen binding unit specifically binding to CD3, wherein said first antigen binding unit specifically binding to DLL3 is selected from the group consisting of i) to iii): i) an antigen binding unit comprising light chain CDRs comprising the amino acid sequences of SEQ ID NO:l, SEQ ID NO:2 and SEQ ID NO:3 and heavy chain CDRs comprising the amino acid sequences of SEQ ID NO:4, SEQ ID NO:5 and SEQ ID NO:6; ii) an antigen binding unit comprising light chain CDRs comprising the amino acid sequences of SEQ ID NO:7, SEQ ID NO:8 and SEQ ID NO:9 and heavy chain CDRs comprising the amino acid sequences of SEQ ID NO:10, SEQ ID NO:11 and SEQ ID NO: 12; and iii) an antigen binding unit comprising light chain CDRs comprising the amino acid sequences of SEQ ID NO:13, SEQ ID NO:14 and SEQ ID NO:15 and heavy chain CDRs comprising the amino acid sequences of SEQ ID NO:16, SEQ ID NO:17 and SEQ ID NO:18; and wherein said second antigen binding unit specifically binding to CD3 comprises i) light chain CDRs comprising the amino acid sequences of SEQ ID NO:55, SEQ ID NO:56 and SEQ ID NO:57 and heavy chain CDRs comprising the amino acid sequences of SEQ ID NO:58, SEQ ID NO:59 and SEQ ID NO:60; or ii) light chain CDRs comprising the amino acid sequences of SEQ ID NO:61, SEQ ID NO:62 and SEQ ID NO:63 and heavy chain CDRs comprising the amino acid sequences of SEQ ID NO:64, SEQ ID NO:65 and SEQ ID NO:66. i) an antigen binding unit comprising light chain CDRs comprising the amino acid sequences of SEQ ID NO:l, SEQ ID NO:2 and SEQ ID NO:3 and heavy chain CDRs comprising the amino acid sequences of SEQ ID NO:4, SEQ ID NO:5 and SEQ ID NO:6; ii) an antigen binding unit comprising light chain CDRs comprising the amino acid sequences of SEQ ID NO:7, SEQ ID NO:8 and SEQ ID NO:9 and heavy chain CDRs comprising the amino acid sequences of SEQ ID NO:10, SEQ ID NO:11 and SEQ ID NO: 12; and iii) an antigen binding unit comprising light chain CDRs comprising the amino acid sequences of SEQ ID NO:13, SEQ ID NO:14 and SEQ ID NO:15 and heavy chain CDRs comprising the amino acid sequences of SEQ ID NO:16, SEQ ID NO:17 and SEQ ID NO:18; i) light chain CDRs comprising the amino acid sequences of SEQ ID NO:55, SEQ ID NO:56 and SEQ ID NO:57 and heavy chain CDRs comprising the amino acid sequences of SEQ ID NO:58, SEQ ID NO:59 and SEQ ID NO:60; or ii) light chain CDRs comprising the amino acid sequences of SEQ ID NO:61, SEQ ID NO:62 and SEQ ID NO:63 and heavy chain CDRs comprising the amino acid sequences of SEQ ID NO:64, SEQ ID NO:65 and SEQ ID NO:66.