mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a fastening arrangement for fastening a tube to a collar, the method comprising steps of: a) providing a hollow tube, the tube having a material thickness (t) surrounding the circumference of the tube forming an inner surface towards the hollow of the tube and an outer surface facing radially outwards, characterized in that the method further comprises the steps of b) arranging said tube for receiving at least one forming punch in the axial direction of the tube, c) punching said tube with a forming punch at an inner radial part of an edge portion of the tube in the axial direction of the tube, locally reducing the tube thickness, so that the material being punched is plastically relocated from the edge portion to a location along the inner surface of the tube, locally forming a snap portion in the form of a flange in the radial direction towards the hollow inside of the tube, d) providing a collar configured to be arranged on said tube, wherein the collar comprises at least one receiving portion (21a-h) configured to receive said snap portion (11a-h), and e) arranging the collar to the tube such that the snap portion (11a-h) engages with said receiving portion (21a-h). a) providing a hollow tube, the tube having a material thickness (t) surrounding the circumference of the tube forming an inner surface towards the hollow of the tube and an outer surface facing radially outwards, characterized in that the method further comprises the steps of b) arranging said tube for receiving at least one forming punch in the axial direction of the tube, c) punching said tube with a forming punch at an inner radial part of an edge portion of the tube in the axial direction of the tube, locally reducing the tube thickness, so that the material being punched is plastically relocated from the edge portion to a location along the inner surface of the tube, locally forming a snap portion in the form of a flange in the radial direction towards the hollow inside of the tube, d) providing a collar configured to be arranged on said tube, wherein the collar comprises at least one receiving portion (21a-h) configured to receive said snap portion (11a-h), and e) arranging the collar to the tube such that the snap portion (11a-h) engages with said receiving portion (21a-h).
A compound having the structure of formula: wherein the C 2-4 alkyl is selected from the group consisting of ethyl, isopropyl, n-propyl, butyl, and t-butyl, or an N-oxide, crystalline form, hydrate, or pharmaceutically acceptable salt thereof. wherein the C 2-4 alkyl is selected from the group consisting of ethyl, isopropyl, n-propyl, butyl, and t-butyl, or an N-oxide, crystalline form, hydrate, or pharmaceutically acceptable salt thereof.
A method of data communication, comprising: obtaining resource unit information associated with a physical uplink shared channel, PUSCH, wherein the resource unit information comprises at least one of time resource unit information and frequency resource unit information; determining an identifier at least in part based on the resource unit information, wherein the identifier is a grant-free radio network temporary identifier, GF-RNTI, and the identifier is a function of at least one of the time resource unit information and frequency resource unit information; and using the identifier for transmission of the physical uplink shared channel, PUSCH, or obtaining resource unit information associated with a physical random access channel, PRACH, wherein the resource unit information comprises at least one of time resource unit information and frequency resource unit information; determining an identifier at least in part based on the resource unit information, wherein the identifier is a grant-free radio network temporary identifier, GF-RNTI, and the identifier is a function of at least one of the time resource unit information and frequency resource unit information; and using the identifier for transmission of a physical uplink shared channel, PUSCH. the resource unit information comprises at least one of time resource unit information and frequency resource unit information; determining an identifier at least in part based on the resource unit information, wherein the identifier is a grant-free radio network temporary identifier, GF-RNTI, and the identifier is a function of at least one of the time resource unit information and frequency resource unit information; and using the identifier for transmission of the physical uplink shared channel, PUSCH, or obtaining resource unit information associated with a physical random access channel, PRACH, wherein the resource unit information comprises at least one of time resource unit information and frequency resource unit information; determining an identifier at least in part based on the resource unit information, wherein the identifier is a grant-free radio network temporary identifier, GF-RNTI, and the identifier is a function of at least one of the time resource unit information and frequency resource unit information; and using the identifier for transmission of a physical uplink shared channel, PUSCH.
A direct drive wind turbine comprising a bearing with a lubricant collection system, wherein the bearing comprises - a first bearing component with a first contact face and a first front face coupled with the first contact face; - a second bearing component with a second contact face and a second front face coupled with the second contact face, the first bearing component and the second bearing component being movable relative to each other; wherein - the first contact face and the second contact face are prepared and arranged in a way to accommodate a lubricant; - the bearing comprises a scraper, which is attached to the first front face and is in contact with the second front face; and - the scraper is arranged and prepared in a way - to scrape off the lubricant which escapes from in-between the first contact face and the second contact face and adheres to the second front face; and - to guide the lubricant to a lubricant collection device by means of gravitational force. - a first bearing component with a first contact face and a first front face coupled with the first contact face; - a second bearing component with a second contact face and a second front face coupled with the second contact face, the first bearing component and the second bearing component being movable relative to each other; - the first contact face and the second contact face are prepared and arranged in a way to accommodate a lubricant; - the bearing comprises a scraper, which is attached to the first front face and is in contact with the second front face; and - the scraper is arranged and prepared in a way - to scrape off the lubricant which escapes from in-between the first contact face and the second contact face and adheres to the second front face; and - to guide the lubricant to a lubricant collection device by means of gravitational force.
