mhurhangee/ep-ind-claims huggingface dataset:
A structural interface between a Seawater Intake Riser (SWIR) and the hull or sump tank bottom plate of a floating vessel comprising: a main cylindrical body perforated in a lower portion located above a sealing device; a cylindrical strainer that is coaxial with and inserted into the main body; a first annular seal located below a perforated section of the strainer in the annulus between the main body and the strainer; a second annular seal located above a perforated section of the strainer in the annulus between the main body and the strainer; a sealing device designed to be located at a penetration in the vessel hull or sump tank bottom plate, the sealing device comprising a male portion and female portion; at least one ring seal located between the male and female portions configured to provide a watertight seal between the male portion and the female portion; a hang-off device designed to be located at a penetration through a first horizontal hull-supporting structure that is located above the lower draft of the vessel, the hang-off device comprising a male part, a female part and a split clamp; wherein the above elements are sized and configured to permit the SWIR to be pulled into the penetration with the vessel hull or sump tank bottom plate from below the hull or sump tank bottom plate and into engagement with the female part of the hang-off device. a main cylindrical body perforated in a lower portion located above a sealing device; a cylindrical strainer that is coaxial with and inserted into the main body; a first annular seal located below a perforated section of the strainer in the annulus between the main body and the strainer; a second annular seal located above a perforated section of the strainer in the annulus between the main body and the strainer; a sealing device designed to be located at a penetration in the vessel hull or sump tank bottom plate, the sealing device comprising a male portion and female portion; at least one ring seal located between the male and female portions configured to provide a watertight seal between the male portion and the female portion; a hang-off device designed to be located at a penetration through a first horizontal hull-supporting structure that is located above the lower draft of the vessel, the hang-off device comprising a male part, a female part and a split clamp; wherein the above elements are sized and configured to permit the SWIR to be pulled into the penetration with the vessel hull or sump tank bottom plate from below the hull or sump tank bottom plate and into engagement with the female part of the hang-off device.
A surgical instrument for cutting a cavity in an intramedullary canal of a bone, the instrument comprising: a shaft having a proximal end, a plurality of flexible cutting arms and a distal nose section, the flexible cutting arms being formed from a shape memory material and defining a relaxed effective outer diameter that is greater than effective outer diameters of the shaft and the distal nose section, the flexible cutting arms being compressible radially to a compressed effective outer diameter about equal to or less than the effective outer diameters of the shaft and distal nose section, characterised in that each flexible cutting arm is helical and in that the shaft is flexible and in that the distal nose section comprises a drill tip and wherein the surgical instrument is configured to form a cavity in an intramedullary canal that utilises an entry port location with an angled trajectory relative to a bone axis a shaft having a proximal end, a plurality of flexible cutting arms and a distal nose section, the flexible cutting arms being formed from a shape memory material and defining a relaxed effective outer diameter that is greater than effective outer diameters of the shaft and the distal nose section, the flexible cutting arms being compressible radially to a compressed effective outer diameter about equal to or less than the effective outer diameters of the shaft and distal nose section, characterised in that each flexible cutting arm is helical and in that the shaft is flexible and in that the distal nose section comprises a drill tip and wherein the surgical instrument is configured to form a cavity in an intramedullary canal that utilises an entry port location with an angled trajectory relative to a bone axis
A method in a first radio node for performing measurements in a communication network, the method comprising: receiving a message from a second radio node, the message comprising a combined capability for configuring the measurements based on the combined capability, and the combined capability comprising a relation between a first Orthogonal Frequency Division Multiplexing, OFDM, numerology and a second OFDM numerology; performing a first amount of measurements on a first signal based on the first OFDM numerology; and performing a second amount of measurements on a second signal based on the second OFDM numerology; wherein performing one of the first and second amounts of measurements is based on the relation between the first OFDM numerology and the second OFDM numerology. receiving a message from a second radio node, the message comprising a combined capability for configuring the measurements based on the combined capability, and the combined capability comprising a relation between a first Orthogonal Frequency Division Multiplexing, OFDM, numerology and a second OFDM numerology; performing a first amount of measurements on a first signal based on the first OFDM numerology; and performing a second amount of measurements on a second signal based on the second OFDM numerology; wherein performing one of the first and second amounts of measurements is based on the relation between the first OFDM numerology and the second OFDM numerology.
