mhurhangee/ep-ind-claims huggingface dataset:
An elevator system comprising: an elevator car (103;403) within an elevator shaft; a counterweight (105;200;300) within the elevator shaft and operably connected to the elevator car (103;403); an indicator element (322;422); and an inspection system (312;412), characterized in that the inspection system (312;412) comprises: a movable frame (314;414) having a marker (320;420) that is movable in response to interaction with the counterweight (105;200;300), the marker (320;420) located proximate the indicator element (322;422) and the indicator element (322;422) located in a pit (202;302) of the elevator shaft; and a detector located on the elevator car (103;403) and arranged to detect a location of the counterweight (105;200;300) in an inspection region within the pit (202;302) based on a relative position between the marker (320;420) and the indicator element (322;422), wherein the relative position of the marker (320;420) and the indicator element (322;422) indicates a distance of travel of the counterweight (105;200;300). an elevator car (103;403) within an elevator shaft; a counterweight (105;200;300) within the elevator shaft and operably connected to the elevator car (103;403); an indicator element (322;422); and an inspection system (312;412), characterized in that the inspection system (312;412) comprises: a movable frame (314;414) having a marker (320;420) that is movable in response to interaction with the counterweight (105;200;300), the marker (320;420) located proximate the indicator element (322;422) and the indicator element (322;422) located in a pit (202;302) of the elevator shaft; and a detector located on the elevator car (103;403) and arranged to detect a location of the counterweight (105;200;300) in an inspection region within the pit (202;302) based on a relative position between the marker (320;420) and the indicator element (322;422), wherein the relative position of the marker (320;420) and the indicator element (322;422) indicates a distance of travel of the counterweight (105;200;300). a movable frame (314;414) having a marker (320;420) that is movable in response to interaction with the counterweight (105;200;300), the marker (320;420) located proximate the indicator element (322;422) and the indicator element (322;422) located in a pit (202;302) of the elevator shaft; and a detector located on the elevator car (103;403) and arranged to detect a location of the counterweight (105;200;300) in an inspection region within the pit (202;302) based on a relative position between the marker (320;420) and the indicator element (322;422), wherein the relative position of the marker (320;420) and the indicator element (322;422) indicates a distance of travel of the counterweight (105;200;300).
An apparatus (101, 901, 1101) for cryosurgery comprising: a probe (105, 140, 300, 907), an exhaust line (111, 405, 605, 705, 705', 915) configured to receive cryogen from the probe (105, 140, 300, 907); and a vacuum source (107, 909) configured to be in fluid communication with the exhaust line (111, 405, 605, 705, 705', 915) wherein the probe (105, 140, 300, 907) comprises a dispersive medium configured such that, in use, cryogen delivered to the probe (105, 140, 300, 907) disperses through the dispersive medium; characterised in that the apparatus (101, 901, 1101) is configured such that, in use, cryogen is drawn from a cryogen source (103, 903) for delivery to the probe (105, 140, 300, 907) by the vacuum source (107, 909) such that the need to provide a positive pressure source, to force the liquid cryogen to the probe, is avoided. a probe (105, 140, 300, 907), an exhaust line (111, 405, 605, 705, 705', 915) configured to receive cryogen from the probe (105, 140, 300, 907); and a vacuum source (107, 909) configured to be in fluid communication with the exhaust line (111, 405, 605, 705, 705', 915) wherein the probe (105, 140, 300, 907) comprises a dispersive medium configured such that, in use, cryogen delivered to the probe (105, 140, 300, 907) disperses through the dispersive medium;
A method for producing foam for a motor vehicle washing installation, wherein water, surfactant and gas, in particular compressed air, are supplied to at least one inlet of a foam generating chamber, the foam generating chamber having an outlet for foam, and a fluid-permeable bed of loose particles, and wherein by pumping a stream of water, surfactant and gas through the bed in the foam generating chamber foam is generated, characterized in that the bed fills the foam generation chamber sufficiently to prevent fluidization of the bed and a portion of the foam generation chamber remains free of the bed, the size of which portion corresponds at least to half the increase in volume required for fluidization of the bed.
