mhurhangee/patent-ind-claim-en huggingface dataset:
A packaging substrate comprising: a core layer comprising a glass substrate with a first surface and a second surface facing each other; and a plurality of core via which penetrate the glass substrate in a thickness direction, wherein the core via comprises a circular core via of which opening part is a circle-shape and a non-circular core via of which an aspect ratio in the x-y direction of opening part is 1.2 or more, wherein one, two, or more electric power transmitting elements are disposed on the non-circular core via and at least a part of the electric power transmitting elements are disposed to be electrically connected to the non-circular core via, and comprising a non-circular via distribution pattern disposed inside the non-circular core via , wherein the non-circular via distribution pattern comprises a composite-type-via pattern where some of the inner space of the non-circular core via is filled with an electrically conductive layer and the remainder is filled with an insulating layer. a core layer comprising a glass substrate with a first surface and a second surface facing each other; and a plurality of core via which penetrate the glass substrate in a thickness direction, wherein the core via comprises a circular core via of which opening part is a circle-shape and a non-circular core via of which an aspect ratio in the x-y direction of opening part is 1.2 or more, wherein one, two, or more electric power transmitting elements are disposed on the non-circular core via and at least a part of the electric power transmitting elements are disposed to be electrically connected to the non-circular core via, and comprising a non-circular via distribution pattern disposed inside the non-circular core via , wherein the non-circular via distribution pattern comprises a composite-type-via pattern where some of the inner space of the non-circular core via is filled with an electrically conductive layer and the remainder is filled with an insulating layer.
A rotary machine including a rotary shaft rotatably provided in a casing , the machine being connectable to a drive unit at the direct-connection side of the rotary shaft, wherein the casing comprises a cylindrical frame and disk-shaped brackets at its axial end sides, wherein each bracket has a first recessed portion formed such that a central portion on the inner circumferential side of the bracket in the radial direction is recessed inward in the axial direction relative to the portion on the outer circumferential side; wherein the bracket on the end side of the casing opposite to the direct-connection side in an axial direction is formed integrally with an annular portion surrounding the outer circumferential side of the first recessed portion and protruding in the axial direction; wherein an end plate is provided on the distal end side of the annular portion, characterized in that the end plate has a second recessed portion formed in it and recessed inward of the casing in the axial direction, and a through hole which is formed at the second recessed portion and through which the respective end portion of the rotary shaft passes; wherein the first recessed portion , the annular portion and the end plate form a space (S 2 ) for accommodating a position detector; and wherein a shaft grounding device is provided at the second recessed portion and is in contact with the one end portion of the rotary shaft passing through the through hole to eliminate a shaft voltage generated at the rotary shaft.
A peptide comprising a hydrophobic part and a hydrophilic part, wherein the hydrophilic part comprises a positively charged amino acid residue, wherein the peptide is GLWHAWLWHAFLASHRLLRLLR.
Suction pile for installation in the seafloor to operate as a foundation or part of it to support an offshore structure resting onto the seafloor, the suction pile having internally near a top bulkhead and spaced from this bulkhead a pre-installed, fixed load bearing surface designed to keep the suction pile from moving deeper into the seafloor while the offshore structure resting onto it is in full operation and which load bearing surface is fluid permeable to provide a fluid connection between the suction pile inner spaces above and below it.
A prelaminated body of a smart card (10; 30), comprising: a base substrate (2; 12) formed of at least one layer (2a, 2b; 12a, 12b); the prelaminated body is characterized in that it comprises at least two overlay sheet layers (3a, 3b; 13a, 13b; 33a, 33b) formed on opposing sides of the base substrate (2; 12), wherein at least one of the at least two overlay sheet layers (3a, 3b; 13a, 13b; 33a, 33b) has a recess (4a, 4b; 14a, 14b) formed therein on one side of the base substrate (2; 12), and wherein the recess (4a, 4b; 14a, 14b) at least partially extends through the at least one of the at least two overlay sheet layers (3a, 3b; 13a, 13b; 33a, 33b) on the one side of the base substrate (2; 12) such that an opening of the recess (4a, 4b; 14a, 14b) is exposed. a base substrate (2; 12) formed of at least one layer (2a, 2b; 12a, 12b); the prelaminated body is characterized in that it comprises at least two overlay sheet layers (3a, 3b; 13a, 13b; 33a, 33b) formed on opposing sides of the base substrate (2; 12), wherein at least one of the at least two overlay sheet layers (3a, 3b; 13a, 13b; 33a, 33b) has a recess (4a, 4b; 14a, 14b) formed therein on one side of the base substrate (2; 12), and wherein the recess (4a, 4b; 14a, 14b) at least partially extends through the at least one of the at least two overlay sheet layers (3a, 3b; 13a, 13b; 33a, 33b) on the one side of the base substrate (2; 12) such that an opening of the recess (4a, 4b; 14a, 14b) is exposed.
