mhurhangee/ep-ind-claims huggingface dataset:
A composite marker (100; 500a; 500b; 900; 1000; 1100), comprising: a gel body (104; 504; 604; 704; 804; 1104) having an outer surface; a first plurality of ultrasound reflective elements carried in or on the gel body (104; 504; 604; 704; 804; 1104), each ultrasound reflective element respectively comprising a body having at least one cavity and at least one fluid in the at least one cavity to provide reflectivity of ultrasound imaging signals, wherein the at least one cavity of the ultrasound reflective element contains entrapped gas or liquid to provide reflectivity of ultrasound imaging signals, each ultrasound reflective element is porous, and each ultrasound reflective element (!02) comprises a hydrophobic coating that at least temporarily seals one or more pores thereof; an activated and/or hydrolyzed fluorescent dye carried in or on the gel body (104; 504; 604; 704; 804; 1104), wherein the activated and/or hydrolyzed fluorescent dye is activated and/or hydrolyzed when the fluorescent dye is exposed to the gel body (104; 504; 604; 704; 804; 1104) when the composite marker is formed; and at least one radiopaque element (110; 510; 910; 1010; 1110) carried in or on the gel body (104; 504; 604; 704; 804; 1104), wherein the at least one radiopaque element (110; 510; 910; 1010; 1110) is not disposed around the outer surface of the gel body (104; 504; 604; 704; 804; 1104). a gel body (104; 504; 604; 704; 804; 1104) having an outer surface; a first plurality of ultrasound reflective elements carried in or on the gel body (104; 504; 604; 704; 804; 1104), each ultrasound reflective element respectively comprising a body having at least one cavity and at least one fluid in the at least one cavity to provide reflectivity of ultrasound imaging signals, wherein the at least one cavity of the ultrasound reflective element contains entrapped gas or liquid to provide reflectivity of ultrasound imaging signals, each ultrasound reflective element is porous, and each ultrasound reflective element (!02) comprises a hydrophobic coating that at least temporarily seals one or more pores thereof; an activated and/or hydrolyzed fluorescent dye carried in or on the gel body (104; 504; 604; 704; 804; 1104), wherein the activated and/or hydrolyzed fluorescent dye is activated and/or hydrolyzed when the fluorescent dye is exposed to the gel body (104; 504; 604; 704; 804; 1104) when the composite marker is formed; and at least one radiopaque element (110; 510; 910; 1010; 1110) carried in or on the gel body (104; 504; 604; 704; 804; 1104), wherein the at least one radiopaque element (110; 510; 910; 1010; 1110) is not disposed around the outer surface of the gel body (104; 504; 604; 704; 804; 1104).
An apparatus of manufacturing an aerogel sheet, the apparatus comprising: a tray device including a tray vessel which has a structure that is sealed by a cover and in which a fiber sheet is accommodated a connection part disposed on one side of the tray vessel and connected to a silica precursor injection device or a surface modification device; a rotation device comprising a rotation rod to which the tray device is fixed and a driving member rotating the rotation rod so that the tray device is disposable on an upper or lower portion of the rotation rod; the silica precursor injection device injecting a silica precursor into the tray device if disposed on the upper portion of the rotation rod to impregnate the silica precursor into the fiber sheet; and the surface modification device injecting a coating solution into the tray device if disposed on the lower portion of the rotation rod to modify a surface of the fiber sheet in which the silica precursor is impregnated, wherein the tray device comprises a tray vessel which has a structure that is sealed by a cover and in which the fiber sheet is accommodated and a connection part disposed on one side of the tray vessel and connected to the silica precursor injection device or the surface modification device. a tray device including a tray vessel which has a structure that is sealed by a cover and in which a fiber sheet is accommodated a connection part disposed on one side of the tray vessel and connected to a silica precursor injection device or a surface modification device; a rotation device comprising a rotation rod to which the tray device is fixed and a driving member rotating the rotation rod so that the tray device is disposable on an upper or lower portion of the rotation rod; the silica precursor injection device injecting a silica precursor into the tray device if disposed on the upper portion of the rotation rod to impregnate the silica precursor into the fiber sheet; and the surface modification device injecting a coating solution into the tray device if disposed on the lower portion of the rotation rod to modify a surface of the fiber sheet in which the silica precursor is impregnated,
A phacomorcellation device configured to prevent lens fragments from floating to a posterior portion of an eye, the phacomorcellation device comprising: a stationary outer tubular cutting member (255, 355, 455) having a proximal end and a distal end, the proximal end coupled to a housing, the distal end having a first opening; a motor positioned within the housing and selectively controllable by one or more user control inputs coupled to the housing; and an inner cutting member (260, 360, 460) having a proximal end and a distal end, the inner cutting member positioned within the stationary outer tubular cutting member, the motor coupled to the proximal end to rotate the inner cutting member relative to the stationary outer tubular cutting member, the inner cutting member having a second opening that is substantially symmetrical to the first opening, the second opening having a second cutting edge; wherein the first opening is substantially closed when the inner cutting member is rotated into a closed position, characterised in that the first opening further having a first cutting edge and a first point formed by two intersecting arcs (506A, 506D), the first point positioned on a first side of the first opening and the second opening further having a second cutting edge and a second point formed by two intersecting arcs (506B, 506C). a stationary outer tubular cutting member (255, 355, 455) having a proximal end and a distal end, the proximal end coupled to a housing, the distal end having a first opening; a motor positioned within the housing and selectively controllable by one or more user control inputs coupled to the housing; and an inner cutting member (260, 360, 460) having a proximal end and a distal end, the inner cutting member positioned within the stationary outer tubular cutting member, the motor coupled to the proximal end to rotate the inner cutting member relative to the stationary outer tubular cutting member, the inner cutting member having a second opening that is substantially symmetrical to the first opening, the second opening having a second cutting edge; wherein the first opening is substantially closed when the inner cutting member is rotated into a closed position, characterised in that the first opening further having a first cutting edge and a first point formed by two intersecting arcs (506A, 506D), the first point positioned on a first side of the first opening and the second opening further having a second cutting edge and a second point formed by two intersecting arcs (506B, 506C).