A data processing method, comprising: receiving, by a first device, a mapping relationship between a first flow and a second radio bearer, RB, from a second device, wherein the first device is a first terminal, and the second device is an access network device or a second terminal; determining, by the first device, that an RB to which the first flow is mapped changes from a first RB to the second RB according to the mapping relationship between the first flow and the second RB; and sending, by the first device, end indication information to the second device through the first RB, the end indication information is used to indicate to the second device that the sending of data packets of the first flow through the first RB has been completed; wherein before receiving the mapping relationship between the first flow and the second RB, the first flow is mapped to the first RB. receiving, by a first device, a mapping relationship between a first flow and a second radio bearer, RB, from a second device, wherein the first device is a first terminal, and the second device is an access network device or a second terminal; determining, by the first device, that an RB to which the first flow is mapped changes from a first RB to the second RB according to the mapping relationship between the first flow and the second RB; and sending, by the first device, end indication information to the second device through the first RB, the end indication information is used to indicate to the second device that the sending of data packets of the first flow through the first RB has been completed; wherein before receiving the mapping relationship between the first flow and the second RB, the first flow is mapped to the first RB.
A method for providing failover connection mirroring between multi-core devices intermediary between a client and a server, the method being characterized by: (a) receiving, by a first multi-core device intermediary between a client and a server, from a second multi-core device, a hash key of the second multi-core device, the hash key used by the second multi-core device for determining to which cores to distribute packets received by the second multi-core device; (b) identifying, by the first multi-core device, a core of the second multi-core device using (i) the hash key of the second multi-core device and (ii) tuple information corresponding to a connection between the client and the server via the first multi-core device; (c) determining, by the first multi-core device, that the identified core of the second multi-core device is not a target core for providing a failover connection between the client and the server; (d) modifying, by the first multi-core device, the tuple information so as to identify the target core when used with the hash key of the second multi-core device; and (e) communicating, by the first multi-core device, the modified tuple information to the second multi-core device in order to establish the failover connection in the second multi-core device. (a) receiving, by a first multi-core device intermediary between a client and a server, from a second multi-core device, a hash key of the second multi-core device, the hash key used by the second multi-core device for determining to which cores to distribute packets received by the second multi-core device; (b) identifying, by the first multi-core device, a core of the second multi-core device using (i) the hash key of the second multi-core device and (ii) tuple information corresponding to a connection between the client and the server via the first multi-core device; (c) determining, by the first multi-core device, that the identified core of the second multi-core device is not a target core for providing a failover connection between the client and the server; (d) modifying, by the first multi-core device, the tuple information so as to identify the target core when used with the hash key of the second multi-core device; and (e) communicating, by the first multi-core device, the modified tuple information to the second multi-core device in order to establish the failover connection in the second multi-core device.
A torch for plasma processing, wherein the torch is suitable to be used in a process selected from the group of metal inert gas welding, metal active gas welding, tungsten inert gas welding, plasma arc welding and plasma cutting, marking and spraying, the torch comprising a torch body, a nozzle and ar electrode wherein at least two components of the torch are connected to each other in an electrically conducting manner, characterized in that at least two of the components are connected to each other via at least one electrically conductive and elastically deformable sealing member.
A modified colorant comprising a pigment having attached at least one organic group, wherein the organic group has a calcium index value greater than a calcium index value of 1,2,3-benzene tricarboxylic acid and comprises at least one group having the formula -CQ(PO 3 H 2) 2 or salts thereof, wherein Q is H, R, OR, SR, or NR 2 wherein R, which can be the same or different, is H, a C1-C18 alkyl group, a C1-C18 acyl group, an aralkyl group, an alkaryl group, or an aryl group.
Agricultural machine comprising a first frame part and a second frame part pivotably arranged about a vertical shaft relative to the first frame part, comprising at least one first supply line which extends along the first frame part and at least one second supply line which extends along the second frame part, wherein a connecting device is provided, by means of which the at least first supply line and the at least second supply line (20, 22) are connected together, characterized in that the connecting device comprises a retainer on which at least one rigid pipe connection is arranged for connecting the first and second supply lines (20, 22), wherein the pipe connection comprises two connecting ends (36, 38) aligned axially relative to one another, between which a bearing disc is clamped, wherein the bearing disc is rotatably mounted in the peripheral direction thereof on the retainer.
