mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a three-dimensional object , the method comprising the steps of: (a) producing an intermediate object from a dual cure polymerizable liquid by additive manufacturing, the intermediate object having a shape of the three-dimensional object in warped or distorted form; (b) optionally washing said intermediate object ; then (c) contacting said intermediate object to a form , which form has a shape corresponding to said three-dimensional object , and with said intermediate object conformed to the shape of said form ; then (d) further curing said intermediate object in contact with said form to produce said three-dimensional object under conditions in which said three-dimensional object retains a shape conformed to said form after separating therefrom; and then (e) separating said three-dimensional object from said form , wherein at least a portion of both said intermediate object and said three-dimensional object is in the configuration of a lattice or mesh. (a) producing an intermediate object from a dual cure polymerizable liquid by additive manufacturing, the intermediate object having a shape of the three-dimensional object in warped or distorted form; (b) optionally washing said intermediate object ; then (c) contacting said intermediate object to a form , which form has a shape corresponding to said three-dimensional object , and with said intermediate object conformed to the shape of said form ; then (d) further curing said intermediate object in contact with said form to produce said three-dimensional object under conditions in which said three-dimensional object retains a shape conformed to said form after separating therefrom; and then (e) separating said three-dimensional object from said form ,
Data transmission cable that can be customized having - a plurality of core pairs that each comprise a pair of cores that are twisted with one another, - an inner sheath that encases the core pairs , - a braid shield that surrounds the inner sheath , - an outer sheath of the data transmission cable, said outer sheath encasing the braid shield , characterized in that - the core pairs are oriented with respect to one another by means of a central supporting element , wherein the central supporting element is surrounded by the core pairs and lies against said core pairs, - a plurality of bundles of supporting element threads are arranged spaced apart equally in the peripheral direction around the core pairs , wherein each bundle of supporting element threads is arranged lying against two respective core pairs that are adjacent to one another and wherein the core pairs are fixed in position with respect to one another on the one hand by means of the central supporting element and on the other hand by means of the bundles of supporting element threads, - the inner sheath encases the bundles of supporting element threads and the core pairs . - a plurality of core pairs that each comprise a pair of cores that are twisted with one another, - an inner sheath that encases the core pairs , - a braid shield that surrounds the inner sheath , - an outer sheath of the data transmission cable, said outer sheath encasing the braid shield , - the core pairs are oriented with respect to one another by means of a central supporting element , wherein the central supporting element is surrounded by the core pairs and lies against said core pairs, - a plurality of bundles of supporting element threads are arranged spaced apart equally in the peripheral direction around the core pairs , wherein each bundle of supporting element threads is arranged lying against two respective core pairs that are adjacent to one another and wherein the core pairs are fixed in position with respect to one another on the one hand by means of the central supporting element and on the other hand by means of the bundles of supporting element threads, - the inner sheath encases the bundles of supporting element threads and the core pairs .
An impingement sleeve for insertion within a turbine nozzle , said impingement sleeve comprising: a body portion separating an inner region and an outer region ; an aperture in the body portion , the aperture fluidly connecting the inner region to the outer region ; and a conduit extending from an outer surface of the body portion at the aperture and being arranged and disposed to controllably direct fluid from the inner region to the outer region , characterised in that the cross-sectional geometry of an interior surface of the conduit is a star shaped cross-sectional geometry, that extends a non-round geometry of the aperture . a body portion separating an inner region and an outer region ; an aperture in the body portion , the aperture fluidly connecting the inner region to the outer region ; and a conduit extending from an outer surface of the body portion at the aperture and being arranged and disposed to controllably direct fluid from the inner region to the outer region , characterised in that the cross-sectional geometry of an interior surface of the conduit is a star shaped cross-sectional geometry, that extends a non-round geometry of the aperture .
Powder-metallurgical sintered molybdenum part which is present as solid body from a composition consisting of the following amounts: a. a molybdenum content of ≥ 99.93% by weight, b. a boron content "B" of ≥ 3 ppmw and a carbon content "C" of ≥ 3 ppmw, with the total content "BaC" of carbon and boron being in the range of 15 ppmw ≤ "BaC" ≤ 50 ppmw, c. an oxygen content "O" in the range of 3 ppmw ≤ "O" ≤ 20 ppmw, d. a maximum tungsten content of ≤ 330 ppmw and e. a maximum proportion of other impurities of ≤ 300 ppmw, wherein preferably the maximum proportion of contamination by zirconium (Zr), hafnium (Hf), titanium (Ti), vanadium (V) and aluminium (Al) is ≤ 50 ppmw in total, and preferably the maximum proportion of contamination by silicon (Si), rhenium (Re) and potassium (K) is ≤ 20 ppmw in total. a. a molybdenum content of ≥ 99.93% by weight, b. a boron content "B" of ≥ 3 ppmw and a carbon content "C" of ≥ 3 ppmw, with the total content "BaC" of carbon and boron being in the range of 15 ppmw ≤ "BaC" ≤ 50 ppmw, c. an oxygen content "O" in the range of 3 ppmw ≤ "O" ≤ 20 ppmw, d. a maximum tungsten content of ≤ 330 ppmw and e. a maximum proportion of other impurities of ≤ 300 ppmw, wherein preferably the maximum proportion of contamination by zirconium (Zr), hafnium (Hf), titanium (Ti), vanadium (V) and aluminium (Al) is ≤ 50 ppmw in total, and preferably the maximum proportion of contamination by silicon (Si), rhenium (Re) and potassium (K) is ≤ 20 ppmw in total.