A light emitting device comprising: a substrate; a first conductivity type semiconductor layer on the substrate; an active layer on the first conductivity type semiconductor layer; a second conductivity type semiconductor layer on the active layer; a contact layer on the second conductivity type semiconductor layer; an insulating layer on the contact layer; a first branch electrode electrically connected to the first conductivity type semiconductor layer; a plurality of first via electrodes connected to the first branch electrode and electrically connected to the first conductivity type semiconductor layer by passing through the insulating layer; a first pad electrode electrically connected to the first branch electrode; a second pad electrode contacts the contact layer by passing through the insulating layer; a second branch electrode connected to the second pad electrode and disposed on the insulating layer; and a plurality of second via electrodes provided through the insulating layer to electrically connect the second branch electrode to the contact layer, characterised in that one of the first via electrodes has a first horizontal width longer than a first distance between the first via electrodes. a substrate; a first conductivity type semiconductor layer on the substrate; an active layer on the first conductivity type semiconductor layer; a second conductivity type semiconductor layer on the active layer; a contact layer on the second conductivity type semiconductor layer; an insulating layer on the contact layer; a first branch electrode electrically connected to the first conductivity type semiconductor layer; a plurality of first via electrodes connected to the first branch electrode and electrically connected to the first conductivity type semiconductor layer by passing through the insulating layer; a first pad electrode electrically connected to the first branch electrode; a second pad electrode contacts the contact layer by passing through the insulating layer; a second branch electrode connected to the second pad electrode and disposed on the insulating layer; and a plurality of second via electrodes provided through the insulating layer to electrically connect the second branch electrode to the contact layer, characterised in that one of the first via electrodes has a first horizontal width longer than a first distance between the first via electrodes.
A computer-executable method for routing and for facilitating fragmentation of packets with hierarchically structured variable-length identifiers, HSVLIs, the method comprising: receiving an interest packet with an HSVLI corresponding to a piece of content; identifying a minimum path maximum transmission unit, MTU, value carried in the packet; determining whether a piece of content is stored locally and, in response to the piece of content not being stored locally, determining an egress port for the packet based on the HSVLI; determining an MTU associated with the egress port; and in response to the MTU associated with the egress port being less than the minimum path MTU value carried in the packet, updating (416, 420) the minimum path MTU value in the packet to the MTU value associated with the egress port; wherein the interest packet contains a similarity hash based on the entire HSVLI for uniquely identifying a piece of content and a forwarding hash based on a subset of HSVLI components for use in forwarding the interest packet. receiving an interest packet with an HSVLI corresponding to a piece of content; identifying a minimum path maximum transmission unit, MTU, value carried in the packet; determining whether a piece of content is stored locally and, in response to the piece of content not being stored locally, determining an egress port for the packet based on the HSVLI; determining an MTU associated with the egress port; and in response to the MTU associated with the egress port being less than the minimum path MTU value carried in the packet, updating (416, 420) the minimum path MTU value in the packet to the MTU value associated with the egress port; wherein the interest packet contains a similarity hash based on the entire HSVLI for uniquely identifying a piece of content and a forwarding hash based on a subset of HSVLI components for use in forwarding the interest packet.
Underwater craft less likely to be detected, wherein the underwater craft comprises an outer hull, wherein the underwater craft comprises a bow section, a stern section and a midship section, wherein the underwater craft comprises a substantially cylindrical pressure vessel under the outer hull, wherein the outer hull of the midship section has a polygonal cross section transversely with respect to the longitudinal direction of the underwater craft, wherein the polygonal cross section has three to 10 corners, wherein the outer hull of the midship section comprises a curvature along the longitudinal direction of the underwater craft over the entire length of the midship section, characterized in that the outer hull of the midship section comprises a curvature along the longitudinal direction of the underwater craft over the entire cross section transversely with respect to the longitudinal direction of the underwater craft.