Device, in particular receiving device of a system for magnetic train control, for detecting an information signal transmitted by means of a magnetic DC field, wherein - the device has at least one magnetic field sensor (80, 90) for detecting the information signal, and is embodied for generation of a magnetic test field and for independent verification of the functional capability of the at least one magnetic field sensor (80, 90) on the basis of the generated magnetic test field, - the device has a magnetic circuit for detecting the magnetic flux (Φ info) caused by the magnetic DC field, - the magnetic circuit is embodied such that the detected magnetic flux (Φ info) is divided into at least two magnetic partial fluxes (Φ info1, Φ info2), such that a first part of the magnetic circuit is permeated by a first magnetic partial flux (Φ info1) and a second part of the magnetic circuit is permeated by a second magnetic partial flux (Φ info2). - the device has at least one magnetic field sensor (80, 90) for detecting the information signal, and is embodied for generation of a magnetic test field and for independent verification of the functional capability of the at least one magnetic field sensor (80, 90) on the basis of the generated magnetic test field, - the device has a magnetic circuit for detecting the magnetic flux (Φ info) caused by the magnetic DC field, - the magnetic circuit is embodied such that the detected magnetic flux (Φ info) is divided into at least two magnetic partial fluxes (Φ info1, Φ info2), such that a first part of the magnetic circuit is permeated by a first magnetic partial flux (Φ info1) and a second part of the magnetic circuit is permeated by a second magnetic partial flux (Φ info2).
A method comprising: receiving, at a receive phase-to-digital conversion circuit, a modulated signal having a carrier frequency; obtaining a phase measurement between the modulated signal and a local clock signal using the PDC circuit; generating a carrier-based phase correction value using a carrier-based phase correction circuit coupled to the PDC circuit by accumulating a phase-correction increment; generating a corrected phase measurement value based on a difference between the phase measurement and the carrier-based phase correction value; and generating a carrier phase measurement by scaling the corrected phase measurement value. receiving, at a receive phase-to-digital conversion circuit, a modulated signal having a carrier frequency; obtaining a phase measurement between the modulated signal and a local clock signal using the PDC circuit; generating a carrier-based phase correction value using a carrier-based phase correction circuit coupled to the PDC circuit by accumulating a phase-correction increment; generating a corrected phase measurement value based on a difference between the phase measurement and the carrier-based phase correction value; and generating a carrier phase measurement by scaling the corrected phase measurement value.
An apparatus for overturning sheets and/or panels, comprising: a bearing structure carrying a loading plane; roto-translation means for the vertical translation of said loading plane and for the rotation of said loading plane with respect to an axis (α) perpendicular to the vertical axis of the bearing structure; stabilization and transfer means of a sheet and/or panel, the stabilization and transfer means being carried by said loading plane, and being defining an operating surface; grab means, being carried by said loading plane, for the transfer of a sheet and/or panel from a supply station, being stopped upstream from said apparatus, on the mentioned operating surface; with said loading plane comprising first guiding grooves in which said grab means are movable from a first side of said loading plane to the opposite side thereof, and vice versa, and second guiding grooves in which said stabilization and transfer means are movable from the first side outwardly the loading plane, and vice versa; and by comprising a command and control unit arranged and configured in order to command and control said roto-translation means, said stabilization and transfer means and said grab means, in order to define for said loading plane, in combination with the activation and/or deactivation of the means listed above: a collection position wherein said operating surface is faced upward and side by side with the sheet and/or panel which is located in said supply station so that said grab means transfer said sheet and/or panel from said supply station on the mentioned operating surface in order to be coupled to the latter by means of said stabilization and transfer means; an overturning position wherein said loading plane is rotated with respect to said axis (α) for orienting downwardly said operating surface; an unloading position, being driven in phase with the above-mentioned overturning, wherein said stabilization and transfer means arrange themselves over an unloading station placed downstream from said apparatus, in order to allow the release of the sheet and/or panel, which is carried by said operating surface, from the latter with consequent its release on said unloading station.
