mhurhangee/ep-ind-claims huggingface dataset:
A single core submarine cable comprising: a cable core; an inner protecting layer positioned outside of the cable core; and an armor layer positioned outside of the inner protecting layer, wherein the single core submarine cable comprises a first section and a second section, characterized in that, the armor layer comprises first metal wires and second metal wires with a constant sum of number in the first section and the second section of the single core submarine cable, the number of the first metal wires and the second metal wires is different between the first section and the second section, the first metal wires and the second metal wires on the first and second sections are continuously arranged around the circumference of the inner protecting layer, wherein the first metal wires are copper wires, aluminium wires, or a combination thereof and the second wires are steel wires. a cable core; an inner protecting layer positioned outside of the cable core; and an armor layer positioned outside of the inner protecting layer, wherein the single core submarine cable comprises a first section and a second section, characterized in that, the armor layer comprises first metal wires and second metal wires with a constant sum of number in the first section and the second section of the single core submarine cable, the number of the first metal wires and the second metal wires is different between the first section and the second section, the first metal wires and the second metal wires on the first and second sections are continuously arranged around the circumference of the inner protecting layer, wherein the first metal wires are copper wires, aluminium wires, or a combination thereof and the second wires are steel wires.
A recombinant human cytolytic fusion protein (hCFP) suitable to induce apoptosis in human target cells comprising a target cell-specific binding component and a human effector domain, wherein the binding component comprises an antibody or an antibody fragment with an antigen-binding site for binding to the cellular surface receptor CD64, and the effector domain comprises a variant of wild type human angiogenin (Ang) as shown in SEQ ID NO: 1, wherein the variant of the wild type human angiogenin as shown in SEQ ID NO: 1 contains at least substitutions at positions that correspond structurally or by amino acid sequence homology to positions 85, 86 and 117, and wherein the substitutions are G85R, G86R and Q117G, and wherein the amino acid sequence of said variant is at least 80% identical to the amino acid sequence of SEQ ID NO: 1.
A ball joint unit, the unit comprising: a ball member; a plurality of lubricant reception recesses formed on a surface of the ball member, each having a predetermined depth; a rod member connected to a first element to be integrally formed with the ball member; and a retainer connected to a second element and formed with a spherical ball member receptor corresponding in shape to the ball member, a lubricant being accommodated and coated in an interior of the lubricant reception recesses and a surface of the ball member characterized in that each lubricant reception recess is flat at a floor surface, and each floor surface is formed in parallel with an axial direction of the rod member. a ball member; a plurality of lubricant reception recesses formed on a surface of the ball member, each having a predetermined depth; a rod member connected to a first element to be integrally formed with the ball member; and a retainer connected to a second element and formed with a spherical ball member receptor corresponding in shape to the ball member, a lubricant being accommodated and coated in an interior of the lubricant reception recesses and a surface of the ball member characterized in that each lubricant reception recess is flat at a floor surface, and each floor surface is formed in parallel with an axial direction of the rod member.
A method for dissecting and collecting one or more cells from a tissue sample (28, 28a-28n) fixed to a microfluidic device (20, 20a-20n), wherein said microfluidic device (20, 20a-20n) includes a channel (26, 26a-26n) having an inlet end (32, 32a-32n) and an outlet end (34, 34a-34n) for flowing fluid therethrough, and wherein said tissue sample (28, 28a-28n) is in fluid communication with said channel (26, 26a-26n), the method comprising: a) flowing a first fluid through the channel (26, 26a-26n) with a fluid flow from the inlet end (32, 32a-32n) to the outlet end (34, 34a-34n); b) communicating said tissue sample (28, 28a-28n) with said flowing first fluid; c) powering a laser to direct laser energy into the channel (26, 26a-26n) to impinge upon the first fluid proximate a first region of the tissue sample (28, 28a-28n) at a distance from a surface of said tissue sample (28, 28a-28n), wherein said distance from said surface of said tissue sample is within about 100 nm to about 1 micron; d) causing fluid cavitation of said flowing first fluid to thereby hydrodynamically ablate a first set of one or more cells (42, 42n) from the tissue sample (28, 28a-28n); e) capturing said ablated first set of one or more cells (42, 42n) within said flowing first fluid for transporting to said outlet end (34, 34a-34n) of said channel (26, 26a-26n); and f) collecting the first set of one or more cells (42, 42n) within a first sample container coupled to the outlet end (34, 34a-34n). a) flowing a first fluid through the channel (26, 26a-26n) with a fluid flow from the inlet end (32, 32a-32n) to the outlet end (34, 34a-34n); b) communicating said tissue sample (28, 28a-28n) with said flowing first fluid; c) powering a laser to direct laser energy into the channel (26, 26a-26n) to impinge upon the first fluid proximate a first region of the tissue sample (28, 28a-28n) at a distance from a surface of said tissue sample (28, 28a-28n), wherein said distance from said surface of said tissue sample is within about 100 nm to about 1 micron; d) causing fluid cavitation of said flowing first fluid to thereby hydrodynamically ablate a first set of one or more cells (42, 42n) from the tissue sample (28, 28a-28n); e) capturing said ablated first set of one or more cells (42, 42n) within said flowing first fluid for transporting to said outlet end (34, 34a-34n) of said channel (26, 26a-26n); and f) collecting the first set of one or more cells (42, 42n) within a first sample container coupled to the outlet end (34, 34a-34n).