A magnetometer assembly comprising: A first inner coil and a second inner coil disposed about a common axis and separated axially; a first outer coil disposed concentrically about the first inner coil and a second outer coil disposed concentrically about the second inner coil; characterized by a first plurality of magnetically saturatable wires disposed parallel to the common axis between the first inner coil and the first outer coil; and a second plurality of magnetically saturatable wires disposed parallel to the common axis between the second inner coil and the second outer coil; the first inner coil electrically coupled to the second inner coil and the first outer coil electrically coupled to the second outer coil; a feedback loop feeding a current related to an applied torque delivered to the outer coils (38, 42); the inner coils (36, 30) and outer coils (38, 42) identically configured for providing a magnetic saturation of the magnetically saturatable wires in an even symmetrical manner, wherein, in use, the first inner coil and the second inner coil generate a magnetic field disposed in a first direction and the first outer coil and the second outer coil generate a magnetic field disposed in a second direction opposite to the first direction. A first inner coil and a second inner coil disposed about a common axis and separated axially; a first outer coil disposed concentrically about the first inner coil and a second outer coil disposed concentrically about the second inner coil; characterized by a first plurality of magnetically saturatable wires disposed parallel to the common axis between the first inner coil and the first outer coil; and a second plurality of magnetically saturatable wires disposed parallel to the common axis between the second inner coil and the second outer coil; the first inner coil electrically coupled to the second inner coil and the first outer coil electrically coupled to the second outer coil; a feedback loop feeding a current related to an applied torque delivered to the outer coils (38, 42); the inner coils (36, 30) and outer coils (38, 42) identically configured for providing a magnetic saturation of the magnetically saturatable wires in an even symmetrical manner, wherein, in use, the first inner coil and the second inner coil generate a magnetic field disposed in a first direction and the first outer coil and the second outer coil generate a magnetic field disposed in a second direction opposite to the first direction.
An optical wireless communication, OWC, transmitter comprising: - a first light source configured to emit a first optical data signal in a first field-of-view, FoV; and - a second light source configured to emit a second optical data signal in a second FoV; wherein the first light source and the second light source are of different types, and the first FoV is wider than the second FoV; and the optical wireless communication transmitter is further configured to emit the first optical data signal via the first light source and to emit the second optical data signal via the second light source simultaneously; the OWC transmitter characterized in that: the OWC transmitter is further configured to compensate a difference in response time between the first light source and the second light source. - a first light source configured to emit a first optical data signal in a first field-of-view, FoV; and - a second light source configured to emit a second optical data signal in a second FoV; wherein the first light source and the second light source are of different types, and the first FoV is wider than the second FoV; and the optical wireless communication transmitter is further configured to emit the first optical data signal via the first light source and to emit the second optical data signal via the second light source simultaneously; the OWC transmitter characterized in that: the OWC transmitter is further configured to compensate a difference in response time between the first light source and the second light source. wherein the first light source and the second light source are of different types, and the first FoV is wider than the second FoV; and the optical wireless communication transmitter is further configured to emit the first optical data signal via the first light source and to emit the second optical data signal via the second light source simultaneously; the OWC transmitter characterized in that: the OWC transmitter is further configured to compensate a difference in response time between the first light source and the second light source.
A method of detecting free light chains or intact immunoglobulins in a sample comprising incubating the sample with anti-FLC antibody, or heavy chain class-light chain type- specific antibodies, or fragments of such antibodies, and a known amount of FLC or intact immunoglobulin and detecting the binding of the antibody to the known amount of FLC or immunoglobulin, characterised that the method comprising the steps of: (i) mixing the serum sample with anti-FLC antibody, or heavy chain class-light chain type- specific antibodies, or a fragment thereof; (ii) incubating the serum sample with the anti-FLC antibody or heavy chain class-light chain type- specific antibodies, or fragments thereof to form an incubated mixture; (iii) measuring the optical absorbance or scattering of a light source, of the incubated mixture to produce a control reading; (iv) mixing a predetermined amount of particles coated with a known amount of FLC or intact immunoglobulin, with the incubated mixture; (v) measuring the formation of complexes of the coated particles with the anti-FLC antibody or heavy chain class-light chain type- specific antibodies, or fragments thereof; and (vi) comparing the formation of the complexes with a predetermined calibration curve of complex formation with known concentrations of FLC or intact immunoglobulin. (i) mixing the serum sample with anti-FLC antibody, or heavy chain class-light chain type- specific antibodies, or a fragment thereof; (ii) incubating the serum sample with the anti-FLC antibody or heavy chain class-light chain type- specific antibodies, or fragments thereof to form an incubated mixture; (iii) measuring the optical absorbance or scattering of a light source, of the incubated mixture to produce a control reading; (iv) mixing a predetermined amount of particles coated with a known amount of FLC or intact immunoglobulin, with the incubated mixture; (v) measuring the formation of complexes of the coated particles with the anti-FLC antibody or heavy chain class-light chain type- specific antibodies, or fragments thereof; and (vi) comparing the formation of the complexes with a predetermined calibration curve of complex formation with known concentrations of FLC or intact immunoglobulin.
