mhurhangee/patent-ind-claim-en huggingface dataset:
An ear mount comprising: a body part mounted on a conchal cavity (Eb) in a use state, the body part including a protrusion , a cylindrical part extending from the protrusion , an inner housing on which the protrusion is formed, and a cover configured to cover the inner housing ; and an insertion part mounted on the cylindrical part and inserted into an ear canal in the use state, wherein the cover includes a first end sealed and fixed to the inner housing , an intermediate part separated from the inner housing to form an air chamber (V) between the intermediate part and the inner housing , and configured to cover the protrusion , a second end located opposite to the first end with the intermediate part therebetween, and an opening located at the second end and through which the cylindrical part is inserted, characterised in that the ear mount comprises a pressure regulator configured to control ventilation of air between the air chamber (V) and an outer space (Vg) through the opening in accordance with a pressure difference between the air chamber (V) and the outer space (Vg), and wherein the pressure regulator includes the opening , the intermediate part , and the protrusion . a body part mounted on a conchal cavity (Eb) in a use state, the body part including a protrusion , a cylindrical part extending from the protrusion , an inner housing on which the protrusion is formed, and a cover configured to cover the inner housing ; and a protrusion , a cylindrical part extending from the protrusion , an inner housing on which the protrusion is formed, and a cover configured to cover the inner housing ; and an insertion part mounted on the cylindrical part and inserted into an ear canal in the use state, wherein the cover includes a first end sealed and fixed to the inner housing , an intermediate part separated from the inner housing to form an air chamber (V) between the intermediate part and the inner housing , and configured to cover the protrusion , a second end located opposite to the first end with the intermediate part therebetween, and an opening located at the second end and through which the cylindrical part is inserted, characterised in that a first end sealed and fixed to the inner housing , an intermediate part separated from the inner housing to form an air chamber (V) between the intermediate part and the inner housing , and configured to cover the protrusion , a second end located opposite to the first end with the intermediate part therebetween, and an opening located at the second end and through which the cylindrical part is inserted, characterised in that the ear mount comprises a pressure regulator configured to control ventilation of air between the air chamber (V) and an outer space (Vg) through the opening in accordance with a pressure difference between the air chamber (V) and the outer space (Vg), and wherein the pressure regulator includes the opening , the intermediate part , and the protrusion .
A secondary battery charging and discharging apparatus for performing a secondary battery activation process, comprising: a plurality of compression plates disposed to face each other to form a cell insert space (S) therebetween in which a secondary battery cell is disposed, the plurality of compression plates moving to reduce a gap therebetween to press a body of the secondary battery cell; gripper units respectively mounted to the compression plates to move integrally with the compression plates, the gripper units coming into contact with an electrode lead of the secondary battery cell when the compression plate presses the body of the secondary battery cell, wherein the gripper unit includes: a gripper head portion placed on the compression plate; and a gripper pressing portion extending from the gripper head portion to the cell insert space; and push bar units respectively mounted to the compression plates to be adjacent to the gripper units and configured to press a terrace portion of the secondary battery cell adjacent to the electrode lead, characterized in that the gripper head portion is provided to be slidable along a top end of the compression plate while supporting the gripper pressing portion. a plurality of compression plates disposed to face each other to form a cell insert space (S) therebetween in which a secondary battery cell is disposed, the plurality of compression plates moving to reduce a gap therebetween to press a body of the secondary battery cell; gripper units respectively mounted to the compression plates to move integrally with the compression plates, the gripper units coming into contact with an electrode lead of the secondary battery cell when the compression plate presses the body of the secondary battery cell, wherein the gripper unit includes: a gripper head portion placed on the compression plate; and a gripper pressing portion extending from the gripper head portion to the cell insert space; and push bar units respectively mounted to the compression plates to be adjacent to the gripper units and configured to press a terrace portion of the secondary battery cell adjacent to the electrode lead, characterized in that the gripper head portion is provided to be slidable along a top end of the compression plate while supporting the gripper pressing portion. a gripper head portion placed on the compression plate; and a gripper pressing portion extending from the gripper head portion to the cell insert space; and push bar units respectively mounted to the compression plates to be adjacent to the gripper units and configured to press a terrace portion of the secondary battery cell adjacent to the electrode lead, characterized in that the gripper head portion is provided to be slidable along a top end of the compression plate while supporting the gripper pressing portion.