A process for the preparation of silylated polyurethane polymer (i) from the reaction of polyol (ii) and/or hydroxyl-terminated polyurethane (iii) with isocyanatosilane silylating agent (iv), or the reaction of isocyanate-terminated polyurethane (v) with amino-functional silane silylating agent (vi) and/or mercapto-functional silane silylating agent (vii), the process comprising employing at least one urethane-forming reaction catalyst (viii) for the preparation of hydroxyl-terminated polyurethane (iii), isocyanate-terminated polyurethane (v) and/or silylated polyurethane polymer (i), wherein the urethane-forming reaction catalyst (viii) is represented by general formula: M L 4 wherein each M is zirconium, and L is a ligand selected from the group consisting of R 4 O-, where R 4 is a hydrocarbon group of from 1 to 10 carbon atoms, R 5 OP(=O)O-, where R 5 is a hydrocarbon group of from 1 to 10 carbon atoms, F-, CI-, CH 3 C(=O)CH=C(CH 3)O-, CH 2 =CHC(=O)O-, CH 2 =C(CH 3)C(=O)O-, CH 2 =CHC(=O)OCH 2 CH 2 C(=O)O-, CH 2 =C(CH 3)C(=O)OCH 2 CH 2 C(=O)O-, and cyclopentadienyl.
An apparatus for applying reduced pressure to a tissue site on a foot, the apparatus comprising: an insole; a tissue contacting surface covering at least a portion of the insole, at least one portion of the tissue contacting surface being removable to form a void; a reduced-pressure interface for receiving reduced pressure from a reduced-pressure source; and at least one flow channel fluidly coupled to the reduced-pressure interface and the void. an insole; a tissue contacting surface covering at least a portion of the insole, at least one portion of the tissue contacting surface being removable to form a void; a reduced-pressure interface for receiving reduced pressure from a reduced-pressure source; and at least one flow channel fluidly coupled to the reduced-pressure interface and the void.
A method of forming a plurality of apertures in a solid state membrane using dielectric breakdown, wherein the membrane comprises a first surface area portion on one side of the membrane and a second surface area portion on the other side of the membrane, and each of a plurality of target regions comprises a recess or fluidic passage in the membrane that opens out into the first or second surface area portion (6, 7), the method comprising: contacting all of the first surface area portion of the membrane with a first bath comprising ionic solution and all of the second surface area portion with a second bath comprising ionic solution; and applying a voltage across the membrane via first and second electrodes (28, 30) in respective contact with the first and second baths (38, 40) comprising ionic solutions to form an aperture at each of a plurality of the target regions in the membrane, wherein the first and second electrodes (28, 30) allow a potential difference to be applied across all of the target regions simultaneously. contacting all of the first surface area portion of the membrane with a first bath comprising ionic solution and all of the second surface area portion with a second bath comprising ionic solution; and applying a voltage across the membrane via first and second electrodes (28, 30) in respective contact with the first and second baths (38, 40) comprising ionic solutions to form an aperture at each of a plurality of the target regions in the membrane, wherein the first and second electrodes (28, 30) allow a potential difference to be applied across all of the target regions simultaneously.
An orthopaedic implant system comprising: an implant including a baseplate and an augment; wherein the baseplate includes a plate body extending between front and rear faces (30, 32), and the front face is configured to face towards an opposed articular surface associated with a bone; and wherein the augment includes an augment body extending from the rear face of the plate body, and the augment body includes a network of internal passages that branch to respective ports along an external surface of the augment body, characterized in that the implant includes at least one fixation aperture extending at least partially through the plate body and the augment body; and the at least one fixation aperture is configured to receive a respective fastener to secure the implant to bone. an implant including a baseplate and an augment; wherein the baseplate includes a plate body extending between front and rear faces (30, 32), and the front face is configured to face towards an opposed articular surface associated with a bone; and wherein the augment includes an augment body extending from the rear face of the plate body, and the augment body includes a network of internal passages that branch to respective ports along an external surface of the augment body, characterized in that the implant includes at least one fixation aperture extending at least partially through the plate body and the augment body; and the at least one fixation aperture is configured to receive a respective fastener to secure the implant to bone.
A composition comprising a water-soluble fraction of decellularized, nuclease-digested ligament tissue (soluble fraction) substantially free of nucleic acids, preferably decellularized, nuclease-digested posterior cruciate ligament tissue, in an amount effective to induce growth of a ligament or tendon in a patient for use in a method of inducing growth of ligament or tendon tissue in a patient, wherein the composition does not comprise an insoluble fraction of tissue.