A stick-type cosmetic container for controlling a rotational angle of a rotating body at a predetermined angle, the stick-type cosmetic container comprising: a main body formed at one side thereof with an inlet and at an opposite side thereof with a first rotational angle adjusting part; a rotating body rotatably coupled to the main body; an elevating plate moved up and down inside the main body, the elevating plate having one side to which stick cosmetics are attached and an opposite side at which a screw groove is formed; an operating member coupled to an inside of the rotating body to rotate together with the rotating body, and formed with a screw protrusion coupled to the screw groove of the elevating plate; a second rotational angle adjusting member movable up and down inside the rotating body to rotate together with the rotating body and engaged with the first rotational angle adjusting part; and an elastic member for elastically supporting the second rotational angle adjusting member, wherein, when the rotating body rotates, the second rotational angle adjusting member is repeatedly engaged at a predetermined rotational angle with the first rotational angle adjusting part while elastically moving up and down to constantly control a rotational angle of the rotating body at a predetermined angle. a main body formed at one side thereof with an inlet and at an opposite side thereof with a first rotational angle adjusting part; a rotating body rotatably coupled to the main body; an elevating plate moved up and down inside the main body, the elevating plate having one side to which stick cosmetics are attached and an opposite side at which a screw groove is formed; an operating member coupled to an inside of the rotating body to rotate together with the rotating body, and formed with a screw protrusion coupled to the screw groove of the elevating plate; a second rotational angle adjusting member movable up and down inside the rotating body to rotate together with the rotating body and engaged with the first rotational angle adjusting part; and an elastic member for elastically supporting the second rotational angle adjusting member, wherein, when the rotating body rotates, the second rotational angle adjusting member is repeatedly engaged at a predetermined rotational angle with the first rotational angle adjusting part while elastically moving up and down to constantly control a rotational angle of the rotating body at a predetermined angle.
A peripheral sealing gland to form a seal, between an elongate member and a substantially flat surface having an aperture into which said elongate member extends, said peripheral sealing gland comprising or including, an at least in part frustoconical shaped skirt through which said elongate member is to pass and defining at the upper periphery of the skirt, a deformable upper seal to deform about and seal to a periphery of said elongate member, a flange depending from the lower periphery of said skirt including on its outward from the skirt presented surface, at least one endless lip ("endless lip seal"), to seal when brought into contact, against said substantially flat surface, a compression ring able to bear on said flange, to be fastened to said substantially flat surface to capture the flange therebetween, wherein said compression ring is rigid so as to apply a substantially consistent pressure to said at least one endless lip to form a seal against said substantially flat surface and wherein the compression ring is sufficiently rigid so as to not deform in use, wherein said compression ring includes a first plurality of apertures for receiving fasteners, wherein said flange has a second plurality of apertures at least some of which are co-axial with said first plurality, and wherein said skirt has, toward said flange, a retention flange to bear on and overlap onto a radially inner surface of said compression ring to retain said compression ring to said flange.
An exposure apparatus for exposing a substrate by projecting an image of a pattern onto the substrate through a liquid, the exposure apparatus comprising: a projection optical system for projecting the image of the pattern onto the substrate; a substrate stage which has a substrate holder for holding the substrate and which is movable while holding the substrate on the substrate holder; a nozzle member (13, 23) which has at least any one of a supply port for supplying the liquid onto the substrate and a recovery port for recovering the liquid; characterized in that the apparatus further comprises: a detector configured to detect whether or not the substrate or a dummy substrate is held by the substrate holder; and a control unit (CONT) configured such that it changes a movable area of the substrate stage depending on a detection result obtained by the detector, wherein the control unit restricts the movable area of the substrate stage within an area in which the substrate holder is not positioned under the nozzle member when the detector does not detect the substrate or the dummy substrate. a projection optical system for projecting the image of the pattern onto the substrate; a substrate stage which has a substrate holder for holding the substrate and which is movable while holding the substrate on the substrate holder; a nozzle member (13, 23) which has at least any one of a supply port for supplying the liquid onto the substrate and a recovery port for recovering the liquid; characterized in that the apparatus further comprises: a detector configured to detect whether or not the substrate or a dummy substrate is held by the substrate holder; and a control unit (CONT) configured such that it changes a movable area of the substrate stage depending on a detection result obtained by the detector, a detector configured to detect whether or not the substrate or a dummy substrate is held by the substrate holder; and a control unit (CONT) configured such that it changes a movable area of the substrate stage depending on a detection result obtained by the detector, wherein the control unit restricts the movable area of the substrate stage within an area in which the substrate holder is not positioned under the nozzle member when the detector does not detect the substrate or the dummy substrate.
