mhurhangee/patent-ind-claim-en huggingface dataset:
A method of coating a transparent optical substrate , comprising: depositing a semiconductor coating over a surface of a transparent optical substrate , wherein the semiconductor coating has broadband optical transmittance in the visible to infra-red spectra; the method characterized by forming channels in the semiconductor coating ; coating over the semiconductor coating and at least partially filling the channels with an electrically conductive doped semiconductor ; and removing at least some of the doped semiconductor from the semiconductor coating , leaving at least some of the doped semiconductor in the channels to form a pattern of doped semiconductor configured to provide electromagnetic interference (EMI) shielding to the transparent optical substrate. depositing a semiconductor coating over a surface of a transparent optical substrate , wherein the semiconductor coating has broadband optical transmittance in the visible to infra-red spectra; the method characterized by forming channels in the semiconductor coating ; coating over the semiconductor coating and at least partially filling the channels with an electrically conductive doped semiconductor ; and
Method for joining at least two metal workpiece parts of a differing metal composition to each other by means of explosion welding, comprising the steps of: - enclosing an inner workpiece part at least partially with an outer workpiece part ; - arranging a mantle of explosive material round the outer workpiece part ; and - detonating the explosive material in order to bring about a metallurgical connection between the two workpiece parts; and - wherein during the detonation of the explosive material the inner workpiece part is wholly filled with and/or is at least partially enclosed by a non-Newtonian mixture ; characterized in that said non-Newtonian mixture is a dilatant non-Newtonian mixture. - enclosing an inner workpiece part at least partially with an outer workpiece part ; - arranging a mantle of explosive material round the outer workpiece part ; and - detonating the explosive material in order to bring about a metallurgical connection between the two workpiece parts; and - wherein during the detonation of the explosive material the inner workpiece part is wholly filled with and/or is at least partially enclosed by a non-Newtonian mixture ;
An intraosseous biopsy needle set operable to be rotatably inserted into a bone and associated bone marrow, the intraosseous biopsy needle set comprising: an outer penetrator having a first end , a second end, and a longitudinal bore , the longitudinal bore extending from the first end of the outer penetrator to the second end of the outer penetrator; an inner penetrator operable to be slidably received within the longitudinal bore of the outer penetrator (1 10c, 1 10d, 1 10h), the inner penetrator having a first end configured to at least partially extend from the first end of the outer penetrator ; and a generally helical thread disposed on an interior portion of the outer penetrator proximate to the first end of the outer penetrator, the helical thread configured to assist with capturing a specimen of bone or bone marrow; where the first end of the inner penetrator includes a first tapered cutting surface , and characterized in that a portion of the first tapered cutting surface is disposed within the first end of the outer penetrator (1 10c, 1 10d, 1 10h) when the inner penetrator is fully inserted into the outer penetrator. an outer penetrator having a first end , a second end, and a longitudinal bore , the longitudinal bore extending from the first end of the outer penetrator to the second end of the outer penetrator; an inner penetrator operable to be slidably received within the longitudinal bore of the outer penetrator (1 10c, 1 10d, 1 10h), the inner penetrator having a first end configured to at least partially extend from the first end of the outer penetrator ; and a generally helical thread disposed on an interior portion of the outer penetrator proximate to the first end of the outer penetrator, the helical thread configured to assist with capturing a specimen of bone or bone marrow; where the first end of the inner penetrator includes a first tapered cutting surface , and characterized in that a portion of the first tapered cutting surface is disposed within the first end of the outer penetrator (1 10c, 1 10d, 1 10h) when the inner penetrator is fully inserted into the outer penetrator.
A rotor blade component for a wind turbine , the rotor blade component comprising: a plurality of pultruded members arranged in two or more layers , each of the pultruded members constructed of a plurality of fibers joined together via a cured resin material , wherein each of the plurality of pultruded members comprises one or more interlocking edges , and wherein adjacent pultruded members are aligned and interconnected together via corresponding interlocking edges , wherein adjacent pultruded members of one layer are aligned and interconnected together via corresponding interlocking side edges, wherein adjacent pultruded members of different layers are aligned and interconnected together via corresponding interlocking top and bottom edges, wherein both the interlocking side edges and the interlocking top and bottom edges comprise at least one of the following cross-sectional shapes: dovetail, arcuate, V-shaped, U-shaped, or ball joint. a plurality of pultruded members arranged in two or more layers , each of the pultruded members constructed of a plurality of fibers joined together via a cured resin material , wherein each of the plurality of pultruded members comprises one or more interlocking edges , and wherein adjacent pultruded members are aligned and interconnected together via corresponding interlocking edges , wherein adjacent pultruded members of one layer are aligned and interconnected together via corresponding interlocking side edges, wherein adjacent pultruded members of different layers are aligned and interconnected together via corresponding interlocking top and bottom edges, wherein both the interlocking side edges and the interlocking top and bottom edges comprise at least one of the following cross-sectional shapes: dovetail, arcuate, V-shaped, U-shaped, or ball joint.