A communication method, comprising: determining (S301), by a terminal side device , a random access preamble on each of N uplink bandwidth parts, BWPs, in one random access process, wherein N is an integer greater than or equal to 2; and sending (S302), by the terminal side device , the random access preamble on each uplink BWP to a network side device , wherein time resources corresponding to the uplink BWPs do not overlap. determining (S301), by a terminal side device , a random access preamble on each of N uplink bandwidth parts, BWPs, in one random access process, wherein N is an integer greater than or equal to 2; and sending (S302), by the terminal side device , the random access preamble on each uplink BWP to a network side device , wherein time resources corresponding to the uplink BWPs do not overlap.
An outflow valve assembly for installation on an aircraft having a fuselage, the outflow valve comprising: a valve door ; and a non-metallic frame to which the valve door is pivotally mounted, the non-metallic frame comprising: a frame body surrounding a central opening; an outer peripheral flange extending around at least a portion of the frame body, having an inboard side, and having an outboard side; elevated platform regions projecting from inboard side of the outer peripheral flange in a direction opposite the outboard side of the outer peripheral flange ; a first plurality of fastener openings formed through the elevated platform regions; base plates positioned over the elevated platform regions; wherein a plurality of frame attachment interfaces comprises recesses formed in an outboard side of the outer peripheral flange ; and raised features within the recesses and engaging a first plurality of fasteners to exert a preload thereon when the outflow valve is installed on the aircraft: and the first plurality of fasteners extending from the base plates through the first plurality of fastener openings to affix the outflow valve to the fuselage when the outflow valve assembly is installed on the aircraft. a valve door ; and a non-metallic frame to which the valve door is pivotally mounted, the non-metallic frame comprising: a frame body surrounding a central opening; an outer peripheral flange extending around at least a portion of the frame body, having an inboard side, and having an outboard side; a frame body surrounding a central opening; an outer peripheral flange extending around at least a portion of the frame body, having an inboard side, and having an outboard side; elevated platform regions projecting from inboard side of the outer peripheral flange in a direction opposite the outboard side of the outer peripheral flange ; a first plurality of fastener openings formed through the elevated platform regions; base plates positioned over the elevated platform regions; wherein a plurality of frame attachment interfaces comprises recesses formed in an outboard side of the outer peripheral flange ; and raised features within the recesses and engaging a first plurality of fasteners to exert a preload thereon when the outflow valve is installed on the aircraft: and the first plurality of fasteners extending from the base plates through the first plurality of fastener openings to affix the outflow valve to the fuselage when the outflow valve assembly is installed on the aircraft.
A device for testing blood plasma for cholesterol, including an inlet for blood plasma, at least one test region which includes a test for identifying high density lipoprotein (HDL) cholesterol, first and second opposing walls defining at least one channel , wherein said channel has a first end proximate the inlet and a second end proximate the test region, a transfer element which is formed of a material which allows capillary flow of blood plasma from the inlet along said channel to the test region, a reactant located in said channel which reacts with low density lipoprotein (LDL) cholesterol in said blood plasma, and prevents the LDL cholesterol from reaching the test region , wherein said channel has a multiplicity of corners on one or both of said walls, said corners defining a zigzag profile which affects the flow of blood plasma in order to promote the reaction of the plasma with said reactant. an inlet for blood plasma, at least one test region which includes a test for identifying high density lipoprotein (HDL) cholesterol, first and second opposing walls defining at least one channel , wherein said channel has a first end proximate the inlet and a second end proximate the test region, a transfer element which is formed of a material which allows capillary flow of blood plasma from the inlet along said channel to the test region, a reactant located in said channel which reacts with low density lipoprotein (LDL) cholesterol in said blood plasma, and prevents the LDL cholesterol from reaching the test region , wherein said channel has a multiplicity of corners on one or both of said walls, said corners defining a zigzag profile which affects the flow of blood plasma in order to promote the reaction of the plasma with said reactant.