An airframe for certified ultralight and / or light aircraft with electric-thermal hybrid propulsion comprising a fuselage having a metal truss structure with intercommunicating welded tubes made of chrome-molybdenum steel, wings having a rib (2.1) and spars (2.2) structure and a cockpit, wherein the internal space of the cockpit also having a metal truss structure is defined by: - a central compartment (3.1) for housing at least two seats placed side by side and not displaceable along the longitudinal axis A-A of the aircraft, - a rear compartment (3.2), of fixed size, positioned behind to said seats, - a front compartment (3.3) for housing an adjustable rudder pedals, and said compartments are delimited by longitudinal stringers and vertical and transverse rods, intersecting at nodes, wherein from the fuselage extend laterally along the transverse axis B-B of the aircraft two lateral appendages (1.1) forming a single structure with the fuselage and being connectable with the ends (2.3) of the wings, with said rear compartment (3.2) housing batteries for feeding the auxiliary electric motor, said batteries being housed above a rear gear. - a central compartment (3.1) for housing at least two seats placed side by side and not displaceable along the longitudinal axis A-A of the aircraft, - a rear compartment (3.2), of fixed size, positioned behind to said seats, - a front compartment (3.3) for housing an adjustable rudder pedals, and said compartments are delimited by longitudinal stringers and vertical and transverse rods, intersecting at nodes, wherein from the fuselage extend laterally along the transverse axis B-B of the aircraft two lateral appendages (1.1) forming a single structure with the fuselage and being connectable with the ends (2.3) of the wings, with said rear compartment (3.2) housing batteries for feeding the auxiliary electric motor, said batteries being housed above a rear gear.
A cartridge of an e-vaping device, the cartridge comprising: a housing extending in a longitudinal direction; a reservoir in the housing, the reservoir configured to store a pre-vapor formulation; an inner tube in the outer housing, the reservoir between an inner surface of the housing and an outer surface of the inner tube, the inner tube defining an air channel therein; a sheath integrally formed with the inner tube, the sheath having an end wall and a lateral wall, the sheath defining a heating chamber therein, the sheath defining an air passage through the end wall, and the air passage in fluid communication with the air channel a gasket within the sheath, the gasket including a base portion and an elongate portion, the base portion friction fitted within the sheath and the elongate portion extending out of the sheath; a heating coil in the heating chamber; a wick in contact with the heating coil; and an absorbent material surrounding a portion of the elongate portion of the gasket. a housing extending in a longitudinal direction; a reservoir in the housing, the reservoir configured to store a pre-vapor formulation; an inner tube in the outer housing, the reservoir between an inner surface of the housing and an outer surface of the inner tube, the inner tube defining an air channel therein; a sheath integrally formed with the inner tube, the sheath having an end wall and a lateral wall, the sheath defining a heating chamber therein, the sheath defining an air passage through the end wall, and the air passage in fluid communication with the air channel a gasket within the sheath, the gasket including a base portion and an elongate portion, the base portion friction fitted within the sheath and the elongate portion extending out of the sheath; a heating coil in the heating chamber; a wick in contact with the heating coil; and an absorbent material surrounding a portion of the elongate portion of the gasket.
A fastening structure of an onboard apparatus to be fastened to a vehicle body comprising: a support member that is fastened to the vehicle body to support the onboard apparatus and has a protruding section protruding rearward beyond a rear face of the onboard apparatus; and a bracket having: a front fastening section to be fastened to a lower face of a:rear section of the onboard apparatus; a rear fastening section to be fastened to the protruding section of the support member; characterised in that a fragile section is provided between the front fastening section and the rear fastening section, wherein by an external force from a front side of the onboard apparatus, the fragile section is deformed and the rear section of the onboard apparatus is moved upward using the rear fastening section as a fulcrum. a support member that is fastened to the vehicle body to support the onboard apparatus and has a protruding section protruding rearward beyond a rear face of the onboard apparatus; and a bracket having: a front fastening section to be fastened to a lower face of a:rear section of the onboard apparatus; a rear fastening section to be fastened to the protruding section of the support member; characterised in that a fragile section is provided between the front fastening section and the rear fastening section, a front fastening section to be fastened to a lower face of a:rear section of the onboard apparatus; a rear fastening section to be fastened to the protruding section of the support member; characterised in that a fragile section is provided between the front fastening section and the rear fastening section, wherein by an external force from a front side of the onboard apparatus, the fragile section is deformed and the rear section of the onboard apparatus is moved upward using the rear fastening section as a fulcrum.