A demagnetization device, comprising terminals (31, 32) for the detachable connection of the demagnetization device to a primary side of a transformer (10, 20), a source (41; 111, 113, 114) which is configured to feed via the terminals (31, 32) an alternating signal (70; 75; 78; 80; 85; 88) to the primary side of the transformer (10, 20) for a demagnetization of a transformer core (13, 23) of the transformer (10, 20), characterized by a measuring device for detecting a response of the transformer (10, 20) to the alternating signal (70; 75; 78; 80; 85; 88), wherein the demagnetization device is configured to vary the alternating signal (70; 75; 78; 80; 85; 88) in accordance with the response detected by the measuring device.
A method of recognizing and evaluating pen positions of an electronic pen (100, 200, 300) with inertial measurement sensors during writing on a two-dimensional writing substrate (108, 205), comprising initially specifying a writing coordinate system with two axes X, Y (101, 102, 201, 202), which are orthogonal to each other, on the writing substrate (108, 205) and an axis Z perpendicular to the two-dimensional writing substrate (108, 205), the X axis (101, 201) defining e.g. the predominant writing direction, and the writing substrate coordinates x, y being defined with respect to said writing coordinate system, compensating an undesirable drift in the pen position signal of the electronic pen to be output, and being characterised by comprising: executing in parallel a coordinate transformation of the azimuthal angle ε (105, 203) and of the inclination angle γ of the electronic pen (100, 200, 300) into writing substrate coordinates x, y for the values of the azimuthal angle ε (105, 203) and of the inclination angle γ determined from the inertial measurement sensors as well as for a plurality of additional predeterminable values of the azimuthal angle ε (105, 203) and the inclination angle γ, comprising determining the optimum linear combination of the values of the azimuthal angle ε (105, 203) and of the inclination angle γ at which a minimum deviation of an ascertained acceleration of the electronic pen in the Z direction from a predetermined, expected acceleration in the Z direction is accomplished, and selecting the determined values of the azimuthal angle ε (105, 203) and of the inclination angle γ, which result in a minimum deviation of an ascertained acceleration of the electronic pen in the Z direction from a predetermined, expected acceleration in the Z direction, for correcting a pen position signal to be output. executing in parallel a coordinate transformation of the azimuthal angle ε (105, 203) and of the inclination angle γ of the electronic pen (100, 200, 300) into writing substrate coordinates x, y for the values of the azimuthal angle ε (105, 203) and of the inclination angle γ determined from the inertial measurement sensors as well as for a plurality of additional predeterminable values of the azimuthal angle ε (105, 203) and the inclination angle γ, comprising determining the optimum linear combination of the values of the azimuthal angle ε (105, 203) and of the inclination angle γ at which a minimum deviation of an ascertained acceleration of the electronic pen in the Z direction from a predetermined, expected acceleration in the Z direction is accomplished, and selecting the determined values of the azimuthal angle ε (105, 203) and of the inclination angle γ, which result in a minimum deviation of an ascertained acceleration of the electronic pen in the Z direction from a predetermined, expected acceleration in the Z direction, for correcting a pen position signal to be output.
A glass laminate including an outer glass sheet having a first outer surface and a second inner surface, an inner chemically strengthened glass sheet having a third outer surface and a fourth inner surface, and a polymer interlayer between the outer second inner surface of the outer glass sheet and the third outer surface of the inner glass sheet, characterized by: at least one of the inner glass sheet and the outer glass sheet has a thickness not exceeding 2 mm or less; at least one of the second surface and the fourth surface is acid etched; the outer third surface of the inner glass sheet has flaws therein to weaken the glass laminated in the event of an internal impact on the inner fourth surface; and the flaws in the third outer surface are mechanically formed or laser created using a pico second laser or femto second laser and have a depth of 20% or more but less than 100% of a depth of layer of compressive stress in the inner glass sheet. at least one of the inner glass sheet and the outer glass sheet has a thickness not exceeding 2 mm or less; at least one of the second surface and the fourth surface is acid etched; the outer third surface of the inner glass sheet has flaws therein to weaken the glass laminated in the event of an internal impact on the inner fourth surface; and the flaws in the third outer surface are mechanically formed or laser created using a pico second laser or femto second laser and have a depth of 20% or more but less than 100% of a depth of layer of compressive stress in the inner glass sheet.
