mhurhangee/patent-ind-claim-en huggingface dataset:
An inserter suitable for inserting an IOL , comprising: a lumen comprising a longitudinal passageway terminating at an IOL insertion tip suitable for inserting the IOL, and having an inner wall including at least one hollowed portion ; a plunger for advancing along at least an upper portion of the longitudinal passageway and terminating at a distal plunger end ; a reservoir within the longitudinal passageway between the distal plunger end and the IOL insertion tip , and having an opening that is misaligned with the at least one hollowed portion prior to advancing of the plunger and that is aligned with the at least one hollowed portion during advancing of the plunger ; and a viscous fluid within the longitudinal passageway and adjacent to the distal plunger end and to said reservoir , wherein the viscous fluid is contained between the distal plunger end and the reservoir prior to advancing of the plunger, wherein the viscous fluid flows along a bypass formed of the at least one hollowed portion and the opening and into said reservoir . a lumen comprising a longitudinal passageway terminating at an IOL insertion tip suitable for inserting the IOL, and having an inner wall including at least one hollowed portion ; a plunger for advancing along at least an upper portion of the longitudinal passageway and terminating at a distal plunger end ; a reservoir within the longitudinal passageway between the distal plunger end and the IOL insertion tip , and having an opening that is misaligned with the at least one hollowed portion prior to advancing of the plunger and that is aligned with the at least one hollowed portion during advancing of the plunger ; and a viscous fluid within the longitudinal passageway and adjacent to the distal plunger end and to said reservoir , wherein the viscous fluid is contained between the distal plunger end and the reservoir prior to advancing of the plunger, wherein the viscous fluid flows along a bypass formed of the at least one hollowed portion and the opening and into said reservoir .
Cover plate for covering a lateral opening of a shell of an earpiece designed to be worn at least partially within an ear canal, wherein the cover plate has, on a medial side, a circumferential trench for receiving an antenna , wherein the cover plate has, radially outside the trench , a circumferential wall and, adjoining the latter, a face for gluing the shell on, characterized in that the wall protrudes by a height of 1 mm or less above the face for gluing the shell on.
A physical quantity detection device configured for detecting a physical quantity of a measurement target gas passing through a main passage , the physical quantity detection device comprising: a housing inserted into the main passage ; a cover fixed to the housing to constitute in cooperation with the housing a bypass passage into which a part of the measurement target gas flows from the main passage ; a circuit substrate accommodated in the housing to be exposed into the bypass passage; a sensor element attached to the circuit substrate to detect a flow rate of the measurement target gas in the bypass passage; a connection wire electrically connecting the sensor element to the circuit substrate ; and a synthetic resin material applied to a connected portion of the sensor element including the connection wire and the circuit substrate and cured to seal the connected portion, characterized in that the cover includes a protrusion protruding into the bypass passage to cover at least a part of the synthetic resin material with respect to the gas flow. a housing inserted into the main passage ; a cover fixed to the housing to constitute in cooperation with the housing a bypass passage into which a part of the measurement target gas flows from the main passage ; a circuit substrate accommodated in the housing to be exposed into the bypass passage; a sensor element attached to the circuit substrate to detect a flow rate of the measurement target gas in the bypass passage; a connection wire electrically connecting the sensor element to the circuit substrate ; and a synthetic resin material applied to a connected portion of the sensor element including the connection wire and the circuit substrate and cured to seal the connected portion, characterized in that the cover includes a protrusion protruding into the bypass passage to cover at least a part of the synthetic resin material with respect to the gas flow.
A gas-sensing element , comprising: a body comprising a semiconductor that is a metal oxide of a first metal; a gas-sensing surface over the body, comprising metal oxide semiconductor of the first metal and a dopant comprising a second metal that is a transition metal and is different than the first metal; and an auxiliary component comprising a metal chalcogenide disposed at the gas-sensing surface; wherein the sensing element comprises a plurality of alternating deposits of the metal oxide semiconductor of the first metal and deposits of the second metal, disposed in the gas-sensing element between the body and the gas-sensing surface. a body comprising a semiconductor that is a metal oxide of a first metal; a gas-sensing surface over the body, comprising metal oxide semiconductor of the first metal and a dopant comprising a second metal that is a transition metal and is different than the first metal; and an auxiliary component comprising a metal chalcogenide disposed at the gas-sensing surface; wherein the sensing element comprises a plurality of alternating deposits of the metal oxide semiconductor of the first metal and deposits of the second metal, disposed in the gas-sensing element between the body and the gas-sensing surface.
