mhurhangee/ep-ind-claims huggingface dataset:
A method of making weathering steel comprising the steps of: a. preparing a molten melt for producing an as-cast carbon alloy steel strip less or equal to 4 mm in thickness with a corrosion index of at least 6.0 calculated in accordance with the formula defined in paragraph 6.3.1.1 of ASTM G101 comprising, by weight, between 0.02% and 0.08% carbon, less than 0.6% silicon, between 0.2% and 2.0% manganese, less than 0.03% phosphorus, less than 0.01% sulfur, less than 0.01% nitrogen, between 0.2% and 0.5% copper, between 0.01% and 0.2% niobium, between 0.01% and 0.2% vanadium, between 0.1% and 0.4% chromium, between 0.08% and 0.25% nickel, less than 0.01% aluminum, and the remainder iron and impurities from making the molten melt; b. solidifying and cooling the molten melt into a cast strip less than or equal to 4 mm in thickness in a non-oxidizing atmosphere; c. hot rolling the cast strip in an austenitic temperature range above Ar 3 to between 10% and 50% reduction; d. cooling the hot rolled cast strip at above 20 °C per second and coiling the cast strip below 700 °C to form a steel strip with a microstructure comprising bainite and acicular ferrite with more than 70% niobium in solid solution; and e. age hardening the steel strip forming an age hardened steel strip having a yield strength of at least 550 MPa and a total elongation of at least 8%. a. preparing a molten melt for producing an as-cast carbon alloy steel strip less or equal to 4 mm in thickness with a corrosion index of at least 6.0 calculated in accordance with the formula defined in paragraph 6.3.1.1 of ASTM G101 comprising, by weight, between 0.02% and 0.08% carbon, less than 0.6% silicon, between 0.2% and 2.0% manganese, less than 0.03% phosphorus, less than 0.01% sulfur, less than 0.01% nitrogen, between 0.2% and 0.5% copper, between 0.01% and 0.2% niobium, between 0.01% and 0.2% vanadium, between 0.1% and 0.4% chromium, between 0.08% and 0.25% nickel, less than 0.01% aluminum, and the remainder iron and impurities from making the molten melt; b. solidifying and cooling the molten melt into a cast strip less than or equal to 4 mm in thickness in a non-oxidizing atmosphere; c. hot rolling the cast strip in an austenitic temperature range above Ar 3 to between 10% and 50% reduction; d. cooling the hot rolled cast strip at above 20 °C per second and coiling the cast strip below 700 °C to form a steel strip with a microstructure comprising bainite and acicular ferrite with more than 70% niobium in solid solution; and e. age hardening the steel strip forming an age hardened steel strip having a yield strength of at least 550 MPa and a total elongation of at least 8%.
A secure laminate, comprising: a core layer comprising at least one of a transparent and translucent material including: a first major surface; a second major surface opposing the first major surface; and at least one edge connecting the first and second major surfaces; a second layer (208a, 208b) adjacent to the first major surface of the core layer; and at least one security element comprising a photoluminescent material laminated between the core layer and the second layer (208a, 208b), such that the presence of the at least one security element can be checked by illuminating the at least one edge and viewing the re-radiated luminescent light emerging from the core layer through the at least one edge; characterized in that the second layer (208a, 208b) directly contacts the first major surface of the core layer to guide the light emitted by the at least one security element in the core layer to the at least one edge. a core layer comprising at least one of a transparent and translucent material including: a first major surface; a second major surface opposing the first major surface; and at least one edge connecting the first and second major surfaces; a first major surface; a second major surface opposing the first major surface; and at least one edge connecting the first and second major surfaces; a second layer (208a, 208b) adjacent to the first major surface of the core layer; and at least one security element comprising a photoluminescent material laminated between the core layer and the second layer (208a, 208b), such that the presence of the at least one security element can be checked by illuminating the at least one edge and viewing the re-radiated luminescent light emerging from the core layer through the at least one edge; characterized in that the second layer (208a, 208b) directly contacts the first major surface of the core layer to guide the light emitted by the at least one security element in the core layer to the at least one edge.