A method of tagging a first library comprising an oligonucleotide-encoded chemical entity, said method comprising: (i) providing a headpiece consisting of a single-stranded oligonucleotide having a first functional group and a second functional group, wherein said headpiece comprises at least one terminal 2'-substituted nucleotide comprising said second functional group, wherein said headpiece comprises a 2'-substituted nucleotide at the 5'-terminus and/or the 3'-terminus; (ii) binding said first functional group of said headpiece to a first component of said chemical entity, wherein said headpiece is directly connected to said first component or said headpiece is indirectly connected to said first component by a bifunctional linker; and (iii) ligating said second functional group of said headpiece to a first building block tag consisting of a single-stranded oligonucleotide to form a complex, wherein the first building block tag comprises a terminal 2'-substituted nucleotide at the 5'-terminus and 3'-terminus and the ligating comprises enzymatic ligation; wherein said steps (ii) and (iii) can be performed in any order and wherein said first building block tag encodes for the binding reaction of said step (ii), thereby providing a tagged library. (i) providing a headpiece consisting of a single-stranded oligonucleotide having a first functional group and a second functional group, wherein said headpiece comprises at least one terminal 2'-substituted nucleotide comprising said second functional group, wherein said headpiece comprises a 2'-substituted nucleotide at the 5'-terminus and/or the 3'-terminus; (ii) binding said first functional group of said headpiece to a first component of said chemical entity, wherein said headpiece is directly connected to said first component or said headpiece is indirectly connected to said first component by a bifunctional linker; and (iii) ligating said second functional group of said headpiece to a first building block tag consisting of a single-stranded oligonucleotide to form a complex, wherein the first building block tag comprises a terminal 2'-substituted nucleotide at the 5'-terminus and 3'-terminus and the ligating comprises enzymatic ligation;
A system comprising: a display configured to display: 3D image data of a target area, the 3D image data including locations of fiducial markers, first 2D image data of the target imaged from a first viewpoint, and second 2D image data of the target imaged from a second viewpoint, the second viewpoint oriented at a known angle from the first viewpoint; a computing device including a processor and a memory storing instructions which, when executed by the processor, cause the computing device to: determine locations of the fiducial markers in 3D space according to locations of the fiducial markers within first 2D image data, second 2D image data, and the known angle; and update the 3D image data with the determined locations of the fiducial markers in 3D space. a display configured to display: 3D image data of a target area, the 3D image data including locations of fiducial markers, first 2D image data of the target imaged from a first viewpoint, and second 2D image data of the target imaged from a second viewpoint, the second viewpoint oriented at a known angle from the first viewpoint; 3D image data of a target area, the 3D image data including locations of fiducial markers, first 2D image data of the target imaged from a first viewpoint, and second 2D image data of the target imaged from a second viewpoint, the second viewpoint oriented at a known angle from the first viewpoint; a computing device including a processor and a memory storing instructions which, when executed by the processor, cause the computing device to: determine locations of the fiducial markers in 3D space according to locations of the fiducial markers within first 2D image data, second 2D image data, and the known angle; and update the 3D image data with the determined locations of the fiducial markers in 3D space. determine locations of the fiducial markers in 3D space according to locations of the fiducial markers within first 2D image data, second 2D image data, and the known angle; and update the 3D image data with the determined locations of the fiducial markers in 3D space.
Die (1, 30) for HF welding of an insertion piece (12, 34) together with two films (7, 8, 35) to form a bag, with an upper die (2, 32), a lower die and several central electrodes (4, 33), characterized in that each of the central electrodes (4, 33) has several electrodes (5, 6) which are embodied as different electrodes (5, 6) and connected to the die (1, 30) such that they can receive different polarities.
A distal shaft for measuring a pressure distal (P d) of a stenosis, the distal shaft comprising: a housing; a pressure sensor mounted in the housing; a cover coupled to the housing and covering the pressure sensor; a tip coupled to a distal end of the housing; and an aperture disposed through the tip and/or the cover, the aperture configured to allow blood flow to the pressure sensor; and wherein the cover is a separate piece than the housing and is coupled thereto; wherein the housing includes a guidewire lumen; and characterized in that the housing comprises a first material and the cover comprises a second material, wherein the second material is stiffer than the first material. a housing; a pressure sensor mounted in the housing; a cover coupled to the housing and covering the pressure sensor; a tip coupled to a distal end of the housing; and an aperture disposed through the tip and/or the cover, the aperture configured to allow blood flow to the pressure sensor; and wherein the cover is a separate piece than the housing and is coupled thereto; wherein the housing includes a guidewire lumen; and characterized in that the housing comprises a first material and the cover comprises a second material, wherein the second material is stiffer than the first material.