A method for setting an axial position of a drive of a spinning rotor of a rotor spinning device relative to a cover element of the rotor spinning device , the spinning rotor comprising a shaft and a rotor cup disposed thereon, rotating by the drive of the spinning rotor about the axis (A) thereof, the rotor cup being disposed in a rotor housing closed off by the cover element and the drive is supported on a support of the rotor spinning device , characterized in that the shaft of the spinning rotor is connected to a setting gage for setting an axial position of the drive thereof for spinning operation, that a mechanical or electronic measurement head, preferably a sensor , is disposed on the support or on the cover element , that the distance (L) between the setting gage and the measurement head is measured and the axial position of the drive in the support is modified according to the measured distance (L) until the distance (L) corresponds to a specified value and the position of the drive relative to the support is then fixed to set the position of the drive for spinning operation.
A method of manufacturing a spray partition (Pp1; Pp2; Pp3; Pp4; Pp5) pierced by a network of holes (O1; O2; O1; O2; O3) through which a fluid product passes under pressure so as to be broken into fine droplets, the process comprising the following steps: a) providing a laser source (S) able to produce a laser beam (F), b) forming the laser beam (F) into an array of parallel partial laser beams (Fpp; Fpc; Fpd), by directing the laser beam (F) onto at least one mask (M) able to block or absorb a portion of the laser beam (F) and to allow another portion of the laser beam (F) to pass or be reflected in the form of the array of partial laser beams (Fpp; Fpc; Fpd), c) directing the array of partial laser beams (Fpp; Fpc; Fpd) so as to strike a membrane (P0; P0'), d) letting the array of partial laser beams (Fpp; Fpc; Fpd) strike the membrane (P0; P0') with a view to piercing a network of holes into it (O1; O2; O3; O4; O5), so as to obtain a spray partition (Pp1; Pp2; Pp3; Pp4; Pp5) pierced with network of holes (O1; O2; O3; O4; O5), the entirety of the holes (O1; O2; O3; O4; O5) of the spray partition (Pp1; Pp2; Pp3; Pp4; Pp5) are pierced consecutively by a plurality of arrays of partial laser beams, characterised in that several series of holes (O1; O2; O3; O4; O5) are made consecutively with masks (M), the number of holes (O1; O2; O3; O4; O5) per series being less than about 30, advantageously about 20 and preferably about 10, so as to increase the space between two holes in the same series of holes without reducing the final density of holes in the spray partition. a) providing a laser source (S) able to produce a laser beam (F), b) forming the laser beam (F) into an array of parallel partial laser beams (Fpp; Fpc; Fpd), by directing the laser beam (F) onto at least one mask (M) able to block or absorb a portion of the laser beam (F) and to allow another portion of the laser beam (F) to pass or be reflected in the form of the array of partial laser beams (Fpp; Fpc; Fpd), c) directing the array of partial laser beams (Fpp; Fpc; Fpd) so as to strike a membrane (P0; P0'), d) letting the array of partial laser beams (Fpp; Fpc; Fpd) strike the membrane (P0; P0') with a view to piercing a network of holes into it (O1; O2; O3; O4; O5), so as to obtain a spray partition (Pp1; Pp2; Pp3; Pp4; Pp5) pierced with network of holes (O1; O2; O3; O4; O5), the entirety of the holes (O1; O2; O3; O4; O5) of the spray partition (Pp1; Pp2; Pp3; Pp4; Pp5) are pierced consecutively by a plurality of arrays of partial laser beams,
A guiding device for inserting and guiding a harvesting cannula below the skin of a patient, comprising: a hollow cylindrical holder ; a cantilever straight bar , integral with the cylindrical holder , having a planar abutting surface adapted to slide in contact with the skin of the patient when the harvesting cannula is immersed in a subcutaneous adipose tissue below the skin of the patient; said hollow cylindrical holder being shaped so as to hold a longitudinal axis of said harvesting cannula parallel to said planar abutting surface and at a pre-established distance from said planar abutting surface equal to a depth at which there is said subcutaneous adipose tissue below the skin; said cantilever straight bar having a longitudinal length such that to make a tip of the harvesting cannula protrude