A sheet processing device (1, 1A) configured to separate a non-bonding portion of a two-ply sheet (PJ, S) in which two sheets (P1, P2) are overlapped and bonded together at one end as a bonding portion of the two-ply sheet (PJ, S), the sheet processing device (1, 1A) comprising: a first sheet feeder (2, 11) configured to feed the two-ply sheet (PJ, S); a second sheet feeder (3, 12) configured to feed an inner sheet to be inserted between the two sheets (P1, P2) of the two-ply sheet (PJ, S) in a state in which the non-bonding portion of the two-ply sheet (PJ, S) is separated; and a controller (500, 500A) configured to: cause the first sheet feeder (2, 11) to feed the two-ply sheet (PJ, S); perform a sheet separating operation on the two-ply sheet (PJ, S) to separate the non-bonding portion of the two-ply sheet (PJ, S); and cause the second sheet feeder (3, 12) to start feeding the inner sheet before completion of the sheet separating operation on the two-ply sheet (PJ, S). a first sheet feeder (2, 11) configured to feed the two-ply sheet (PJ, S); a second sheet feeder (3, 12) configured to feed an inner sheet to be inserted between the two sheets (P1, P2) of the two-ply sheet (PJ, S) in a state in which the non-bonding portion of the two-ply sheet (PJ, S) is separated; and a controller (500, 500A) configured to: cause the first sheet feeder (2, 11) to feed the two-ply sheet (PJ, S); perform a sheet separating operation on the two-ply sheet (PJ, S) to separate the non-bonding portion of the two-ply sheet (PJ, S); and cause the second sheet feeder (3, 12) to start feeding the inner sheet before completion of the sheet separating operation on the two-ply sheet (PJ, S). cause the first sheet feeder (2, 11) to feed the two-ply sheet (PJ, S); perform a sheet separating operation on the two-ply sheet (PJ, S) to separate the non-bonding portion of the two-ply sheet (PJ, S); and cause the second sheet feeder (3, 12) to start feeding the inner sheet before completion of the sheet separating operation on the two-ply sheet (PJ, S).
Medium voltage connection, comprising: - a first conductor and a second conductor electrically attached to each other; - a first isolating layer arranged around the first conductor and a second isolating layer arranged around the second conductor, leaving an airgap between both isolating layers; - an isolating rubber sleeve (29, 30) arranged between the first isolating layer and the second isolating layer to fill the airgap between the two isolating layers; wherein: - a conducting layer is arranged on the first isolating layer, and - the rubber sleeve (29, 30) is provided with a conducting portion, which overlaps with the conducting layer; characterized in that the transition between the conducting portion and isolating portion of the rubber sleeve (29, 30) is positioned between the first and second isolating layers. - a first conductor and a second conductor electrically attached to each other; - a first isolating layer arranged around the first conductor and a second isolating layer arranged around the second conductor, leaving an airgap between both isolating layers; - an isolating rubber sleeve (29, 30) arranged between the first isolating layer and the second isolating layer to fill the airgap between the two isolating layers; - a conducting layer is arranged on the first isolating layer, and - the rubber sleeve (29, 30) is provided with a conducting portion, which overlaps with the conducting layer;
A package containing a pile of rolls of tissue paper within a sealed bag characterized in that the rolls of tissue paper have at least one end plug (1;10;19;31) inserted axially into the centre of an end of the roll of paper, said end plug being provided with a holding element (3;11;20;35) adapted to hold and/or guide said end of said roll of paper in correct position in a dispenser, said end plug (1;10;19;31) includes an outer sleeve (2;12;22;32) having an outer end and an inner end and that said holding element (3;11;20;35) is connected to said sleeve by means allowing the holding element to be axially moved from a first position, in which the holding element is inserted into the outer sleeve, to a second position, in which the holding element protrudes outwardly from the outer end of said sleeve, wherein said holding element is releasably held in said first position when moved thereto such that the holding element remains in the first position until it is actively removed therefrom by manual influence or automatic influence arranged by automatic means on a dispenser.
A shutter assembly comprising: a driver that generates a rotation force; an input gear unit rotated by the driver; a transmission gear unit rotated by the input gear unit; an output gear unit rotated by the transmission gear unit; and a rotation unit that is rotated by the output gear unit between a position for transmitting light and a position for blocking light, and characterised in that a shutter plate comprising a through hole through which light is transmitted, wherein the rotation unit comprises a blocking plate that opens or closes the through hole, and a lever that is coupled to the blocking plate and is rotated by the output gear unit, and wherein the transmission gear unit at least partially corresponds to a rotation path of the lever and is spaced apart from the surface containing the rotation path along the direction of the central axis of the transmission gear unit. a driver that generates a rotation force; an input gear unit rotated by the driver; a transmission gear unit rotated by the input gear unit; an output gear unit rotated by the transmission gear unit; and a rotation unit that is rotated by the output gear unit between a position for transmitting light and a position for blocking light, and characterised in that a shutter plate comprising a through hole through which light is transmitted, wherein the rotation unit comprises a blocking plate that opens or closes the through hole, and a lever that is coupled to the blocking plate and is rotated by the output gear unit, and wherein the transmission gear unit at least partially corresponds to a rotation path of the lever and is spaced apart from the surface containing the rotation path along the direction of the central axis of the transmission gear unit.
