mhurhangee/patent-ind-claim-en huggingface dataset:
A steel for hot working consisting of in weight % (wt.%): C 0.27 - 0.38 Si 0.10 - 0.32 Mn 0.2 - 0.7 Cr 4.5 - 5.5 Mo 2.05 - 2.90 V 0.4 - 0.6 N 0.011 - 0.12 H ≤ 0.0004 S ≤ 0.0015 A1 0.001 - 0.06 V/C 1.35 - 1.65 optionally one or more of Ni ≤ 1.5 Cu ≤ 2 Co ≤ 8 W ≤ 0.5 Nb ≤ 0.5 Ti ≤ 0.05 Zr ≤ 0.05 Ta ≤ 0.05 B ≤ 0.01 Se ≤ 0.03 Ca 0.00005 - 0.009 Mg ≤ 0.01 REM ≤ 0.2 balance Fe apart from impurities.
A spacer for spacing glass panes of a multi-glazed window , comprising - a base body having an outer side , an inner side which can be directed towards the space between the glass panes, and two end faces for receiving one glass pane each; - a vapour barrier film applied to the base body , the base body comprising a drying agent, characterised in that the vapour barrier film surrounds the base body on the outside and at least partially on the end faces , an adhesive tape and a primary seal being arranged at least partially on the vapour barrier film . - a base body having an outer side , an inner side which can be directed towards the space between the glass panes, and two end faces for receiving one glass pane each; - a vapour barrier film applied to the base body , the base body comprising a drying agent,
A fastener driving machine comprising: an actuator which operates a driver to inject a fastener (K) to a driving target object (W); a controller which controls an operation of the actuator; and a speed detector which detects movement speed of the fastener driving machine , characterized in that the fastener driving machine further comprises a vibration sensor which detects a value of a vibration generated by a contact with the driving target object (W), and in that the controller is configured to limit the operation of the actuator when the value of the vibration divided by the movement speed is equal to or less than a reference value based on the value of the vibration detected by the vibration sensor and the movement speed detected by the speed detector . an actuator which operates a driver to inject a fastener (K) to a driving target object (W); a controller which controls an operation of the actuator; and a speed detector which detects movement speed of the fastener driving machine , characterized in that the fastener driving machine further comprises a vibration sensor which detects a value of a vibration generated by a contact with the driving target object (W), and in that the controller is configured to limit the operation of the actuator when the value of the vibration divided by the movement speed is equal to or less than a reference value based on the value of the vibration detected by the vibration sensor and the movement speed detected by the speed detector .
Bromophenol-pyrazoline compounds for use in the prevention/treatment of feline coronavirus diseases; the bromophenol-pyrazoline compounds having a general structural formula shown in Formula I below: wherein R 1 , R 2 , R 3 , R 4 and R 5 are respectively selected from any of H, F, Br, OH and OCH 3 ; R 6 is selected from any of H, CHO, COCH 3 , COCH 2 CH 3 , COCH 2 CH 2 CH 3 , COOCH 3 , COOCH 2 CH 3 , Ph, CH 2 Ph, CONH 2 , CSNH 2 or R 7 , R 8 and R 9 are respectively selected from any of H, F, Cl, Br, NO 2 , OH, CH 3 , OCH 3 and and R 10 , R 11 and R 12 in the are respectively selected from any of H, F, Cl, Br, NO 2 , OH, CH 3 , C 2 H 5 , OCH 3 , OC 2 H 5 , isopropyl, isobutyl, tert-butyl and tert-amyl.
A method of transmitting data and reference signals, comprising: transmitting an OFDM resource block allocated to a first communication device , the resource block including a plurality of resource elements , each resource element corresponding to a modulation symbol; and transmitting at least one reference symbol associated with the resource block and dedicated to the first communication device in a resource block allocated to a second communication device , characterized in that the method further comprises transmitting a plurality of OFDM reference symbols dedicated to the first communication device in a plurality of resource blocks allocated to other communication devices so that the OFDM reference symbols dedicated to the first communication device encompass the resource block allocated to the first communication device in the time-frequency domain. transmitting an OFDM resource block allocated to a first communication device , the resource block including a plurality of resource elements , each resource element corresponding to a modulation symbol; and transmitting at least one reference symbol associated with the resource block and dedicated to the first communication device in a resource block allocated to a second communication device , characterized in that the method further comprises transmitting a plurality of OFDM reference symbols dedicated to the first communication device in a plurality of resource blocks allocated to other communication devices so that the OFDM reference symbols dedicated to the first communication device encompass the resource block allocated to the first communication device in the time-frequency domain.