beyond a distal end of the cantilever straight bar exactly for a length corresponding to said pre-established distance characterized in that it further comprises a syringe equipped with the harvesting cannula, a barrel and a plunger sliding inside the barrel and wherein barrel is mounted in said hollow cylindrical holder in a removable manner; wherein said hollow cylindrical holder has a side opening configured to let a usert see the barrel of the syringe housed into said hollow cylindrical holder whilst it is filled with cells of said subcutaneous adipose tissue. a hollow cylindrical holder ; a cantilever straight bar , integral with the cylindrical holder , having a planar abutting surface adapted to slide in contact with the skin of the patient when the harvesting cannula is immersed in a subcutaneous adipose tissue below the skin of the patient; said hollow cylindrical holder being shaped so as to hold a longitudinal axis of said harvesting cannula parallel to said planar abutting surface and at a pre-established distance from said planar abutting surface equal to a depth at which there is said subcutaneous adipose tissue below the skin; said cantilever straight bar having a longitudinal length such that to make a tip of the harvesting cannula protrude beyond a distal end of the cantilever straight bar exactly for a length corresponding to said pre-established distance characterized in that it further comprises a syringe equipped with the harvesting cannula, a barrel and a plunger sliding inside the barrel and wherein barrel is mounted in said hollow cylindrical holder in a removable manner; wherein said hollow cylindrical holder has a side opening configured to let a usert see the barrel of the syringe housed into said hollow cylindrical holder whilst it is filled with cells of said subcutaneous adipose tissue.
A wire rod for springs with excellent corrosion fatigue resistance, comprising: C: 0.40 to 0.70%, Si: 1.30 to 2.30%, Mn: 0.20 to 0.80%, Cr: 0.20 to 0.80%, Cu: 0.01 to 0.40%, Ni: 0.10 to 0.60%, Mo: 0.01 to 0.40%, P: 0.02% or less, S: 0.015% or less, N: 0.01% or less, optionally one or more elements selected from among V: 0.01 to 0.20%, Ti: 0.01 to 0.15%, and Nb: 0.01 to 0.10% and a balance of Fe and inevitable impurities by weight%, wherein the wire rod satisfies equation 1 below: -0.14 ≤ 0.70[Cr] - 0.76[Cu] - 0.24[Ni] ≤ 0.47 where each element symbol is a value of a content of each element measured by weight%, wherein a microstructure comprises 50 area% or less of ferrite and a balance of pearlite, and wherein the wire rod comprises 8.5×10 4 count/mm 2 or higher of Mo-based carbides, wherein the Mo-based carbides are carbides including 5wt% or higher of Mo, said Mo-based carbides measured using a transmission electron microscope and energy dispersive X-ray spectroscopy after extracting fine carbides from the cross-section of the wire rod by the replica method. C: 0.40 to 0.70%, Si: 1.30 to 2.30%, Mn: 0.20 to 0.80%, Cr: 0.20 to 0.80%, Cu: 0.01 to 0.40%, Ni: 0.10 to 0.60%, Mo: 0.01 to 0.40%, P: 0.02% or less, S: 0.015% or less, N: 0.01% or less, optionally one or more elements selected from among V: 0.01 to 0.20%, Ti: 0.01 to 0.15%, and Nb: 0.01 to 0.10% and a balance of Fe and inevitable impurities by weight%, wherein the wire rod satisfies equation 1 below: -0.14 ≤ 0.70[Cr] - 0.76[Cu] - 0.24[Ni] ≤ 0.47 where each element symbol is a value of a content of each element measured by weight%, wherein a microstructure comprises 50 area% or less of ferrite and a balance of pearlite, and wherein the wire rod comprises 8.5×10 4 count/mm 2 or higher of Mo-based carbides, wherein the Mo-based carbides are carbides including 5wt% or higher of Mo, said Mo-based carbides measured using a transmission electron microscope and energy dispersive X-ray spectroscopy after extracting fine carbides from the cross-section of the wire rod by the replica method. where each element symbol is a value of a content of each element measured by weight%, wherein a microstructure comprises 50 area% or less of ferrite and a balance of pearlite, and wherein the wire rod comprises 8.5×10 4 count/mm 2 or higher of Mo-based carbides, wherein the Mo-based carbides are carbides including 5wt% or higher of Mo, said Mo-based carbides measured using a transmission electron microscope and energy dispersive X-ray spectroscopy after extracting fine carbides from the cross-section of the wire rod by the replica method.