A secondary battery comprising: a plurality of electrode assemblies each including a first electrode tab and a second electrode tab ; a case accommodating the plurality of electrode assemblies , the case having an opening; a cap plate coupled to the case at the opening in the case; a first current collector electrically connected to the first electrode tab of each of the plurality of electrode assemblies ; a second current collector electrically connected to the second electrode tab of each of the plurality of electrode assemblies; and a first plurality of sub-tabs comprising a first sub-tab and a second sub-tab , the first sub-tab being coupled to the first electrode tab of a first electrode assembly of the plurality of electrode assemblies, the second sub-tab being coupled to the first electrode tab of a second electrode assembly of the plurality of electrode assemblies, wherein the first current collector includes a first region and a second region inwardly recessed relative to the first region , wherein the first sub-tab is bent along a first boundary to be contacted with an outer surface of the second region of the first current collector , the first boundary being between the first sub-tab and one of the first and second current collectors, and wherein the second sub-tab is bent along a second boundary to be contacted with an outer surface of the second region of the first current collector , the second boundary being between the second sub-tab and the one of the first and second current collectors. a plurality of electrode assemblies each including a first electrode tab and a second electrode tab ; a case accommodating the plurality of electrode assemblies , the case having an opening; a cap plate coupled to the case at the opening in the case; a first current collector electrically connected to the first electrode tab of each of the plurality of electrode assemblies ; a second current collector electrically connected to the second electrode tab of each of the plurality of electrode assemblies; and a first plurality of sub-tabs comprising a first sub-tab and a second sub-tab , the first sub-tab being coupled to the first electrode tab of a first electrode assembly of the plurality of electrode assemblies, the second sub-tab being coupled to the first electrode tab of a second electrode assembly of the plurality of electrode assemblies, wherein the first current collector includes a first region and a second region inwardly recessed relative to the first region , wherein the first sub-tab is bent along a first boundary to be contacted with an outer surface of the second region of the first current collector , the first boundary being between the first sub-tab and one of the first and second current collectors, and wherein the second sub-tab is bent along a second boundary to be contacted with an outer surface of the second region of the first current collector , the second boundary being between the second sub-tab and the one of the first and second current collectors.
Assembly having a first oil line , a second oil line , a third oil line , and a cavity ; wherein the first oil line , the second oil line , and the third oil line each have an opening into the cavity ; wherein a plate with a continuous first bore and a continuous second bore ; wherein the plate is disposed in the cavity in such a way that said plate covers the openings of the second oil line and of the third oil line ; wherein the first bore fluidically interconnects the second oil line and the cavity ; and wherein the second bore fluidically interconnects the third oil line and the cavity ; characterized by a component and a cover ; wherein the component has a depression ; wherein the cover covers the depression ; and wherein the openings of the second oil line and of the third oil line lie in the depression . the first oil line , the second oil line , and the third oil line each have an opening into the cavity ; wherein a plate with a continuous first bore and a continuous second bore ; wherein the plate is disposed in the cavity in such a way that said plate covers the openings of the second oil line and of the third oil line ; wherein the first bore fluidically interconnects the second oil line and the cavity ; and wherein the second bore fluidically interconnects the third oil line and the cavity ; characterized by a component and a cover ; wherein the component has a depression ; wherein the cover covers the depression ; and wherein the openings of the second oil line and of the third oil line lie in the depression .
