mhurhangee/patent-ind-claim-en huggingface dataset:
A method for additive manufacturing, the method comprising: combining an amine-functionalized substrate with an epoxide-functionalized substrate to form a first combination , wherein the amine-functionalized substrate is provided as a first substrate treated with a first plasma , and the epoxide-functionalized substrate is provided as a second substrate treated with a second plasma ; thermocycling the first combination , wherein covalent bonds are formed by dehydration reactions (as shown moving from Fig. 7 to Fig. 8) between amine chemical moieties of the amine-functionalized substrate and epoxide chemical moieties of the epoxide-functionalized substrate ; and forming successive combinations (plural application of 140, 700) of amine-functionalized substrate (plural application of 132, 500) and epoxide-functionalized substrate (plural application of 136, 600), wherein each successive combination (plural application of 140, 700) is thermocycled to form successive covalent bonds (plural application of 430) with an immediately preceding combination wherein: the first plasma is generated from at least one of: ammonia ; molecular nitrogen ; or molecular nitrogen and molecular hydrogen ; and the second plasma is generated from at least one of: molecular oxygen ; or carbon dioxide . combining an amine-functionalized substrate with an epoxide-functionalized substrate to form a first combination , wherein the amine-functionalized substrate is provided as a first substrate treated with a first plasma , and the epoxide-functionalized substrate is provided as a second substrate treated with a second plasma ; thermocycling the first combination , wherein covalent bonds are formed by dehydration reactions (as shown moving from Fig. 7 to Fig. 8) between amine chemical moieties of the amine-functionalized substrate and epoxide chemical moieties of the epoxide-functionalized substrate ; and forming successive combinations (plural application of 140, 700) of amine-functionalized substrate (plural application of 132, 500) and epoxide-functionalized substrate (plural application of 136, 600), wherein each successive combination (plural application of 140, 700) is thermocycled to form successive covalent bonds (plural application of 430) with an immediately preceding combination the first plasma is generated from at least one of: ammonia ; molecular nitrogen ; or molecular nitrogen and molecular hydrogen ; and ammonia ; molecular nitrogen ; or molecular nitrogen and molecular hydrogen ; and the second plasma is generated from at least one of: molecular oxygen ; or carbon dioxide . molecular oxygen ; or carbon dioxide .
Support device for a vehicle, particularly for a trailer, comprising a support leg with a standing region which can be positioned on a subsurface and a panel which can be fastened below the floor or chassis of a vehicle, with a guideway in which a head area of the support leg is guided displaceably between a first point (P1), in which the support leg is in a raised, transporting position (T), and a second point (P2), in which the support leg is in a lowered, supporting position (S), wherein each of at least one lateral struts is articulated so as to be pivotable at one end on an intermediate area of the support leg located between the standing region and the head area , and at the other end on an articulation point which is in a fixed position relative to the guideway , characterized in that the second point (P2) of the guideway is positioned lower than the first point (P1) of the guideway .
An antenna apparatus , applied to an electronic device, wherein the antenna apparatus comprises: at least one radiation unit , at least one feed unit , and at least one non-resonant unit , wherein the feed unit is configured to directly feed the radiation unit and the non-resonant unit separately; and a size of the non-resonant unit is less than 1/8λ, and λ is a wavelength corresponding to a resonance frequency of the radiation unit ; wherein a feed point and a ground point of the feed unit are respectively electrically connected to the non-resonant unit and a metal middle plate configured to form a floor in the electronic device; wherein the non-resonant unit is configured to assist in exciting a floor characteristic mode; wherein an orthographic projection that is of the non-resonant unit and that is in a first direction is located in the metal middle plate ; and the first direction is the direction perpendicular to a plane in which the metal middle plate is located. at least one radiation unit , at least one feed unit , and at least one non-resonant unit , wherein the feed unit is configured to directly feed the radiation unit and the non-resonant unit separately; and a size of the non-resonant unit is less than 1/8λ, and λ is a wavelength corresponding to a resonance frequency of the radiation unit ; wherein a feed point and a ground point of the feed unit are respectively electrically connected to the non-resonant unit and a metal middle plate configured to form a floor in the electronic device; wherein the non-resonant unit is configured to assist in exciting a floor characteristic mode; wherein an orthographic projection that is of the non-resonant unit and that is in a first direction is located in the metal middle plate ; and the first direction is the direction perpendicular to a plane in which the metal middle plate is located.