A measuring tube (10; 110; 210) for conducting a fluid, for a flowmeter (1; 100; 200) according to the vortex meter principle, wherein the measuring tube has an inlet-side opening in an inlet-side end face and an outlet-side opening in an outlet-side end face, between which the measuring tube extends in an axial direction; a damming body (15; 115; 215), which is arranged in the measuring tube (10; 110; 210), wherein the damming body serves to cause a Kármán vortex street with a flow-dependent vortex shedding frequency when a fluid is flowing through the measuring tube; at least one vortex detector (16; 116, 117; 216, 217) for detecting vortices in the vortex street and for providing vortex-dependent signals; wherein the measuring tube (10; 110; 210), spaced axially apart from the vortex detector, has a throttle valve (14; 114; 214) between the vortex detector (16; 116, 117; 216, 217) and the outlet-side end face, which circularly constricts the flow cross-section of the measuring tube (10; 110; 210), wherein the measuring tube between the vortex detector and the throttle valve has a first diameter (d1) at a first axial position, wherein the throttle valve has a second diameter (d2) at a second axial position, which is smaller than the first diameter by at least one tenth, wherein a quotient formed from the difference between the first diameter and the second diameter, on the one hand, and the difference between the first axial position and the second axial position, on the other hand, is not less than two, and wherein a diameter transition between the first diameter (d1) and the second diameter (d2) is extreme. a damming body (15; 115; 215), which is arranged in the measuring tube (10; 110; 210), wherein the damming body serves to cause a Kármán vortex street with a flow-dependent vortex shedding frequency when a fluid is flowing through the measuring tube; at least one vortex detector (16; 116, 117; 216, 217) for detecting vortices in the vortex street and for providing vortex-dependent signals; wherein the measuring tube (10; 110; 210), spaced axially apart from the vortex detector, has a throttle valve (14; 114; 214) between the vortex detector (16; 116, 117; 216, 217) and the outlet-side end face, which circularly constricts the flow cross-section of the measuring tube (10; 110; 210), wherein the measuring tube between the vortex detector and the throttle valve has a first diameter (d1) at a first axial position, wherein the throttle valve has a second diameter (d2) at a second axial position, which is smaller than the first diameter by at least one tenth, wherein a quotient formed from the difference between the first diameter and the second diameter, on the one hand, and the difference between the first axial position and the second axial position, on the other hand, is not less than two, and wherein a diameter transition between the first diameter (d1) and the second diameter (d2) is extreme.
A fluorine-based resin multilayer film for vacuum forming, comprising: a front surface layer containing 60% by mass to 85% by mass of a vinylidene fluoride-based resin and 40% by mass to 15% by mass of a methacrylate ester-based resin; and a back surface layer containing 0% by mass to 50% by mass of a vinylidene fluoride-based resin and 100% by mass to 50% by mass of a methacrylate ester-based resin, characterized in that the film is oriented in the machine direction (MD) and has a thermal dimensional change in a machine direction (MD) of -15% to -2%, when heated at 120°C for 30 minutes according to JIS K7133. a front surface layer containing 60% by mass to 85% by mass of a vinylidene fluoride-based resin and 40% by mass to 15% by mass of a methacrylate ester-based resin; and a back surface layer containing 0% by mass to 50% by mass of a vinylidene fluoride-based resin and 100% by mass to 50% by mass of a methacrylate ester-based resin, characterized in that the film is oriented in the machine direction (MD) and has a thermal dimensional change in a machine direction (MD) of -15% to -2%, when heated at 120°C for 30 minutes according to JIS K7133.