Fluid valve comprising a drive unit for a valve closing body, the drive unit comprising a core, an electric coil which partially surrounds the core, and an armature which can be moved by the energization of the coil and the resulting magnetic force, the drive unit comprising a main body, on which a support (6.1) for the coil, at least one insertion opening (6.2) for the core and an armature support (6.3) are provided, and the core inserted into the at least one insertion opening (6.2) being fixed to the main body by means of an overmold in such a way that the core assumes a defined position relative to the armature support (6.3), characterized in that the armature support (6.3) comprises a bearing section (6.3.1) for the armature at which the armature is pivotably mounted relative to the main body.
A system for extracting tissue from a patient's body, said system comprising: an elongate shaft assembly comprising an outer sleeve having a tissue-receiving window near a distal tip thereof and an inner sleeve having a lumen and a distal end; wherein the distal end of the inner sleeve comprises a first polarity electrode with a distal electrode edge; exposed surfaces of the outer sleeve comprise a second polarity electrode; and an RF source connectable to the first polarity electrode and the second polarity electrode; wherein the inner sleeve is accommodated within a lumen of the outer sleeve and can be advanced distally from a position proximal to the tissue-receiving window to a position past a distal end of the tissue-receiving window; wherein the system is configured to operate in first and second electrosurgical modes; wherein the system is configured to operate in the first mode during the distal travel of inner sleeve across the tissue-receiving window; wherein, in the first mode, the first polarity electrode acts as an active electrode to focus energy about the first polarity electrode for cutting tissue protruding through the tissue-receiving window and the entire exterior surface of the outer sleeve acts as the return electrode; wherein the system is configured to switch to the second mode when the inner sleeve entirely crosses the tissue-receiving window; wherein, in the second mode, an exposed interior surface of the outer sleeve functions as an active electrode and the first polarity electrode acts as a return electrode. an elongate shaft assembly comprising an outer sleeve having a tissue-receiving window near a distal tip thereof and an inner sleeve having a lumen and a distal end; wherein the distal end of the inner sleeve comprises a first polarity electrode with a distal electrode edge; exposed surfaces of the outer sleeve comprise a second polarity electrode; and an RF source connectable to the first polarity electrode and the second polarity electrode; wherein the inner sleeve is accommodated within a lumen of the outer sleeve and can be advanced distally from a position proximal to the tissue-receiving window to a position past a distal end of the tissue-receiving window; wherein the system is configured to operate in first and second electrosurgical modes; wherein the system is configured to operate in the first mode during the distal travel of inner sleeve across the tissue-receiving window; wherein, in the first mode, the first polarity electrode acts as an active electrode to focus energy about the first polarity electrode for cutting tissue protruding through the tissue-receiving window and the entire exterior surface of the outer sleeve acts as the return electrode; wherein the system is configured to switch to the second mode when the inner sleeve entirely crosses the tissue-receiving window; wherein, in the second mode, an exposed interior surface of the outer sleeve functions as an active electrode and the first polarity electrode acts as a return electrode.
A device for measuring cervical vertebra movement of a user having a head on a body, comprising a sensor unit, a computation unit, a storage unit and a determination unit, wherein the sensor unit comprises at least one transmission part and at least one reception part, either of the transmission part and the reception part is configured to move along with the head of a user and to be stationary relative to the head of the user, and the other one is configured to be fixed relative to the body of the user, wherein the transmission part is configured to transmit a detection signal, wherein the reception part is configured to receive the detection signal transmitted by the transmission part, wherein the computation unit is configured to compute, based on the detection signal received by the reception part, a distance change in a distance between the transmission part and the reception part before and after the head of the user moves, wherein the storage unit is configured to store a mapping table indicating a relation between the distance change and a movement angle of the head of the user, and wherein the determination unit is configured to inquire the mapping table based on the distance change to determine the movement angle of the head of the user. wherein the sensor unit comprises at least one transmission part and at least one reception part, either of the transmission part and the reception part is configured to move along with the head of a user and to be stationary relative to the head of the user, and the other one is configured to be fixed relative to the body of the user, wherein the transmission part is configured to transmit a detection signal, wherein the reception part is configured to receive the detection signal transmitted by the transmission part, wherein the computation unit is configured to compute, based on the detection signal received by the reception part, a distance change in a distance between the transmission part and the reception part before and after the head of the user moves, wherein the storage unit is configured to store a mapping table indicating a relation between the distance change and a movement angle of the head of the user, and wherein the determination unit is configured to inquire the mapping table based on the distance change to determine the movement angle of the head of the user.