A fluid reservoir comprising: a housing defining a cavity to receive a fluid ; a conductor to connect with a current source (15a; 15b), wherein the conductor is to provide a current to the fluid; a sensing rod (25b-2) to connect with a sensor to detect an electrical signal from the conductor , wherein the sensing rod (25b-2) extends from a top of the housing to a position in the cavity, and wherein the sensing rod (25b-2) has a first diameter; and a tip (30a-2; 30b-2) disposed at an end of the sensing rod (25b-2) to interact with a surface of the fluid, characterized in that the tip (30b-2) has a second diameter over a uniform portion (32c; 32d; 32e) of the tip (30b-2) adjacent to the sensing rod (25b-2), wherein the second diameter is smaller than the first diameter; and wherein the housing includes a well formed at a bottom of the housing to increase sensitivity of the tip (30b-2) to a volume change, wherein the tip (30b-2) is arranged in the well . a housing defining a cavity to receive a fluid ; a conductor to connect with a current source (15a; 15b), wherein the conductor is to provide a current to the fluid; a sensing rod (25b-2) to connect with a sensor to detect an electrical signal from the conductor , wherein the sensing rod (25b-2) extends from a top of the housing to a position in the cavity, and wherein the sensing rod (25b-2) has a first diameter; and a tip (30a-2; 30b-2) disposed at an end of the sensing rod (25b-2) to interact with a surface of the fluid, characterized in that the tip (30b-2) has a second diameter over a uniform portion (32c; 32d; 32e) of the tip (30b-2) adjacent to the sensing rod (25b-2), wherein the second diameter is smaller than the first diameter; and wherein the housing includes a well formed at a bottom of the housing to increase sensitivity of the tip (30b-2) to a volume change, wherein the tip (30b-2) is arranged in the well .
Mascara brush with an inner core of at least two wire portions twisted together, and a bristle covering of bristles formed by filaments that are each held clamped between the two wire portions , wherein the bristles have a wedge-shaped pointed portion at their free ends, characterized in that the bristles have a bristle jacket formed of a first, softer material and a bristle core , which is connected to the bristle jacket and formed of a second, in contrast, harder material, wherein the first and the second material are made of plastic and the two plastics are firmly connected to one another by coextrusion.
A subsea rotating machine having a proximity sensing system comprising: a rotating portion ; a non-rotating pressure housing surrounding the rotating portion , wherein the non-rotating pressure housing comprises: an outer pump pressure casing ; a conduit formed through the outer pump pressure casing of the non-rotating pressure housing having, an inner end opening near a target surface of the rotating portion and an outer end opening to an outer surface of the outer pump pressure casing of the non-rotating pressure housing ; a proximity sensor probe fixed within the conduit at its inner end, the proximity sensor probe having a sensor tip configured and positioned to sense distance between the sensor tip and the target surface; a high pressure penetrator configured to form a high-pressure seal with the non-rotating pressure housing ; and a cable running from the proximity sensor probe , through the conduit and the outer pump pressure casing to the high pressure penetrator , characterized by : the non-rotating pressure housing comprising an inner pump housing within the outer pump pressure casing ; the conduit being formed through the inner pump housing of the non-rotating pressure housing ; and the proximity sensor probe being fixed within the conduit at its inner end within the inner pump housing . a rotating portion ; a non-rotating pressure housing surrounding the rotating portion , wherein the non-rotating pressure housing comprises: an outer pump pressure casing ; a conduit formed through the outer pump pressure casing of the non-rotating pressure housing having, an inner end opening near a target surface of the rotating portion and an outer end opening to an outer surface of the outer pump pressure casing of the non-rotating pressure housing ; a proximity sensor probe fixed within the conduit at its inner end, the proximity sensor probe having a sensor tip configured and positioned to sense distance between the sensor tip and the target surface; a high pressure penetrator configured to form a high-pressure seal with the non-rotating pressure housing ; and a cable running from the proximity sensor probe , through the conduit and the outer pump pressure casing to the high pressure penetrator , characterized by : the non-rotating pressure housing comprising an inner pump housing within the outer pump pressure casing ; the conduit being formed through the inner pump housing of the non-rotating pressure housing ; and the proximity sensor probe being fixed within the conduit at its inner end within the inner pump housing .