A multilayer collation shrink film comprising at least the following layers: A) a layer comprising at least the following components: a1) a multimodal polymer of ethylene with at least two different comonomers selected from alpha-olefins having from 4 to 10 carbon atoms, which multimodal polymer of ethylene has a density in the range from 910 to 935 kg/m 3 , and a Mw/Mn of 2 to 8; a2) a multimodal terpolymer of ethylene and two alpha olefin comonomers wherein the multimodal terpolymer has a density in the range from 930 to 950 kg/m 3 and a Mw/Mn of 10 to 20; and a3) LDPE; B) a layer comprising at least the following components: b1) recycled LDPE; and b2) a multimodal terpolymer of ethylene and two alpha olefin comonomers wherein the multimodal terpolymer has a density in the range from 930 to 950 kg/m 3 and a Mw/Mn of 10 to 20. A) a layer comprising at least the following components: a1) a multimodal polymer of ethylene with at least two different comonomers selected from alpha-olefins having from 4 to 10 carbon atoms, which multimodal polymer of ethylene has a density in the range from 910 to 935 kg/m 3 , and a Mw/Mn of 2 to 8; a2) a multimodal terpolymer of ethylene and two alpha olefin comonomers wherein the multimodal terpolymer has a density in the range from 930 to 950 kg/m 3 and a Mw/Mn of 10 to 20; and a3) LDPE; a1) a multimodal polymer of ethylene with at least two different comonomers selected from alpha-olefins having from 4 to 10 carbon atoms, which multimodal polymer of ethylene has a density in the range from 910 to 935 kg/m 3 , and a Mw/Mn of 2 to 8; a2) a multimodal terpolymer of ethylene and two alpha olefin comonomers wherein the multimodal terpolymer has a density in the range from 930 to 950 kg/m 3 and a Mw/Mn of 10 to 20; and a3) LDPE; B) a layer comprising at least the following components: b1) recycled LDPE; and b2) a multimodal terpolymer of ethylene and two alpha olefin comonomers wherein the multimodal terpolymer has a density in the range from 930 to 950 kg/m 3 and a Mw/Mn of 10 to 20. b1) recycled LDPE; and b2) a multimodal terpolymer of ethylene and two alpha olefin comonomers wherein the multimodal terpolymer has a density in the range from 930 to 950 kg/m 3 and a Mw/Mn of 10 to 20.
A torque vectoring device comprising: a torque vectoring motor ; a sun gear (S) connected to the torque vectoring motor; a plurality of planetary gears (P) provided at an outer peripheral side of the sun gear and engaged therewith; a carrier (C) which pivotally supports the plurality of planetary gears; a ring gear (R) provided at an outer peripheral side of the plurality of planetary gears and engaged therewith; and a differential which includes an input member (R) to which a drive torque is inputted; a first output member (Sd) to which the carrier is connected and at the same time connected to one of a right drive wheel and a left drive wheel; and a second output member (Cd) to which the ring gear is connected and at the same time connected to the other of the right drive wheel and the left drive wheel, wherein the differential absorbs a rotational speed difference between the right drive wheel and the left drive wheel. a torque vectoring motor ; a sun gear (S) connected to the torque vectoring motor; a plurality of planetary gears (P) provided at an outer peripheral side of the sun gear and engaged therewith; a carrier (C) which pivotally supports the plurality of planetary gears; a ring gear (R) provided at an outer peripheral side of the plurality of planetary gears and engaged therewith; and a differential which includes an input member (R) to which a drive torque is inputted; a first output member (Sd) to which the carrier is connected and at the same time connected to one of a right drive wheel and a left drive wheel; and a second output member (Cd) to which the ring gear is connected and at the same time connected to the other of the right drive wheel and the left drive wheel, wherein the differential absorbs a rotational speed difference between the right drive wheel and the left drive wheel.
A method for wireless communication, comprising: receiving a codeword over a wireless channel, wherein the codeword is encoded from a plurality of information bits using a polar code with a plurality of stages of polarization; identifying a set of bit locations of the polar code for the plurality of information bits; and decoding the received codeword according to the polar code to obtain an information bit vector at the set of bit locations; wherein identifying comprises partitioning of bit-channels based on a reliability metric at a first stage of polarization (405-a) into two partitions (415-a, 415-b) at a second stage of polarization (405-b) and assigning information bits of the first stage of polarization to said partitions based on a binary partition assignment vector associated with the first stage of polarization; and recursively partitioning each of the obtained partitions (415-a, 415-b) of the second stage of polarization (405-b) based on the reliability metric into two partitions at a next polarization stage (405-c, 405-d) until the partitions include a predetermined number of bit channels, wherein each stage of polarization (405-b, 405-c) is associated with a respective binary partition assignment vector, and wherein at each stage of polarization the respective binary partition assignment vector is applied for each partition at the each stage of polarization to assign a number of information bits of the each partition to the respective two partitions at the next stage. receiving a codeword over a wireless channel, wherein the codeword is encoded from a plurality of information bits using a polar code with a plurality of stages of polarization; identifying a set of bit locations of the polar code for the plurality of information bits; and decoding the received codeword according to the polar code to obtain an information bit vector at the set of bit locations; wherein identifying comprises partitioning of bit-channels based on a reliability metric at a first stage of polarization (405-a) into two partitions (415-a, 415-b) at a second stage of polarization (405-b) and assigning information bits of the first stage of polarization to said partitions based on a binary partition assignment vector associated with the first stage of polarization; and recursively partitioning each of the obtained partitions (415-a, 415-b) of the second stage of polarization (405-b) based on the reliability metric into two partitions at a next polarization stage (405-c, 405-d) until the partitions include a predetermined number of bit channels, wherein each stage of polarization (405-b, 405-c) is associated with a respective binary partition assignment vector, and wherein at each stage of polarization the respective binary partition assignment vector is applied for each partition at the each stage of polarization to assign a number of information bits of the each partition to the respective two partitions at the next stage.