A method for communicating in a wireless network using a first radio access technology, RAT, and an assisting RAT, comprising: establishing a first connection with an access point using the first RAT; establishing a second connection with the access point using the assisting RAT; synchronizing a timing of the first connection based at least in part on a timeline of the assisting RAT; communicating data with the access point over at least the first connection based at least in part on the synchronizing the timing, characterized by : communicating , with the access point over the second connection using the assisting RAT and after synchronizing the timing of the first connection, control data of the first RAT for the first connection, wherein the control data comprises one or more preamble signals of the first RAT, and wherein the first RAT is a wireless local network, WLAN, RAT and the assisting RAT is a cellular technology RAT. establishing a first connection with an access point using the first RAT; establishing a second connection with the access point using the assisting RAT; synchronizing a timing of the first connection based at least in part on a timeline of the assisting RAT; communicating data with the access point over at least the first connection based at least in part on the synchronizing the timing, characterized by : communicating , with the access point over the second connection using the assisting RAT and after synchronizing the timing of the first connection, control data of the first RAT for the first connection, wherein the control data comprises one or more preamble signals of the first RAT, and wherein the first RAT is a wireless local network, WLAN, RAT and the assisting RAT is a cellular technology RAT.
A key, comprising: a magnetic component arranged to generate a magnetic field; a closed loop , wherein the closed loop includes a preset device in series connection and a conductor set in the magnetic field; a voltage drop detection chip , wherein the voltage drop detection chip has two pins respectively connected to two ends of the preset device and an output port arranged to output a detected voltage drop signal between the two pins; and a key body movably connected on a supporting part , wherein the key body is connected to the conductor , the key body moves in two opposite directions on the supporting part , and when the key body moves, the key body drives the conductor to cut magnetic induction lines in the magnetic field, wherein the magnetic component comprises a first magnetic component and a second magnetic component oppositely placed in parallel, wherein directions of the magnetic induction lines are vertical to the first magnetic component or the second magnetic component , the direction of the conductor in the closed loop cutting the magnetic induction lines is vertical to the directions of the magnetic induction lines, magnetism of the first magnetic component and magnetism of the second magnetic component are opposite. a magnetic component arranged to generate a magnetic field; a closed loop , wherein the closed loop includes a preset device in series connection and a conductor set in the magnetic field; a voltage drop detection chip , wherein the voltage drop detection chip has two pins respectively connected to two ends of the preset device and an output port arranged to output a detected voltage drop signal between the two pins; and a key body movably connected on a supporting part , wherein the key body is connected to the conductor , the key body moves in two opposite directions on the supporting part , and when the key body moves, the key body drives the conductor to cut magnetic induction lines in the magnetic field, wherein the magnetic component comprises a first magnetic component and a second magnetic component oppositely placed in parallel, wherein directions of the magnetic induction lines are vertical to the first magnetic component or the second magnetic component , the direction of the conductor in the closed loop cutting the magnetic induction lines is vertical to the directions of the magnetic induction lines, magnetism of the first magnetic component and magnetism of the second magnetic component are opposite.
An electric vacuum cleaner comprising: a main body part including an electric blower and an upstream side separating part that centrifugally separates dust from air containing dust sucked by the electric blower , wherein the upstream side separating part includes a cup part including a storage part that is formed into a bottomed cylindrical shape and turns air containing dust inside, characterized in that the upstream side separating part includes a cylindrical exhaust part having a central axis substantially parallel to the central axis of the electric blower , and is disposed substantially coaxially with the electric blower , the cup part includes a discharge part that is formed along the central axis of the storage part ; is connected airtightly to the exhaust side of the electric blower via the exhaust part ; and discharges exhaust air of the electric blower from the bottom portion. a main body part including an electric blower and an upstream side separating part that centrifugally separates dust from air containing dust sucked by the electric blower , wherein the upstream side separating part includes a cup part including a storage part that is formed into a bottomed cylindrical shape and turns air containing dust inside, characterized in that the upstream side separating part includes a cylindrical exhaust part having a central axis substantially parallel to the central axis of the electric blower , and is disposed substantially coaxially with the electric blower , the cup part includes a discharge part that is formed along the central axis of the storage part ; is connected airtightly to the exhaust side of the electric blower via the exhaust part ; and discharges exhaust air of the electric blower from the bottom portion.