Valve apparatus for a pressure-actuated system, in particular the brake system of a motor vehicle, with a pressure medium input to which a pressure source can be connected, and with a relay valve which controls the pressure medium input and can be actuated via a control input of the valve apparatus , wherein the pressure in the control input acts in a control chamber on a relay piston arranged to be linearly moveable, which relay piston is the actuating means for a valve member of the relay valve , which is formed as a valve ring and is held on a valve seat by a valve spring in the closed position, with at least one pressure medium output to which a consumer can be connected, with for each pressure medium output a pressure-actuated outlet valve which controls a fluidic connection of the pressure medium output to a main purge leading to atmosphere of the valve apparatus , and for each pressure medium output a pressure-actuated inlet valve arranged between the relay valve and the pressure medium output , wherein at least one outlet valve and/or at least one inlet valve is formed as a diaphragm valve and has as a closing member a valve diaphragm which lies on a valve seat and opens against the pressure in a purge chamber of the outlet valve or against the pressure in a purge chamber of the inlet valve , wherein each diaphragm valve is assigned an electrically actuatable valve which controls a fluidic connection of the purge chamber to a purge line, characterized in that the purge line of at least one diaphragm valve is fluidically connected to the control input of the relay valve .
A wireless communication device comprising: circuitry operative to map at most one type of reference signals, RSs, from cell-specific reference signals, CRSs, and demodulation reference signals, DMRSs, in each shortened transmission time interval, TTI, in a subframe, each shortened TTI consisting of 2 orthogonal frequency division multiplexing, OFDM, symbols; and a transmitter operative to transmit a physical channel in a shortened TTI, the RSs within the OFDM symbols of the shortened TTI transmitting the physical channel being used to demodulate the physical channel at a receiving side, wherein: either CRSs or DMRSs are mapped in each shortened TTI, respectively, shortened TTIs without CRS include an OFDM symbol with DMRS, and a number of OFDM symbols between adjacent RSs differs within the subframe. circuitry operative to map at most one type of reference signals, RSs, from cell-specific reference signals, CRSs, and demodulation reference signals, DMRSs, in each shortened transmission time interval, TTI, in a subframe, each shortened TTI consisting of 2 orthogonal frequency division multiplexing, OFDM, symbols; and a transmitter operative to transmit a physical channel in a shortened TTI, the RSs within the OFDM symbols of the shortened TTI transmitting the physical channel being used to demodulate the physical channel at a receiving side, wherein: either CRSs or DMRSs are mapped in each shortened TTI, respectively, shortened TTIs without CRS include an OFDM symbol with DMRS, and a number of OFDM symbols between adjacent RSs differs within the subframe. either CRSs or DMRSs are mapped in each shortened TTI, respectively, shortened TTIs without CRS include an OFDM symbol with DMRS, and a number of OFDM symbols between adjacent RSs differs within the subframe.
A method of coating a surface of a metal substrate, said method comprising : - providing the metal substrate, - depositing a titanium alloy on the surface of the metal substrate consisting of titanium and 1% -30% by weight of one doping element chosen between niobium or tantalum; and - growing a doped conductive titanium oxide material on a first surface of the titanium alloy naturally or using a process selected from thermal oxidation, anodizing and plasma oxidation, wherein the doped titanium oxide material is doped with niobium or tantalum, so that the titanium alloy is between the doped titanium oxide surface and the metal substrate. - providing the metal substrate, - depositing a titanium alloy on the surface of the metal substrate consisting of titanium and 1% -30% by weight of one doping element chosen between niobium or tantalum; and - growing a doped conductive titanium oxide material on a first surface of the titanium alloy naturally or using a process selected from thermal oxidation, anodizing and plasma oxidation, wherein the doped titanium oxide material is doped with niobium or tantalum, so that the titanium alloy is between the doped titanium oxide surface and the metal substrate.