A charged particle optical system , comprising: a source configured to emit a primary beam of charged particles that impinge on a sample; a detection device ; a charged particle optical column configured to collect charged particles from the sample and image the charged particles onto the detection device having an active portion formed on a substrate , which is the area of the detection device that is configured to produce a signal in response to secondary charged particles emitted from the sample landing on the active portion , wherein the substrate is symmetric with respect to an axis through a central aperture of the detection device and wherein the active portion is asymmetric with respect to the axis to accommodate an estimated axially asymmetrical distribution of the secondary particles at the detector with respect to a beam axis of the charged particle beam optical system ; wherein the central aperture is formed through the substrate at the axis of symmetry of the substrate and is provided to allow the primary charged particle beam to pass through the detector; wherein the active portion is sector-shaped, wherein the shape of the active portion is configured to accommodate the axially asymmetrical distribution of the secondary particles at the detector with respect to the beam axis of the charged particle beam optical system . a source configured to emit a primary beam of charged particles that impinge on a sample; a detection device ; a charged particle optical column configured to collect charged particles from the sample and image the charged particles onto the detection device having an active portion formed on a substrate , which is the area of the detection device that is configured to produce a signal in response to secondary charged particles emitted from the sample landing on the active portion , wherein the substrate is symmetric with respect to an axis through a central aperture of the detection device and wherein the active portion is asymmetric with respect to the axis to accommodate an estimated axially asymmetrical distribution of the secondary particles at the detector with respect to a beam axis of the charged particle beam optical system ; wherein the central aperture is formed through the substrate at the axis of symmetry of the substrate and is provided to allow the primary charged particle beam to pass through the detector; wherein the active portion is sector-shaped, wherein the shape of the active portion is configured to accommodate the axially asymmetrical distribution of the secondary particles at the detector with respect to the beam axis of the charged particle beam optical system .
A laminate for automotive interior material, comprising: a vinyl chloride resin layer; and a tape disposed on one side in a thickness direction of the vinyl chloride resin layer, wherein the tape comprises a substrate which is a non-woven fabric, and an adhesive layer, and wherein the adhesive layer is positioned closer to the vinyl chloride resin layer than the substrate, wherein the vinyl chloride resin layer is a vinyl chloride resin layer subjected to sewing, and the tape is provided on a part of one side of the vinyl chloride resin layer at a position covering the sewn portion. a vinyl chloride resin layer; and a tape disposed on one side in a thickness direction of the vinyl chloride resin layer, wherein the tape comprises a substrate which is a non-woven fabric, and an adhesive layer, and wherein the adhesive layer is positioned closer to the vinyl chloride resin layer than the substrate, wherein the vinyl chloride resin layer is a vinyl chloride resin layer subjected to sewing, and the tape is provided on a part of one side of the vinyl chloride resin layer at a position covering the sewn portion.
A protective cover assembly for an electrical conductor mounted on an insulator , the protective cover assembly comprising: an insulator cover including a cover body configured to cover the electrical conductor and the insulator; characterized by an electrically conductive arc diverter that is elongated in an axial direction that is parallel to a center axis of the electrical conductor; wherein the arc diverter is electrically attached to an outer surface of the electrical conductor at a portion of the electrical conductor that is covered by the insulator cover such that a portion of the arc diverter is positioned below and covered by the insulator cover and another portion of the arc diverter extends past an edge of the insulator cover with an end of the arc diverter being spaced apart from the the edge of the insulator cover in the axial direction. an insulator cover including a cover body configured to cover the electrical conductor and the insulator; characterized by an electrically conductive arc diverter that is elongated in an axial direction that is parallel to a center axis of the electrical conductor; wherein the arc diverter is electrically attached to an outer surface of the electrical conductor at a portion of the electrical conductor that is covered by the insulator cover such that a portion of the arc diverter is positioned below and covered by the insulator cover and another portion of the arc diverter extends past an edge of the insulator cover with an end of the arc diverter being spaced apart from the the edge of the insulator cover in the axial direction.