A high-strength seamless steel pipe having a chemical composition of, in mass %: 0.10 to 0.18 % C; 0.03 to 1.0 % Si; 0.5 to 2.0 % Mn; up to 0.020 % P; up to 0.0060 % S; 0.10 to 0.60 % Cr; 0.10 to 0.40 % Mo; 0.02 to 0.40 % V; 0.004 to 0.020 % Ti; 0.0005 to 0.005 % B; up to 0.10 % Al; up to 0.008 % N; 0.0004 to 0.0040 % Ca; 0.1 to 1.0 % Cu; 0.2 to 0.8 % Ni; 0 to 0.05 % Nb; and the balance being Fe and impurities, wherein the following formula, F , is satisfied: C + Si / 30 + Mn + Cu + Cr / 20 + Ni / 60 + Mo / 15 + V / 10 + 5 × B ≤ 0.28 wherein, for the element symbols in F , the contents of the corresponding elements in mass % are substituted, the pipe has a wall thickness of 30 mm or larger, the pipe has a yield strength of 555 MPa or higher and a tensile strength of 625 MPa or higher, and a hardness of surface layers is 250 Hv or lower as measured in accordance with JIS Z 2244 at a position 1 mm from the inner surface of the steel pipe and at a position 1mm from the outer surface of the steel pipe. 0.10 to 0.18 % C; 0.03 to 1.0 % Si; 0.5 to 2.0 % Mn; up to 0.020 % P; up to 0.0060 % S; 0.10 to 0.60 % Cr; 0.10 to 0.40 % Mo; 0.02 to 0.40 % V; 0.004 to 0.020 % Ti; 0.0005 to 0.005 % B; up to 0.10 % Al; up to 0.008 % N; 0.0004 to 0.0040 % Ca; 0.1 to 1.0 % Cu; 0.2 to 0.8 % Ni; 0 to 0.05 % Nb; and the balance being Fe and impurities, wherein the following formula, F , is satisfied: C + Si / 30 + Mn + Cu + Cr / 20 + Ni / 60 + Mo / 15 + V / 10 + 5 × B ≤ 0.28 wherein, for the element symbols in F , the contents of the corresponding elements in mass % are substituted, the pipe has a wall thickness of 30 mm or larger, the pipe has a yield strength of 555 MPa or higher and a tensile strength of 625 MPa or higher, and a hardness of surface layers is 250 Hv or lower as measured in accordance with JIS Z 2244 at a position 1 mm from the inner surface of the steel pipe and at a position 1mm from the outer surface of the steel pipe.
An X-ray CT apparatus comprising: an X-ray source; a wedge which is disposed between an X-ray source and a detector for adjusting an X-ray dose distribution applied to a subject; a shield for blocking a part of an X ray is formed on the wedge ; a driving unit for moving position of the wedge with the shield ; and a system control unit for controlling the driving unit during a scan execution period to move the position of the wedge with the shield in a slice thickness direction within an area necessary for reconstruction of the image for medical use; characterised in that : the driving unit is configured to control the wedge to a first position where an X ray, which spreads in a slice thickness direction of the X-ray source , unnecessary for reconstruction of an image for medical use is blocked in a non-reconstruction range at the start of the scan execution period, and control the wedge to move to a wedge center position so as not to block the X ray in a reconstruction range of the image for medical use, and further control the wedge to move to a second position where an X ray unnecessary for reconstruction of the image for medical use is blocked in a non-reconstruction range at the end of the scan through the area. an X-ray source; a wedge which is disposed between an X-ray source and a detector for adjusting an X-ray dose distribution applied to a subject; a shield for blocking a part of an X ray is formed on the wedge ; a driving unit for moving position of the wedge with the shield ; and a system control unit for controlling the driving unit during a scan execution period to move the position of the wedge with the shield in a slice thickness direction within an area necessary for reconstruction of the image for medical use; characterised in that : the driving unit is configured to control the wedge to a first position where an X ray, which spreads in a slice thickness direction of the X-ray source , unnecessary for reconstruction of an image for medical use is blocked in a non-reconstruction range at the start of the scan execution period, and control the wedge to move to a wedge center position so as not to block the X ray in a reconstruction range of the image for medical use, and further control the wedge to move to a second position where an X ray unnecessary for reconstruction of the image for medical use is blocked in a non-reconstruction range at the end of the scan through the area.