An industrial two-layer fabric constituted by at least one upper surface side warp (u) to be woven with at least one upper surface side weft , at least one lower surface side warp (d) to be woven with at least one lower surface side , and at least one warp binding yarn (b, B) to be woven with the at least one upper surface side weft (1'u) and the at least one lower surface side weft comprising at least one pair of upper and lower warps in which said upper and lower surface side warps are located to be upper and lower, respectively, and at least one pair of warp binding yarns in which at least one yarn constitutes the warp binding yarn (b, B), characterized in that all knuckles emerging on the upper surface side formed by the yarns of said pair of warp binding yarns are aligned with knuckles on the upper surface side formed by the upper surface side warp (u) adjacent to said pair of warp binding warps.
A method for repairing a file system directory tree, comprising: traversing (S101) metadata, and constructing N subdirectory trees according to subdirectory path information in metadata of each directory, wherein the subdirectory path information comprises an identification ID of a lower-level directory of a current directory, the metadata comprises parent directory path information and the subdirectory path information, the parent directory path information comprises IDs of higher-level directories of the current directory, and N is an integer greater than or equal to 2; reconstructing (S102), according to parent directory path information in metadata of a sub-root directory of each subdirectory tree, metadata of a number of R higher-level directories adjacent to the sub-root directory, wherein the sub-root directory is a root directory of the subdirectory tree, and R is an integer greater than or equal to 1; and constructing (S103) the N subdirectory trees into one directory tree according to the reconstructed metadata of the number of R higher-level directories adjacent to the sub-root directory. traversing (S101) metadata, and constructing N subdirectory trees according to subdirectory path information in metadata of each directory, wherein the subdirectory path information comprises an identification ID of a lower-level directory of a current directory, the metadata comprises parent directory path information and the subdirectory path information, the parent directory path information comprises IDs of higher-level directories of the current directory, and N is an integer greater than or equal to 2; reconstructing (S102), according to parent directory path information in metadata of a sub-root directory of each subdirectory tree, metadata of a number of R higher-level directories adjacent to the sub-root directory, wherein the sub-root directory is a root directory of the subdirectory tree, and R is an integer greater than or equal to 1; and constructing (S103) the N subdirectory trees into one directory tree according to the reconstructed metadata of the number of R higher-level directories adjacent to the sub-root directory.
Modular holding element for fastening an electrical busbar to a perforated rail of an electrical distributor , comprising a basic body , which has mutually opposite first and second lateral surfaces (8.1, 8.2), a clamping surface (8.3) arranged orthogonally thereto, and connecting portions (8.4, 8.5) arranged orthogonally to the lateral surfaces (8.1, 8.2) and to the clamping surface (8.3), wherein a cutout for receiving one end of a busbar is formed in at least one of the two lateral surfaces (8.1, 8.2), and the basic body has an opening through which there can be guided a screw element for producing a clamping force between the clamping surface (8.3) and the perforated rail , wherein the first and second connecting portion (8.4, 8.5) are formed opposite one another on the basic body , and a female connecting element is formed on the first connecting portion (8.4), and a male connecting element designed to be complementary thereto is formed on the second connecting portion (8.5) and, with the production of a form-fitting engagement, can be introduced into the female connecting element of a further identically formed holding element , characterized in that the opening comprises a first part-bore (12.1) formed in the female connecting element and a second part-bore (12.2) formed in the male connecting element , wherein, when the male connecting element is inserted into the female connecting element of the further holding element , the first part-bore (12.1) of the further holding element and the second part-bore (12.2) inter engage and extend alternately along the same screw-in axis of the screw element , with the result that, after the screw element has been inserted into the first and second part-bore (12.1, 12.2), the male connecting element and the female connecting element of the further holding element are locked against sliding out.