A device for resisting rotation of a thermal sleeve about a central axis thereof relative to a head penetration adapter in a nuclear reactor , wherein the device comprises: a first structure and a second structure , wherein the first structure and the second structure are configured to be operably engaged to resist rotation of the thermal sleeve about the central axis relative to the head penetration adapter while allowing axial movement of the thermal sleeve relative to the head penetration adapter , characterized in that the first structure comprises a first ring configured to be coupled to the thermal sleeve , wherein the first ring comprises a plurality of rod members extending therefrom, wherein each rod member extends along a rod axis (RA) that is parallel to the central axis of the thermal sleeve when the first structure is coupled to the thermal sleeve ; and the second structure comprises a second ring configured to be coupled to the head penetration adapter , wherein the second ring comprises a plurality of thru-holes formed therein, wherein each thru-hole defines a thru-hole axis (THA) that is parallel to the central axis when the second ring is coupled to the head penetration adapter , and wherein each rod member of the first ring is configured to slidingly engage a corresponding thru-hole of the second ring . a first structure and a second structure , wherein the first structure and the second structure are configured to be operably engaged to resist rotation of the thermal sleeve about the central axis relative to the head penetration adapter while allowing axial movement of the thermal sleeve relative to the head penetration adapter , characterized in that the first structure comprises a first ring configured to be coupled to the thermal sleeve , wherein the first ring comprises a plurality of rod members extending therefrom, wherein each rod member extends along a rod axis (RA) that is parallel to the central axis of the thermal sleeve when the first structure is coupled to the thermal sleeve ; and the second structure comprises a second ring configured to be coupled to the head penetration adapter , wherein the second ring comprises a plurality of thru-holes formed therein, wherein each thru-hole defines a thru-hole axis (THA) that is parallel to the central axis when the second ring is coupled to the head penetration adapter , and wherein each rod member of the first ring is configured to slidingly engage a corresponding thru-hole of the second ring .
Control method for controlling a control system for controlling the electrical supply of an electrical installation connected to an electrical power supply network via a recharging terminal connected to an electric or hybrid vehicle , the control system including a first AC-DC converter connected on one hand to the electrical power supply network and on the other hand to a battery of the vehicle , the recharging terminal comprising a second AC-DC converter connected to the electrical installation and to the battery of the vehicle , the recharging terminal comprising in addition a switch connected between the electrical power supply network and the electrical installation upstream of the first AC-DC converter and of the second AC-DC converter , the vehicle being connected to the recharging terminal via at least one DC connection , the control method being characterized in that it comprises an uninterruptible power supply mode in which the switch is controlled so as to open in order to supply the electrical installation with power by means of the second AC-DC converter , the second AC-DC converter being supplied with power either by the electrical power supply network through the first AC-DC converter or by the battery of the vehicle , and in which, when the power drawn from the electrical power supply network is greater than the power consumed by the electrical installation , the battery charges, and, when the power drawn from the electrical power supply network is less than the power consumed by the electrical installation , the battery discharges, the control method also including a charging mode in which the switch is controlled so as to close, so as to supply the electrical installation with power directly by means of the electrical power supply network , and the battery is controlled so as to charge via at least one of the AC-DC converters .
An end fitting connector assembly comprising: an end fitting having a first end , an opposing second end and an axis passing through the first and second ends , the end fitting further having a through opening transversely arranged relative to the end fitting axis , the through opening defining a peripheral wall ; an elastically deformable race fitted into the through opening of the end fitting and sized to have an exterior surface of the race engage the peripheral wall ; and at least one feature retaining the race in a predetermined position within the through opening of the end fitting , the race having an inner surface configured to snapfittingly engage a ball mount , characterized in that the ball mount can be snapfittingly engaged through either side of the through opening of the assembled race , with the race having a defined opening aligned with the through opening when engaged therewith. an end fitting having a first end , an opposing second end and an axis passing through the first and second ends , the end fitting further having a through opening transversely arranged relative to the end fitting axis , the through opening defining a peripheral wall ; an elastically deformable race fitted into the through opening of the end fitting and sized to have an exterior surface of the race engage the peripheral wall ; and at least one feature retaining the race in a predetermined position within the through opening of the end fitting , the race having an inner surface configured to snapfittingly engage a ball mount ,
A method for preparing an aqueous suspension comprising microfibrillated cellulose and inorganic particulate material, the method comprising a step of microfibrillating a fibrous substrate comprising cellulose in an aqueous environment in the presence of an inorganic particulate material by co-grinding the inorganic particulate material with the fibrous substrate comprising cellulose in an autogenous grinding process in the absence of a grinding medium, wherein the initial solids content is at least 4 wt% to at least 40 wt%, of which at least 2 wt% to at least 20 wt% is fibrous substrate comprising cellulose, wherein the amount of inorganic particulate material and cellulose pulp in the mixture to be co-ground may vary in a ratio of from about 99.5:0.5 to about 0.5:99.5, based on the dry weight of inorganic particulate material and the amount of dry fibre in the pulp, wherein the inorganic particulate material has a particle size distribution, as measured by a Malvern Mastersizer S machine, such that at least about 10% by volume of the particles have an e.s.d of less than 2μm based on the dry weight of the inorganic particulate material, wherein the grinding process is performed in a screened grinder with a total energy input per tonne of dry fibre in the fibrous substrate comprising cellulose of less than 10,000 kWh.t -1 , and wherein the microfibrillated cellulose has a fibre steepness of from 20 to 50, wherein the fibre steepness is defined according to formula 1 fibre steepness = 100 × d 30 / d 70 and wherein the resulting suspension comprises up to about 50% by weight of microfibrillated cellulose based on the total dry weight of inorganic particulate material and the dry fibre content of the fibrous substrate comprising cellulose.