Inductive component comprising a closed magnet core, and a first current conductor which runs at least twice through the interior of the magnet core, wherein the current conductor comprises two first L-shaped parts (11', 13') and one second L-shaped part made of flat conductors, and wherein the first L-shaped parts (11', 13') are bent in such a way that they have flat sections (11a, 11c) which are arranged in different winding planes, and a flat section which runs obliquely to the said planes and wherein the first L-shaped parts (11', 13') are arranged one above the other and their diagonally opposite ends are firmly connected to different ends of the second L-shaped part.
A method for a network node configured to perform outer-loop control of a Physical Downlink Control Channel, PDCCH, link, the method comprising: obtaining actual PDCCH success rate values indicative of the transmission success on a PDCCH for two or more of respective downlink control information, DCI, formats among several DCI formats, wherein the DCIs of the two or more formats are transmitted on the PDCCH to a wireless device and the actual PDCCH success rate of the two DCI formats are based on whether the wireless device responds to a the- DCI in an expected way, comprising the further steps of: obtaining expected PDCCH success probability values indicative of DCI format success probabilities for the two or more DCI formats, determining a PDCCH link outer loop compensation factor based on the actual PDCCH success rate values for the two or more DCI formats and by suppressing the impact of the actual PDCCH success rate of a first DCI format of the two or more DCI formats that has a higher expected PDCCH success probability than a second DCI format of the two or more DCI formats, in response to the actual PDCCH success rate of the first DCI format being less than the actual PDCCH success rate of the second DCI format, and performing a PDCCH link transmission using the PDCCH link outer loop compensation factor. obtaining expected PDCCH success probability values indicative of DCI format success probabilities for the two or more DCI formats, determining a PDCCH link outer loop compensation factor based on the actual PDCCH success rate values for the two or more DCI formats and by suppressing the impact of the actual PDCCH success rate of a first DCI format of the two or more DCI formats that has a higher expected PDCCH success probability than a second DCI format of the two or more DCI formats, in response to the actual PDCCH success rate of the first DCI format being less than the actual PDCCH success rate of the second DCI format, and performing a PDCCH link transmission using the PDCCH link outer loop compensation factor.
A method for transmitting, by a first terminal, a device-to-device, D2D, signal using a first component carrier and a cellular signal using a second component carrier in a wireless communication system, the method comprising: transmitting the D2D signal on the first component carrier to a second terminal; transmitting the cellular signal on the second component carrier to a base station; and puncturing on an overlapped portion of the first component carrier based on timing advance, TA, to control a transmission power of the D2D signal not to exceed a maximum transmission power in the overlapped portion of a subframe if the transmission of the D2D signal overlaps with the transmission of the cellular signal. transmitting the D2D signal on the first component carrier to a second terminal; transmitting the cellular signal on the second component carrier to a base station; and puncturing on an overlapped portion of the first component carrier based on timing advance, TA, to control a transmission power of the D2D signal not to exceed a maximum transmission power in the overlapped portion of a subframe if the transmission of the D2D signal overlaps with the transmission of the cellular signal.
A method of reconstituting Annamycin, such method comprising: adding pre-warmed saline having a temperature of 30-45 °C to one or more containers of preliposomal Annamycin lyophilizate, to form suspended liposomal Annamycin with a concentration of 0.5-1.5 mg/mL; maintaining said one or more containers at 30 -45 °C; diluting said suspended liposomal Annamycin, with pre-warmed saline having a temperature of 30-45 °C to provide diluted liposomal Annamycin at a concentration in saline of 0.3-0.7 mg/mL; and maintaining said one or more containers of suspended liposomal Annamycin and said diluted liposomal Annamycin at 30 -45 °C during and after the dilution. adding pre-warmed saline having a temperature of 30-45 °C to one or more containers of preliposomal Annamycin lyophilizate, to form suspended liposomal Annamycin with a concentration of 0.5-1.5 mg/mL; maintaining said one or more containers at 30 -45 °C; diluting said suspended liposomal Annamycin, with pre-warmed saline having a temperature of 30-45 °C to provide diluted liposomal Annamycin at a concentration in saline of 0.3-0.7 mg/mL; and maintaining said one or more containers of suspended liposomal Annamycin and said diluted liposomal Annamycin at 30 -45 °C during and after the dilution.
Microsensor for detecting ions in a fluid, comprising: • a field-effect transistor having a source, a drain, an active region between the source and the drain, and a gate which is arranged above the active region, • an active layer in which the active region is formed, • a dielectric layer which is arranged under the active layer, • a support substrate which is arranged under the dielectric layer and comprises at least one buried cavity, which is located vertically in line with the gate of the transistor, for accommodating the fluid; the microsensor being characterized in that the cavity comprises a narrowing in the vicinity of the dielectric layer and a flared part in a deeper zone of the support substrate. • a field-effect transistor having a source, a drain, an active region between the source and the drain, and a gate which is arranged above the active region, • an active layer in which the active region is formed, • a dielectric layer which is arranged under the active layer, • a support substrate which is arranged under the dielectric layer and comprises at least one buried cavity, which is located vertically in line with the gate of the transistor, for accommodating the fluid; the microsensor being characterized in that the cavity comprises a narrowing in the vicinity of the dielectric layer and a flared part in a deeper zone of the support substrate.