Catalytic hydrogenation process which is a catalytic hydrogenation reaction of carbon disulfide (CS 2) to methyl mercaptan, wherein the hydrogenation catalyst is a catalyst comprising the metal combinations Co/Mo, Ni/Mo, Ni/W or W/Mo; said metals being doped with potassium hydroxide or potassium oxide, and the amount of potassium hydroxide or potassium oxide relative to the total weight of the catalyst being between 8% and 14% by weight; and wherein the molar H 2 /CS 2 ratio is between 1:1 and 10:1. said metals being doped with potassium hydroxide or potassium oxide, and the amount of potassium hydroxide or potassium oxide relative to the total weight of the catalyst being between 8% and 14% by weight; and wherein the molar H 2 /CS 2 ratio is between 1:1 and 10:1.
Submarine with at least one ejection tube for ejecting an ejection body from the submarine, and with an ejection device which comprises a working cylinder which is coupled in terms of movement to the ejection body or a piston, coupled in terms of movement to the ejection body, of a working cylinder, characterized in that two lines (28, 30) which are closable with respective shut-off means (38, 40) and have a different line cross section lead to a cylinder chamber of the working cylinder that is to be pressurized for ejecting the ejection body, a pressure fluid being able to be introduced into the cylinder chamber via said shut-off means and the cylinder chamber being connectable in terms of flow to a compressed gas source via said lines.
A cable protector (30,31) comprising a disc shaped member with a central aperture, characterised by an inner face of the cable protector being dished to accommodate the adjacent end of a wound section of cable; an arm extending tangentially from an outer edge of the disc shaped member, the arm comprising a base and a pair of side walls (36,37) which together define a channel to receive and key with a length of cable extending from the wound section of cable; and a tag extending from an outer edge of the disc shaped member for engaging the cable protector with a mechanical link.
A terminal-to-terminal communication method, comprising: selecting (S401, S503), by a first terminal serving as a transmit end in a sidelink communication, one group of values from at least two preset groups of values for a transmission parameter set based on sidelink congestion information, wherein each group of values of the at least two groups of values comprises a value of each transmission parameter in the transmission parameter set; and the transmission parameter comprised in the transmission parameter set comprises transmit power and a modulation and coding scheme, MCS, level; and at least one transmission parameter in the transmission parameter set has at least two values; and sending (S402, S504), by the first terminal, communication data based on the selected one group of values of the transmission parameter set to a second terminal serving as a receive end in the sidelink communication. selecting (S401, S503), by a first terminal serving as a transmit end in a sidelink communication, one group of values from at least two preset groups of values for a transmission parameter set based on sidelink congestion information, wherein each group of values of the at least two groups of values comprises a value of each transmission parameter in the transmission parameter set; and the transmission parameter comprised in the transmission parameter set comprises transmit power and a modulation and coding scheme, MCS, level; and at least one transmission parameter in the transmission parameter set has at least two values; and sending (S402, S504), by the first terminal, communication data based on the selected one group of values of the transmission parameter set to a second terminal serving as a receive end in the sidelink communication.
An inductor-capacitor-resistor, i.e. an LCR, assembly for simultaneous sensing of two or more environmental parameters of a sample, the assembly comprising: an LCR resonator sensor wherein the sensor comprises: an antenna said antenna comprising a sensing region; a sensing film deposited onto the sensing region; an attachment point for mechanically attaching the LCR resonator sensor to the assembly; and a pick up coil (6;20) in operative association with the LCR resonator sensor; wherein said antenna and said pick up coil are couplable by mutual inductance; the assembly being characterized in that viscoelastic changes in the sensing film cause displacement of the antenna relative to the pick up coil. an LCR resonator sensor wherein the sensor comprises: an antenna said antenna comprising a sensing region; a sensing film deposited onto the sensing region; an attachment point for mechanically attaching the LCR resonator sensor to the assembly; and an antenna said antenna comprising a sensing region; a sensing film deposited onto the sensing region; an attachment point for mechanically attaching the LCR resonator sensor to the assembly; and a pick up coil (6;20) in operative association with the LCR resonator sensor; wherein said antenna and said pick up coil are couplable by mutual inductance; the assembly being characterized in that viscoelastic changes in the sensing film cause displacement of the antenna relative to the pick up coil.