A kitchen hood with a housing made of four lateral sides and an upper side of the hood, which hood is arranged above at least one row of thermal elements , wherein when arranged above one row of thermal elements , the kitchen hood is in the form of wall-mounted kitchen hood with a rear side and front side of the hood and has one group of filters arranged in two rows in the shape of the letter V in the central section of the hood approximately above the greatest stream of exhaust air, wherein the group of filters together with a basin separates the lower section of the hood to a front capturing space and a rear capturing space , and wherein the front side of the hood is designed in a way to form together with a lamp holder a narrow blowing-in slot having a height ranging from 2 to 10 mm, through which a small amount of fresh air is blown directly back into the hood, or wherein when arranged above two rows of centrally arranged thermal elements , said kitchen hood is in the form of double-sided island hood, said double-sided island hood having a first half which is identical with the wall-mounted hood with the exception that the rear side is not present and having a second half which is a mirror image of the first half of the hood with identical functions as the first half of the hood, such that said kitchen hood comprises a second group of filters arranged in two rows and arranged in the shape of the letter V, wherein said second group of filters is arranged symmetrically to the first group of filters above a second row of thermal elements approximately above the largest origin of exhaust air , wherein both groups of filters together with their basins separate the lower part of the hood into two front capturing spaces and and a central capturing part of the hood , and such that the front sides of the hood are designed in a way to form together with the lamp holders narrow blowing-in slots having a height ranging from 2 to 10 mm, through which a small amount of fresh air is blown directly back into the hood.
A method of forming an integrated structure, the method comprising the acts of: forming a shallow trench isolation region in an upper surface of a first substrate ; forming a photonics area on a second substrate ; bonding the first and second substrates together such that the upper surface of the first substrate faces the second substrate and the shallow trench isolation region is aligned with the photonics area , wherein the first and second substrates each comprise a silicon substrate, the photonics area being a silicon photonics area; forming a waveguide within the silicon photonics area of the bonded substrates, the waveguide including a waveguide core and cladding, with the waveguide core being aligned with the shallow trench isolation region of the bonded substrates; and prior to said bonding, forming a buried oxide, BOX, as part of said second substrate , which is beneath the silicon photonics area, wherein the combined thickness of the BOX and shallow trench isolation region is at least 1 μm, the bonded substrates forming a silicon-on-insulator structure. forming a shallow trench isolation region in an upper surface of a first substrate ; forming a photonics area on a second substrate ; bonding the first and second substrates together such that the upper surface of the first substrate faces the second substrate and the shallow trench isolation region is aligned with the photonics area , wherein the first and second substrates each comprise a silicon substrate, the photonics area being a silicon photonics area; forming a waveguide within the silicon photonics area of the bonded substrates, the waveguide including a waveguide core and cladding, with the waveguide core being aligned with the shallow trench isolation region of the bonded substrates; and prior to said bonding, forming a buried oxide, BOX, as part of said second substrate , which is beneath the silicon photonics area, wherein the combined thickness of the BOX and shallow trench isolation region is at least 1 μm, the bonded substrates forming a silicon-on-insulator structure.
A device for forming a circumferential groove in a pipe element having a longitudinal axis , said device comprising: a drive roller rotatable about a drive roller axis , said drive roller being engageable with an inner surface of said pipe element when said drive roller axis is oriented substantially parallel to said longitudinal axis of said pipe element ; a grooving roller rotatable about a grooving roller axis oriented substantially parallel to said drive roller axis , said grooving roller being movable toward and away from said drive roller so as to forcibly engage an outer surface of said pipe element so as to displace material of said pipe element and form said groove therein upon rotation of said pipe element ; characterized in that the device further comprises an idler roller rotatable about an idler roller axis oriented substantially parallel to said drive roller axis , said idler roller having a known diameter, said idler roller being movable toward and away from said drive roller so as to engage an outer surface of said pipe element so as to rotate upon rotation of said pipe element ; a first sensor for determining a degree of rotation of said idler roller and generating a first signal indicative thereof; a second sensor for determining a degree of rotation of said pipe element and generating a second signal indicative thereof; a control system adapted to receive said first and second signals, use said first and second signals to determine a diameter of said groove, and control motion of said grooving roller toward and away from said drive roller in response to said diameter of said groove. a drive roller rotatable about a drive roller axis , said drive roller being engageable with an inner surface of said pipe element when said drive roller axis is oriented substantially parallel to said longitudinal axis of said pipe element ; a grooving roller rotatable about a grooving roller axis oriented substantially parallel to said drive roller axis , said grooving roller being movable toward and away from said drive roller so as to forcibly engage an outer surface of said pipe element so as to displace material of said pipe element and form said groove therein upon rotation of said pipe element ; characterized in that the device further comprises an idler roller rotatable about an idler roller axis oriented substantially parallel to said drive roller axis , said idler roller having a known diameter, said idler roller being movable toward and away from said drive roller so as to engage an outer surface of said pipe element so as to rotate upon rotation of said pipe element ; a first sensor for determining a degree of rotation of said idler roller and generating a first signal indicative thereof; a second sensor for determining a degree of rotation of said pipe element and generating a second signal indicative thereof; a control system adapted to receive said first and second signals, use said first and second signals to determine a diameter of said groove, and control motion of said grooving roller toward and away from said drive roller in response to said diameter of said groove.