A method for generating a human anti-inflammatory macrophage, the method comprising the step of: co-culturing a CD14 + cell with tissue-specific extracellular factors selected from the group consisting of extracellular vesicles, exosomes, micro-vesicles, extracellular matrix compositions, and combinations thereof in vitro until the CD14 + cell acquires an anti-inflammatory macrophage phenotype.
An organic light-emitting display (OLED) device (300, 500), comprising: an organic light-emitting element disposed between a top surface of a lower substrate and an upper substrate (350, 550), under a cover disposed on the outer periphery of the (OLED) device (300, 500), wherein an adhesive layer is disposed on the light-emitting element and between the top surface of the lower substrate and a bottom surface of the upper substrate (350, 550), wherein the adhesive layer seals the organic light-emitting element, wherein at least a part of a side surface of the upper substrate (350, 550) has a reverse-tapered shape configured to reduce damage to the lower substrate caused by deformation of the upper substrate (350, 550) due to an external impact, and wherein the side surface of the upper substrate comprises a first side surface being extended from one end of the bottom surface of the upper substrate (350, 550) and having a curved reverse tapered shape in a vertical cross section view of the upper substrate (350, 550) whereby the first side surface of the upper substrate (350, 550) has a concave shape. an organic light-emitting element disposed between a top surface of a lower substrate and an upper substrate (350, 550), under a cover disposed on the outer periphery of the (OLED) device (300, 500), wherein an adhesive layer is disposed on the light-emitting element and between the top surface of the lower substrate and a bottom surface of the upper substrate (350, 550), wherein the adhesive layer seals the organic light-emitting element, wherein at least a part of a side surface of the upper substrate (350, 550) has a reverse-tapered shape configured to reduce damage to the lower substrate caused by deformation of the upper substrate (350, 550) due to an external impact, and wherein the side surface of the upper substrate comprises a first side surface being extended from one end of the bottom surface of the upper substrate (350, 550) and having a curved reverse tapered shape in a vertical cross section view of the upper substrate (350, 550) whereby the first side surface of the upper substrate (350, 550) has a concave shape.
Double-interrupting protective switching device for monitoring a circuit, having a coil for actuating a trip element, a first switching contact pair comprising a first stationary switching contact and a first movable switching contact, a second switching contact pair comprising a second stationary switching contact and a second movable switching contact, the movable switching contacts (4, 13) being able to be actuated by the trip element, a first arcing chamber having a first guide rail and a first contact horn which is connected to the first stationary switching contact in an electrically conductive manner, a second arcing chamber having a second guide rail and a second contact horn which is connected to the second stationary switching contact in an electrically conductive manner, the first switching contact pair (3, 4) being arranged beside the second switching contact pair (12, 13) in a manner rotated through 170° to 190° with respect to the second switching contact pair (12, 13) such that the first switching contact pair and the second switching contact pair have different pivot planes, and a flexible electrical conductor being provided between the first movable switching contact and the second movable switching contact and connecting the first movable switching contact to the second movable switching contact in an electrically conductive manner.
A double disk valve system comprising: - a valve housing (2a, 2b) defining a fluid inlet for receiving a fluid medium, and a fluid outlet for delivering a fluid medium, - at least two valve elements arranged in an interior part of the valve housing, the valve elements being movable relative to the valve housing, the position of the valve elements relative to the valve housing determining a flow rate of fluid medium through the valve system from the fluid inlet towards the fluid outlet, - a moving mechanism arranged to cause movements of the valve elements, and - a sealing member arranged in an interior part of the valve housing, the sealing member being capable of separating the interior of the valve housing into a first part comprising the fluid inlet and the fluid outlet, and a second part, wherein the sealing member is mounted on the moving mechanism, the sealing member thereby being movable along with the valve elements, characterized in that the sealing member is a plate member, the plate member forming a wall part of the first part of the interior of the valve housing when the sealing member is in a separating position in which the interior of the valve housing is separated into the first part and the second part. - a valve housing (2a, 2b) defining a fluid inlet for receiving a fluid medium, and a fluid outlet for delivering a fluid medium, - at least two valve elements arranged in an interior part of the valve housing, the valve elements being movable relative to the valve housing, the position of the valve elements relative to the valve housing determining a flow rate of fluid medium through the valve system from the fluid inlet towards the fluid outlet, - a moving mechanism arranged to cause movements of the valve elements, and - a sealing member arranged in an interior part of the valve housing, the sealing member being capable of separating the interior of the valve housing into a first part comprising the fluid inlet and the fluid outlet, and a second part,