An angle type power wrench comprising a housing , a motor, an output shaft , and an angle drive connecting the motor to the output shaft , wherein the angle drive comprises a drive pinion provided with a forward gear head , and a bevel gear provided on the output shaft and engaged by the drive pinion gear head , the drive pinion is surrounded by a bearing support sleeve supporting a forward drive pinion bearing and a rear drive pinion bearing axially spaced from said forward drive pinion bearing , wherein said forward drive pinion bearing comprises an inner ball race at the forward end of the drive pinion , at or very close to the gear head , and an outer ball race at the forward end of the bearing support sleeve characterised in that said bearing support sleeve is connected to the housing via an adjustment connection adapted to enabling adjustment of the axial position of the drive pinion .
A rotary damper having a first valve provided in a first oil passage , the rotary damper comprising: an oil chamber filled with oil; a vane located in the oil chamber ; a groove which is formed in the vane and functions as a valve box of the first valve; a valve body of the first valve which moves while being in contact with a bottom surface of the groove ; and an elastic body which applies elasticity to the valve body , and causes the valve body to come into contact with a wall surface of the oil chamber when the oil does not flow, wherein the bottom surface of the groove is a slope, and thereby the valve body which is in contact with the wall surface of the oil chamber when receiving pressure of the oil from one direction moves away from the wall surface of the oil chamber when receiving the pressure of the oil from an opposite direction; wherein the valve body has a triangular prism shape, characterized in that the valve body includes a first slit for deforming a first bottom surface of the valve body and/or a second slit for deforming a second bottom surface of the valve body , and wherein the first slit and the second slit are formed in a corner where two side surfaces of the valve body intersect and which is configured to receive the pressure of the oil from the one direction without coming into contact with the wall surface of the oil chamber. an oil chamber filled with oil; a vane located in the oil chamber ; a groove which is formed in the vane and functions as a valve box of the first valve; a valve body of the first valve which moves while being in contact with a bottom surface of the groove ; and an elastic body which applies elasticity to the valve body , and causes the valve body to come into contact with a wall surface of the oil chamber when the oil does not flow, wherein the bottom surface of the groove is a slope, and thereby the valve body which is in contact with the wall surface of the oil chamber when receiving pressure of the oil from one direction moves away from the wall surface of the oil chamber when receiving the pressure of the oil from an opposite direction; wherein the valve body has a triangular prism shape, characterized in that the valve body includes a first slit for deforming a first bottom surface of the valve body and/or a second slit for deforming a second bottom surface of the valve body , and wherein the first slit and the second slit are formed in a corner where two side surfaces of the valve body intersect and which is configured to receive the pressure of the oil from the one direction without coming into contact with the wall surface of the oil chamber.
Device for measuring a relative position and/or relative movement of a mandible (UK) relative to a maxilla (OK) of a patient, comprising a coil for generating a magnetic measurement field , the coil being arrangeable in extraoral fashion, to the side of or above the maxilla (OK), comprising at least one maxilla sensor (OS1), the maxilla sensor (OS1) being arrangeable in intraoral fashion on the teeth (01-08), comprising at least one mandible sensor (US1), the mandible sensor (US1) being arrangeable in intraoral fashion on the teeth (U1-U8), the mandible sensor (ES1) being designed at least to determine a position in the measurement field relative to the coil , comprising an analysis unit for determining the relative position and/or relative movement of the mandible (UK) relative to the maxilla (OK) on the basis of the position is determined by the mandible sensor (US1), characterized by a plurality of holding units, wherein the holding units are able to be fastened to the maxilla and mandible and accommodate the sensors (OS1, US1), wherein the holding unit on the maxilla (OK) and the mandible (UK) is designed as a sensor shoe, which is able to be adhesively bonded on the respective teeth, wherein the sensor shoe has at least one curved surface region and/or at least one position marking, and wherein the smallest distance between the sensor (OS1, US1) and the respective tooth is designed to be less than 0.5 cm.