A method for sending a geographic location for a target address to a receiving device having a unique identifier, based on a request containing the target address and the unique identifier received from a sending device, comprising the step of: receiving at an application server the request containing the target address and the unique identifier from the sending device; the method being characterised in that it also comprises the steps of: creating by the application server a message to be sent to the receiving device, the message including a code for causing the receiving device to respond to the message; sending the message from the application server to the receiving device using the unique identifier; receiving at the application server a HTTP request from the receiving device in response to the message; and sending a HTTP response from the application server to the receiving device in response to the HTTP request, the HTTP response including the geographic location. receiving at an application server the request containing the target address and the unique identifier from the sending device; the method being characterised in that it also comprises the steps of: creating by the application server a message to be sent to the receiving device, the message including a code for causing the receiving device to respond to the message; sending the message from the application server to the receiving device using the unique identifier; receiving at the application server a HTTP request from the receiving device in response to the message; and sending a HTTP response from the application server to the receiving device in response to the HTTP request, the HTTP response including the geographic location. creating by the application server a message to be sent to the receiving device, the message including a code for causing the receiving device to respond to the message; sending the message from the application server to the receiving device using the unique identifier; receiving at the application server a HTTP request from the receiving device in response to the message; and sending a HTTP response from the application server to the receiving device in response to the HTTP request, the HTTP response including the geographic location.
A control method of a refrigerator, the refrigerator comprising a cabinet having a storage compartment for storing food therein, a door for opening and closing the storage compartment, an evaporator placed in the storage compartment, a temperature sensor for measuring a temperature inside the storage compartment, a compressor having a variable speed, and a compressor controller for controlling an operation of the compressor via the temperature sensor, the control method comprising: a first step of operating the compressor; a second step of terminating the operation of the compressor when the temperature measured by the temperature sensor in the first step reaches a set temperature; a third step of performing the first step and the second step during a plurality of cycles; a fourth step of measuring a compressor operation time and a total time of the cycles while the cycles are performed in the third step; a fifth step of calculating an operation rate by dividing the compression operation time by the total time; a sixth step of comparing the operation rate calculated in the fifth step with a set value; and a seventh step of adjusting a Revolutions Per Minute of the compressor based on the comparative result of the sixth step, characterized in that: the set value includes a first set value and a second set value, the RPM of the compressor is increased in the seventh step (S210, S220) when the operation rate is greater than the first set value, and is reduced in the seventh step (S250, S260) when the operation rate is less than the second set value, and the first set value is greater than the second set value. a first step of operating the compressor; a second step of terminating the operation of the compressor when the temperature measured by the temperature sensor in the first step reaches a set temperature; a third step of performing the first step and the second step during a plurality of cycles; a fourth step of measuring a compressor operation time and a total time of the cycles while the cycles are performed in the third step; a fifth step of calculating an operation rate by dividing the compression operation time by the total time; a sixth step of comparing the operation rate calculated in the fifth step with a set value; and a seventh step of adjusting a Revolutions Per Minute of the compressor based on the comparative result of the sixth step, characterized in that: the set value includes a first set value and a second set value, the RPM of the compressor is increased in the seventh step (S210, S220) when the operation rate is greater than the first set value, and is reduced in the seventh step (S250, S260) when the operation rate is less than the second set value, and the first set value is greater than the second set value. the set value includes a first set value and a second set value, the RPM of the compressor is increased in the seventh step (S210, S220) when the operation rate is greater than the first set value, and is reduced in the seventh step (S250, S260) when the operation rate is less than the second set value, and the first set value is greater than the second set value.
An apparatus (1, 101) for making solid beads, the apparatus comprising at least one liquid droplet generator operable to generate droplets comprising a solute dissolved in a solvent, and at least one flow channel (2, 102a-h) for carrying a second liquid, at least one liquid droplet generator and at least one flow channel being spaced relative to one another so that, in use, liquid droplets pass through a gas into a second liquid provided in said flow channel, the solvent being soluble in the second liquid so as to cause the solvent to exit the droplets, thus forming solid beads, the apparatus comprising a means for generating a flow of the second liquid in the at least one flow channel, characterised in that the apparatus comprises one or both of a heater operable to heat the second liquid and a cooler operable to cool the second liquid, and wherein each liquid droplet generator comprises a piezoelectric component (3, 103a-h) operable to generate droplets.