An apparatus, comprising: a primary server-end transceiver device (501, 601, 701, 803, 804), the primary server-end transceiver device comprising a photonics transceiver and a first electrical transmitter; a first secondary server-end transceiver device (502, 805, 806), the first secondary server-end transceiver device comprising a second electrical transmitter; a first electrical cable (507, 603, 702a) to electrically couple the primary server-end transceiver device to the first secondary server-end transceiver device and a second secondary server-end QSFP-compliant device (503, 807, 808) to electrically connect to the first secondary server-end transceiver device by a second electrical cable wherein the first electrical cable comprises a first bundle of electrical wires that facilitates an electrical connection between the primary server-end transceiver device and the first secondary server-end transceiver device and a second set of wires (508, 604, 702b) that facilitate an electrical connection between the primary server-end transceiver device and the second secondary server-end transceiver device. a primary server-end transceiver device (501, 601, 701, 803, 804), the primary server-end transceiver device comprising a photonics transceiver and a first electrical transmitter; a first secondary server-end transceiver device (502, 805, 806), the first secondary server-end transceiver device comprising a second electrical transmitter; a first electrical cable (507, 603, 702a) to electrically couple the primary server-end transceiver device to the first secondary server-end transceiver device and a second secondary server-end QSFP-compliant device (503, 807, 808) to electrically connect to the first secondary server-end transceiver device by a second electrical cable wherein the first electrical cable comprises a first bundle of electrical wires that facilitates an electrical connection between the primary server-end transceiver device and the first secondary server-end transceiver device and a second set of wires (508, 604, 702b) that facilitate an electrical connection between the primary server-end transceiver device and the second secondary server-end transceiver device.
A method for generating triacylglyceride by means of culturing algae, the method comprising: culturing Chlamydomonas sp. JSC4 in a culture medium containing sea salt at a concentration of 2 to 5 % by mass.
A process for preparing a tin-containing zeolitic material having an MWW-type framework structure comprising (i) providing a zeolitic material having an MWW-type framework structure comprising X 2 O 3 and YO 2, wherein Y is a tetravalent element selected from the group consisting of Si, Ti, Zr, Ge, and combinations of two or more thereof, wherein Y is preferably Si, and X is a trivalent element selected from the group consisting of Al, B, In, Ga, Fe, and combinations of two or more thereof, wherein X is preferably B, said MWW-type framework structure having vacant tetrahedral framework sites; (ii) providing a tin-ion source in solid form, wherein the tin-ion source is selected from the group consisting of tin alkoxides, tin alkoxides, tin salts of organic acids, tin salts of organic acids, and a mixture a two or more thereof; (iii) incorporating tin into the zeolitic material provided in (i) by bringing the zeolitic material provided in (i) in contact with the tin-ion source provided in (ii) under solid-state ion exchange conditions, obtaining a tin-containing zeolitic material having an MWW-type framework structure. (i) providing a zeolitic material having an MWW-type framework structure comprising X 2 O 3 and YO 2, wherein Y is a tetravalent element selected from the group consisting of Si, Ti, Zr, Ge, and combinations of two or more thereof, wherein Y is preferably Si, and X is a trivalent element selected from the group consisting of Al, B, In, Ga, Fe, and combinations of two or more thereof, wherein X is preferably B, said MWW-type framework structure having vacant tetrahedral framework sites; (ii) providing a tin-ion source in solid form, wherein the tin-ion source is selected from the group consisting of tin alkoxides, tin alkoxides, tin salts of organic acids, tin salts of organic acids, and a mixture a two or more thereof; (iii) incorporating tin into the zeolitic material provided in (i) by bringing the zeolitic material provided in (i) in contact with the tin-ion source provided in (ii) under solid-state ion exchange conditions, obtaining a tin-containing zeolitic material having an MWW-type framework structure.