A wireless sound equipment comprising: a body having an upper portion and a lower portion, the body being configured to be worn around a neck of a user with the upper portion directed upwardly toward ears of the user and the lower portion directed downwardly toward shoulders of the user; an internal space located in the body and forming an enclosure; a partition wall partitioning off the internal space into a first accommodating portion and a second accommodating portion , wherein the first accommodating portion and the second accommodating portion are arranged side by side in a longitudinal direction of the body; a first hole located in the upper portion of the body corresponding to the first accommodating portion; a first speaker located in the first accommodating portion and arranged towards the first hole so as to output sound via the first hole, wherein the first speaker is a full range speaker; a second hole located in the lower portion of the body corresponding to the second accommodating portion; and a second speaker located in the second accommodating portion and arranged toward the second hole so as to output sound via the second hole, and wherein the second speaker is a vibration speaker configured to output sound in a low frequency band, a through-hole provided in the partition , the through-hole permitting the first accommodating portion and the second accommodating portion to communicate with each other, wherein the through-hole is arranged in the partition wall along a line passing through a center of the second speaker . a body having an upper portion and a lower portion, the body being configured to be worn around a neck of a user with the upper portion directed upwardly toward ears of the user and the lower portion directed downwardly toward shoulders of the user; an internal space located in the body and forming an enclosure; a partition wall partitioning off the internal space into a first accommodating portion and a second accommodating portion , wherein the first accommodating portion and the second accommodating portion are arranged side by side in a longitudinal direction of the body; a first hole located in the upper portion of the body corresponding to the first accommodating portion; a first speaker located in the first accommodating portion and arranged towards the first hole so as to output sound via the first hole, wherein the first speaker is a full range speaker; a second hole located in the lower portion of the body corresponding to the second accommodating portion; and a second speaker located in the second accommodating portion and arranged toward the second hole so as to output sound via the second hole, and wherein the second speaker is a vibration speaker configured to output sound in a low frequency band, a through-hole provided in the partition , the through-hole permitting the first accommodating portion and the second accommodating portion to communicate with each other, wherein the through-hole is arranged in the partition wall along a line passing through a center of the second speaker .
A laundry treatment apparatus comprising: a cabinet having an accommodation space formed therein to accommodate laundry; a door hingedly connected to the cabinet to open or close the accommodation space ; a presser for applying pressure to laundry to remove wrinkles from laundry, the presser including a support part provided at an inner surface of the accommodation space or at the door to support laundry and a press part hingedly connected to the support part to apply pressure to laundry placed in the support part ; a presser-fixing structure for mounting the support part to the inner surface of the accommodation space or the door , characterised in that the presser-fixing structure includes: a support-part-fixing hole formed in the inner surface of the accommodation space or the door ; an extension portion extending outwardly from the support-part-fixing hole ; and a support holder inserted into the support-part-fixing hole , which is supported by the extension portion and is configured to detachably mounting the support part . a cabinet having an accommodation space formed therein to accommodate laundry; a door hingedly connected to the cabinet to open or close the accommodation space ; a presser for applying pressure to laundry to remove wrinkles from laundry, the presser including a support part provided at an inner surface of the accommodation space or at the door to support laundry and a press part hingedly connected to the support part to apply pressure to laundry placed in the support part ; a presser-fixing structure for mounting the support part to the inner surface of the accommodation space or the door , characterised in that the presser-fixing structure includes: a support-part-fixing hole formed in the inner surface of the accommodation space or the door ; an extension portion extending outwardly from the support-part-fixing hole ; and a support holder inserted into the support-part-fixing hole , which is supported by the extension portion and is configured to detachably mounting the support part . a support-part-fixing hole formed in the inner surface of the accommodation space or the door ; an extension portion extending outwardly from the support-part-fixing hole ; and a support holder inserted into the support-part-fixing hole , which is supported by the extension portion and is configured to detachably mounting the support part .
A computer implemented method of providing whole disk encryption for a virtualised computer system comprising: providing a software component executing in a first virtual machine for instantiation in a first hypervisor , , the software component invoking a second hypervisor within the first virtual machine for instantiating a disk image of the virtualised computer system as a second virtual machine , and the software component being configured to install a software agent in the second virtual machine , the software agent being adapted to: a) encrypt the instantiated disk image including encryption of partitions for booting an operating system of the second virtual machine and/or a master boot record of the second virtual machine ; b) encrypt data written, by the second virtual machine to the instantiated disk image at a runtime of the second virtual machine ; and c) decrypt data read, by the second virtual machine , J Z from the instantiated disk image at a runtime of the second virtual machine , wherein the software component is configured to migrate the second virtual machine at a runtime of the second virtual machine to the first hypervisor so as to provide a wholly encrypted disk image for the second virtual machine executing in the first hypervisor . providing a software component executing in a first virtual machine for instantiation in a first hypervisor , , the software component invoking a second hypervisor within the first virtual machine for instantiating a disk image of the virtualised computer system as a second virtual machine , and the software component being configured to install a software agent in the second virtual machine , the software agent being adapted to: a) encrypt the instantiated disk image including encryption of partitions for booting an operating system of the second virtual machine and/or a master boot record of the second virtual machine ; b) encrypt data written, by the second virtual machine to the instantiated disk image at a runtime of the second virtual machine ; and c) decrypt data read, by the second virtual machine , J Z from the instantiated disk image at a runtime of the second virtual machine , a) encrypt the instantiated disk image including encryption of partitions for booting an operating system of the second virtual machine and/or a master boot record of the second virtual machine ; b) encrypt data written, by the second virtual machine to the instantiated disk image at a runtime of the second virtual machine ; and c) decrypt data read, by the second virtual machine , J Z from the instantiated disk image at a runtime of the second virtual machine , wherein the software component is configured to migrate the second virtual machine at a runtime of the second virtual machine to the first hypervisor so as to provide a wholly encrypted disk image for the second virtual machine executing in the first hypervisor .