Decorative panel for the decoration of surfaces, comprising: - at least one slab made of flexible polymeric material, transparent and permeable to light, made at least partly of polycarbonate and having a thickness comprised between 2 mm and 6 mm; - at least one decorative element ; - at least one layer of technical elastic fabric associated with at least one portion of said slab and adapted to be fixed by gluing to a surface to be decorated; wherein said decorative element is provided between said slab and said technical elastic fabric , and wherein said decorative panel is flexible enough to be rolled up. - at least one slab made of flexible polymeric material, transparent and permeable to light, made at least partly of polycarbonate and having a thickness comprised between 2 mm and 6 mm; - at least one decorative element ; - at least one layer of technical elastic fabric associated with at least one portion of said slab and adapted to be fixed by gluing to a surface to be decorated;
An induction cooker , the induction cooker comprising: an induction coil arranged to receive a varying electric current and to produce a corresponding varying electromagnetic field; a power circuit constructed and arranged to provide the varying electric current; the power circuit comprising at least a first transistor and a second transistor which are each arranged in series with the induction coil and which are arranged in parallel to each other, the transistors being controllable so as to control the current that is provided to the induction coil by the power circuit, characterised by : a first current sensor for sensing the current flowing through the first transistor ; a second current sensor for sensing the current flowing through the second transistor ; and a controller for controlling the power circuit, the controller being arranged to compare a current flowing through the first transistor and a current flowing through the second transistor , and to cause an indication to be output in the case that the current flowing through the first transistor and the current flowing through the second transistor differ by more than a threshold. an induction coil arranged to receive a varying electric current and to produce a corresponding varying electromagnetic field; a power circuit constructed and arranged to provide the varying electric current; the power circuit comprising at least a first transistor and a second transistor which are each arranged in series with the induction coil and which are arranged in parallel to each other, the transistors being controllable so as to control the current that is provided to the induction coil by the power circuit, characterised by : a first current sensor for sensing the current flowing through the first transistor ; a second current sensor for sensing the current flowing through the second transistor ; and a controller for controlling the power circuit, the controller being arranged to compare a current flowing through the first transistor and a current flowing through the second transistor , and to cause an indication to be output in the case that the current flowing through the first transistor and the current flowing through the second transistor differ by more than a threshold. a first current sensor for sensing the current flowing through the first transistor ; a second current sensor for sensing the current flowing through the second transistor ; and a controller for controlling the power circuit, the controller being arranged to compare a current flowing through the first transistor and a current flowing through the second transistor , and to cause an indication to be output in the case that the current flowing through the first transistor and the current flowing through the second transistor differ by more than a threshold.
Apparatus , for use with a valve of a heart of a subject, the apparatus comprising: a prosthetic valve , comprising: a first frame , a second frame , and a valve member , disposed within the second frame ; characterized by : a rod , transfemorally advanceable to the heart, and having a distal portion, with the first frame compressed around a first longitudinal site of the distal portion, and with the second frame compressed around a third longitudinal site of the distal portion in tandem with the first frame and articulatably coupled to the first frame ; and an extracorporeal controller , coupled to a proximal portion of the rod , and operably coupled to the distal portion of the rod such that operating the extracorporeal controller bends the distal portion of the rod at at least a second longitudinal site of the distal portion, disposed between the first and third longitudinal sites, causing articulation between the first frame and the second frame . a first frame , a second frame , and a valve member , disposed within the second frame ; a rod , transfemorally advanceable to the heart, and having a distal portion, with the first frame compressed around a first longitudinal site of the distal portion, and with the second frame compressed around a third longitudinal site of the distal portion in tandem with the first frame and articulatably coupled to the first frame ; and an extracorporeal controller , coupled to a proximal portion of the rod , and operably coupled to the distal portion of the rod such that operating the extracorporeal controller bends the distal portion of the rod at at least a second longitudinal site of the distal portion, disposed between the first and third longitudinal sites, causing articulation between the first frame and the second frame .
A hypereutectic white iron alloy, wherein the alloy comprises, in weight percent based on the total weight of the alloy: C from 3 to 6 B from 0.1 to 4 N from 0.01 to 1.2 Cr from 3 to 48 Ni from 0.1 to 7.5 Si from 0.1 to 4 Mn from 0 to 8 Co from 0 to 5 Cu from 0 to 5 Mo from 0 to 5 W from 0 to 6 V from 0 to 12 Nb from 0 to 6 Ti from 0 to 5 Zr from 0 to 2 (Mg + Ca) from 0 to 0.2 one or more rare earth elements from 0 to 3 one or more of Ta, Hf, Al from 0 to 3, P from 0 to 0.2 S from 0 to 0.2 remainder Fe and incidental impurities, provided that the alloy has a carbide-boride-nitride volume fraction (CBNVF) of at least 55, calculated according to the following equation: CBNVF = C E × 12.33 + % Cr + % M × 0.55 − 15.2 with M = total percentage of V, Mo, Nb, and Ti, and C E = % C + % N + f × % B , where f = 1.2 for B concentrations from 0.1 % to 0.49 % 1.48 for B concentrations from 0.5 % to 0.99 % 2.2 for B concentrations from 1.0 % to 1.8 % 2.6 for B concentrations from 1.81 % to 2.5 % 2.7 for B concentrations from 2.51 % to 3.0 % 2.8 for B concentrations from 3.01 % to 4 % and provided that the alloy as cast into a sand mold without any subsequent hardening treatment has a Brinell hardness (HB) of at least 740, as measured with a 10 mm tungsten ball and a load of 3000 kgf.