An injector for preventing accidental needle sticks comprising - a cylinder extending along a longitudinal axis, an inner wall and an outer wall, the cylinder having an outlet at an outlet end opposite an actuating end and a finger grip on the outer wall, - a piston having a piston body and a deformable sealing element, which deformable sealing element abuts the inner wall of the cylinder at an abutting interface and seals an annular gap between the piston body and the inner wall of the cylinder when the piston is inserted in the cylinder, characterised in that the finger grip is positioned between the outlet end and the actuating end, and in that the injector comprises - a needle guard for mounting on the outside of the cylinder from the outlet end or the actuating end, which needle guard comprises a barrel with a mounting end opposite an operating end, the barrel having a slot for receiving the finger grip of the cylinder when the needle guard is mounted on the cylinder, which slot extends from the mounting end towards the operating end, wherein when the needle guard is mounted on the cylinder from the actuating end in a protective position, the barrel extends along the longitudinal axis and projects beyond the outlet end of the cylinder so that when a hypodermic needle is attached at the outlet end, the barrel protects a user from accidental needle sticks. - a cylinder extending along a longitudinal axis, an inner wall and an outer wall, the cylinder having an outlet at an outlet end opposite an actuating end and a finger grip on the outer wall, - a piston having a piston body and a deformable sealing element, which deformable sealing element abuts the inner wall of the cylinder at an abutting interface and seals an annular gap between the piston body and the inner wall of the cylinder when the piston is inserted in the cylinder, characterised in that the finger grip is positioned between the outlet end and the actuating end, and in that the injector comprises - a needle guard for mounting on the outside of the cylinder from the outlet end or the actuating end, which needle guard comprises a barrel with a mounting end opposite an operating end, the barrel having a slot for receiving the finger grip of the cylinder when the needle guard is mounted on the cylinder, which slot extends from the mounting end towards the operating end,
Latching device for an engine hood of a motor vehicle, the latching device comprising a locking mechanism having a catch and a pawl for ratcheting the catch in a main ratchet position, the latching device further comprising a catch hook which can limit an opening movement of a latch holder after the locking mechanism is opened at a securing position between a provided closed position and a provided open position, there being an end position of the latching device, in which the latch holder can only descend from the provided closed position in the case of overloading, characterized in that the catch hook has a barrier and the latching device is designed such that, during a latching process in the case of an excessively high latching speed, the latching movement of the latch holder is limited by the barrier at the provided closed position of the latch holder.
A method for use in measurement reporting, the method comprising: causing a message to be transmitted to a mobile terminal indicating that the mobile terminal is to perform measurements in relation to a secondary uplink frequency; and receiving an indication of periodic measurements in relation to the secondary uplink frequency performed by the mobile terminal, characterised in that: the message indicates that the mobile terminal is to perform periodic measurements in relation to the secondary uplink frequency, and the message includes control information specific to the secondary uplink frequency, independent of any other frequency to be measured. causing a message to be transmitted to a mobile terminal indicating that the mobile terminal is to perform measurements in relation to a secondary uplink frequency; and receiving an indication of periodic measurements in relation to the secondary uplink frequency performed by the mobile terminal, characterised in that: the message indicates that the mobile terminal is to perform periodic measurements in relation to the secondary uplink frequency, and the message includes control information specific to the secondary uplink frequency, independent of any other frequency to be measured. the message indicates that the mobile terminal is to perform periodic measurements in relation to the secondary uplink frequency, and the message includes control information specific to the secondary uplink frequency, independent of any other frequency to be measured.
Aqueous solution which comprises at least one transition and/or main group metal salt for therapeutic use as a conditioning agent for teeth, wherein the transition and/or main group metal salt is a salt of Zr 4+, Hf 4+, Ti 4+ or Bi 3+.
An electrical power supply system, comprising: a power supply housing configured to receive at least one power supply unit therein and including: an aperture therethrough forming a generally elongate opening having two long sides (74,76) and two short sides (78,80), and providing communication between a respective power supply unit and an ambient environment outside the housing, and a pair of flexible locking members (82,84) adjacent the aperture and disposed along a length of a respective long side (74,76); a sensor having a sensing element and configured to sense a temperature of a respective power supply unit; and a sensor housing surrounding at least a portion of the sensor, the sensor housing including a first portion surrounding at least a portion of the sensing element to electrically insulate the sensing element from the respective power supply unit, the first portion of the sensor housing being configured to be disposed through the aperture in the power supply housing to contact the respective power supply unit to facilitate conductive heat transfer between the respective power supply unit and the first portion of the sensor housing, the sensor housing including a retaining feature having a raised portion including a generally quadrilateral cross section having two long sides and two short sides (62,64), and configured to cooperate with the flexible locking members (82,84)to inhibit movement of the sensor housing, thereby maintaining contact between the first portion of the sensor housing and the respective power supply unit, the raised portion being further configured to be at least partially inserted into the elongate opening in a first position wherein the long sides of the raised portion are parallel to the long sides (74,76) of the elongate opening, the sensor housing being rotatable in the elongate opening to a second position wherein the long sides of the raised portion are generally perpendicular to the long sides (72,74) of the elongate opening, and the raised portion engages the flexible locking members (82,84).