An antenna module , including: an integrated circuit, IC, package , wherein the IC package includes a die and a package substrate , the package substrate includes a first face and an opposing second face, the die is coupled to the first face of the package substrate , and the second face of the package substrate has a recess therein, and a first antenna patch and a second antenna patch coupled to the IC package , wherein the first antenna patch is over or at least partially in the recess , the second antenna patch is between the first antenna patch and the package substrate , and a first air cavity (149-1) is present between the second antenna patch and a bottom surface of the recess and a second air cavity (149-2) is present between the first antenna patch and the second antenna patch. an integrated circuit, IC, package , wherein the IC package includes a die and a package substrate , the package substrate includes a first face and an opposing second face, the die is coupled to the first face of the package substrate , and the second face of the package substrate has a recess therein, and a first antenna patch and a second antenna patch coupled to the IC package , wherein the first antenna patch is over or at least partially in the recess , the second antenna patch is between the first antenna patch and the package substrate , and a first air cavity (149-1) is present between the second antenna patch and a bottom surface of the recess and a second air cavity (149-2) is present between the first antenna patch and the second antenna patch.
Method for producing a filter element for filtering fluids, such as hydraulic fluids, lubricants or fuels, comprising the following steps: a) providing at least one section of a filter mat web made from one or more layers of at least one filter medium; b) connecting the ends of the at least one section in order to form an annular body and placing said annular body onto a supporting tube ; c) wrapping the outside of the annular body placed on the supporting tube with at least one length of a film web ; d) providing a device with a movable lower shaped body and with movable upper shaped bodies ; and e) placing end regions of the at least one length of the film web on top of one another, applying the upper shaped bodies on both sides of the end regions and connecting the overlapping end regions , wherein: f) the at least one length of the film web is tensioned around the annular body before its end regions are connected by producing tensile stress in the film web in the circumferential direction, during which the upper shaped bodies execute an additional movement in the circumferential direction. a) providing at least one section of a filter mat web made from one or more layers of at least one filter medium; b) connecting the ends of the at least one section in order to form an annular body and placing said annular body onto a supporting tube ; c) wrapping the outside of the annular body placed on the supporting tube with at least one length of a film web ; d) providing a device with a movable lower shaped body and with movable upper shaped bodies ; and e) placing end regions of the at least one length of the film web on top of one another, applying the upper shaped bodies on both sides of the end regions and connecting the overlapping end regions ,
A method of servicing a nozzle of an additive manufacturing system for magnetohydrodynamic, MHD, printing liquid metal, comprising the steps of: positioning the nozzle over a ceramic rod; jetting from the nozzle an amount of liquid metal forming on an upper surface of the ceramic rod a bead of metal; advancing the upper surface of the ceramic rod towards the nozzle until the bead of metal contacts a meniscus of liquid metal at the nozzle and rotating the upper surface of the ceramic rod such that the bead removes an amount of dross from the nozzle; retreating the upper surface of the ceramic rod away from the nozzle; and wherein during the step of advancing and rotating the upper surface of the ceramic rod, jetting additional liquid metal such that the bead is increased in size until at least a portion of the bead solidifies and the bead is ejected away from the upper surface of the ceramic rod. positioning the nozzle over a ceramic rod; jetting from the nozzle an amount of liquid metal forming on an upper surface of the ceramic rod a bead of metal; advancing the upper surface of the ceramic rod towards the nozzle until the bead of metal contacts a meniscus of liquid metal at the nozzle and rotating the upper surface of the ceramic rod such that the bead removes an amount of dross from the nozzle; retreating the upper surface of the ceramic rod away from the nozzle; and wherein during the step of advancing and rotating the upper surface of the ceramic rod, jetting additional liquid metal such that the bead is increased in size until at least a portion of the bead solidifies and the bead is ejected away from the upper surface of the ceramic rod.