An insulated glass unit comprising: a first glass layer; a second glass layer; a third glass layer disposed between the first and second glass layers; a first sealed gap space defined between the first glass layer and the third glass layer; and a second sealed gap space defined between the second glass layer and the third glass layer; wherein the third glass layer has a coefficient of thermal expansion (CTE) over a temperature range 0-300°C of less than 70 × 10 -7 /°C and a thickness from 0.3 mm to 0.9 mm. a first glass layer; a second glass layer; a third glass layer disposed between the first and second glass layers; a first sealed gap space defined between the first glass layer and the third glass layer; and a second sealed gap space defined between the second glass layer and the third glass layer; wherein the third glass layer has a coefficient of thermal expansion (CTE) over a temperature range 0-300°C of less than 70 × 10 -7 /°C and a thickness from 0.3 mm to 0.9 mm.
Vedolizumab for use in treating a patient suffering from Inflammatory Bowel Disease (IBD), the use comprising either: a) in vitro measuring the concentration of albumin in a patient wherein the patient was administered an induction phase dosing regimen of vedolizumab at least two weeks prior; b) selecting the patient whose measurement of albumin in step a) is >3.2 g/dL; and c) administering vedolizumab to the selected patient, thereby treating IBD; or d) obtaining a serum sample from a patient who has received at least one dose of vedolizumab in the previous two months; e) in vitro measuring the concentration of albumin in the sample; and f) administering vedolizumab thereafter every eight weeks if the albumin concentration is >3.2 g/dL. a) in vitro measuring the concentration of albumin in a patient wherein the patient was administered an induction phase dosing regimen of vedolizumab at least two weeks prior; b) selecting the patient whose measurement of albumin in step a) is >3.2 g/dL; and c) administering vedolizumab to the selected patient, thereby treating IBD; or d) obtaining a serum sample from a patient who has received at least one dose of vedolizumab in the previous two months; e) in vitro measuring the concentration of albumin in the sample; and f) administering vedolizumab thereafter every eight weeks if the albumin concentration is >3.2 g/dL.
A container comprising a circumferential side wall and a base plate which is connected to the side wall in such a way that the base plate closes the container on one side, the side wall and the base plate delimiting an interior space and the container comprising a longitudinal axis extending perpendicular to the base plate , wherein the side wall and the base plate comprise paper, cardboard or paperboard, wherein the base plate comprises a stop for engaging an end face of the side wall , the stop preventing unwanted intrusion of the base plate into the interior space in a first direction parallel to the longitudinal axis , and wherein the base plate comprises at least one wall portion with a hook , wherein the wall portion with the hook extends into the interior space and the hook can be brought into engagement with a retaining element arranged on the side wall , wherein a motion of the base plate away from the side wall in a direction opposite to the first direction is limited by an engagement of the hook with the retaining element , characterised in that the hook is a tab portion projecting from the wall portion and bent along a fold line towards a portion of the side wall nearest to the hook . a circumferential side wall and a base plate which is connected to the side wall in such a way that the base plate closes the container on one side, the side wall and the base plate delimiting an interior space and the container comprising a longitudinal axis extending perpendicular to the base plate , wherein the side wall and the base plate comprise paper, cardboard or paperboard, wherein the base plate comprises a stop for engaging an end face of the side wall , the stop preventing unwanted intrusion of the base plate into the interior space in a first direction parallel to the longitudinal axis , and wherein the base plate comprises at least one wall portion with a hook , wherein the wall portion with the hook extends into the interior space and the hook can be brought into engagement with a retaining element arranged on the side wall , wherein a motion of the base plate away from the side wall in a direction opposite to the first direction is limited by an engagement of the hook with the retaining element ,