A solid-state imaging device comprising: pixel units each of which has a photoelectric conversion element and an amplifying unit that amplifies an output signal from the photoelectric conversion element and which are two-dimensionally arranged; at least one row of optical black units each of which includes a photoelectric conversion element, an amplifying unit, and a light shielding film that covers the photoelectric conversion element, the photoelectric conversion element and the amplifying unit being the same as those of the pixel unit; and at least one row of optical gray units each of which includes an amplifying unit which is the same as that of the pixel unit and to which a reference voltage is input, and a correction circuit that corrects an output signal from the pixel unit on the basis of an output signal from the optical black unit and an output signal from the optical gray unit, wherein a value of the reference voltage is less than a value of the output signal from the photoelectric conversion element in a saturated state, wherein the optical gray unit includes a capacitive element that is connected in series between a reference voltage and an input terminal of the amplifying unit through a transistor, and the reference voltage is a pulse voltage, whose level is changed when a control signal applied at an input terminal of the transistor is at a high level. pixel units each of which has a photoelectric conversion element and an amplifying unit that amplifies an output signal from the photoelectric conversion element and which are two-dimensionally arranged; at least one row of optical black units each of which includes a photoelectric conversion element, an amplifying unit, and a light shielding film that covers the photoelectric conversion element, the photoelectric conversion element and the amplifying unit being the same as those of the pixel unit; and at least one row of optical gray units each of which includes an amplifying unit which is the same as that of the pixel unit and to which a reference voltage is input, and a correction circuit that corrects an output signal from the pixel unit on the basis of an output signal from the optical black unit and an output signal from the optical gray unit, wherein a value of the reference voltage is less than a value of the output signal from the photoelectric conversion element in a saturated state, wherein the optical gray unit includes a capacitive element that is connected in series between a reference voltage and an input terminal of the amplifying unit through a transistor, and the reference voltage is a pulse voltage, whose level is changed when a control signal applied at an input terminal of the transistor is at a high level.
A device for removing material from body lumens, the device comprising: a catheter body having a proximal end, a distal end and a catheter lumen extending therethrough; a cutter assembly located at the distal end of the catheter body, the cutter assembly comprising: a housing having at least one opening; a cutter configured to rotate within the housing, the cutter including at least one fluted cutting edge that is configured to cut in a direction that is tangential to the rotational direction of the cutter; a torque shaft extending through the catheter lumen and having a first end coupled to the cutter assembly and a second end adapted to couple to a rotating mechanism, wherein an exterior surface of the torque shaft comprises a raised surface helically located thereon and adapted such that upon rotation, the raised surface conveys materials in a proximal direction, characterised by a burr protruding distal of the cutter assembly. a catheter body having a proximal end, a distal end and a catheter lumen extending therethrough; a cutter assembly located at the distal end of the catheter body, the cutter assembly comprising: a housing having at least one opening; a cutter configured to rotate within the housing, the cutter including at least one fluted cutting edge that is configured to cut in a direction that is tangential to the rotational direction of the cutter; a torque shaft extending through the catheter lumen and having a first end coupled to the cutter assembly and a second end adapted to couple to a rotating mechanism, wherein an exterior surface of the torque shaft comprises a raised surface helically located thereon and adapted such that upon rotation, the raised surface conveys materials in a proximal direction, characterised by a burr protruding distal of the cutter assembly. a housing having at least one opening; a cutter configured to rotate within the housing, the cutter including at least one fluted cutting edge that is configured to cut in a direction that is tangential to the rotational direction of the cutter; a torque shaft extending through the catheter lumen and having a first end coupled to the cutter assembly and a second end adapted to couple to a rotating mechanism, wherein an exterior surface of the torque shaft comprises a raised surface helically located thereon and adapted such that upon rotation, the raised surface conveys materials in a proximal direction, characterised by a burr protruding distal of the cutter assembly.