A valve removal method of a fluid pipeline structure, which removes an unnecessary portion of a valve device from a connection port portion side of a pipe without flow disruption in the fluid pipeline structure where the valve device , which includes a valve body that is openable and closeable from a direction intersecting a flow path axis of a connection port portion and a valve housing accommodating the valve body , is detachably provided on the connection port portion side of the pipe connected to a fluid piping system, the method comprising: a valve body fixing step of fixing the valve body at a closed valve position to the connection port portion side in a sealed manner; and a valve component removing step of removing other unnecessary valve components including the valve housing in the valve device in a state where the valve body which is fixed in a sealed manner is left on the connection port portion side. a valve body fixing step of fixing the valve body at a closed valve position to the connection port portion side in a sealed manner; and a valve component removing step of removing other unnecessary valve components including the valve housing in the valve device in a state where the valve body which is fixed in a sealed manner is left on the connection port portion side.
A tread for a tire, the tread comprising a circumferential groove and a first circumferential shoulder rib and a second circumferential shoulder rib , the second circumferential shoulder rib being delimited on the axially inner side of the circumferential shoulder rib by said circumferential groove , the circumferential shoulder rib having plurality of first linear lateral grooves circumferentially alternating with a plurality of second linear lateral grooves and having a plurality of double blind lateral sipes disposed circumferentially preferably midway between each adjacent first lateral groove and second lateral groove , the first and second lateral grooves extending axially both toward the circumferential groove , the first lateral grooves terminating nearer the circumferential groove than the second lateral grooves , characterized in that (i) the circumferential width of the first lateral grooves is the same than the circumferential width of the second lateral grooves or is in a range of from 80 to 120 % of the circumferential width of the second lateral grooves , and/or in that (ii) the first circumferential shoulder rib comprises a different arrangement of grooves and/or sipes than the second circumferential shoulder rib .
Cable car system having at least two stations and having at least one hauling cable or having at least one carrying cable and at least one traction cable associated therewith, and having vehicles which can be coupled to the hauling cable by means of a coupling device or having vehicles which can be coupled to the traction cable and are movable along the carrying cable, and which in the stations are uncoupled from the hauling cable or traction cable and moved through the stations along guide rails , wherein the vehicles are constructed with current collectors which are associated with conductor rails located in the stations, and wherein in at least one of the vehicles a circuit with at least one electrical load is located, which is supplied with electrical power via current collectors and the conductor rails , characterized in that at least one second circuit with at least one further electrical load , which is supplied with electrical power via a single further current collector and a conductor rail assigned thereto, is located in at least one vehicle , wherein the at least two circuits are connected to a common current collector to which a single conductor rail is assigned, and wherein the coupling device is formed with a trunnion at the free end of which a track roller is mounted, which is displaceable in a guide rail , furthermore the three current collectors are located on the trunnion , to which are assigned three fixedly mounted conductor rails fastened to a supporting strip projecting transversely from a supporting beam protruding from a supporting frame and the two circuits located in the vehicle cabin are supplied with electrical power via the conductor rails and the current collectors via lines .
A method for synthesizing nano SAPO-34 molecular sieve, the method comprising: synthesizing the nano SAPO-34 molecular sieve by hydrothermal method in the presence of a functionalized organosilane, the functionalized organosilane having the structure shown in Formula I: wherein n is an integer ranging from 3 to 8; R 1 is Me; R 2 is Me; R 3 is selected from piperazinyl, pyridyl or morpholinyl group; x=1, and y=2; the method comprises the following steps: a) dissolving the functionalized organosilane in water, and then adding sequentially an aluminum source, a phosphorus source, an organic amine and an additional silicon source to obtain a mixture with the following molar ratio: SiO 2 : P 2 O 5 : Al 2 O 3 : organic amine : H 2 O = 0.2∼1.2 : 0.5∼1.5 : 0.6∼1.4 : 1.5∼5.5 : 50∼200; b) crystallizing the mixture obtained from step a) for a crystallization time in a range from 0.4 to 10 days at a crystallization temperature in a range from 150 to 220°C; c) after the crystallization of step b), separating the solid product, and washing and drying it to obtain the nano SAPO-34 molecular sieve. a) dissolving the functionalized organosilane in water, and then adding sequentially an aluminum source, a phosphorus source, an organic amine and an additional silicon source to obtain a mixture with the following molar ratio: SiO 2 : P 2 O 5 : Al 2 O 3 : organic amine : H 2 O = 0.2∼1.2 : 0.5∼1.5 : 0.6∼1.4 : 1.5∼5.5 : 50∼200; b) crystallizing the mixture obtained from step a) for a crystallization time in a range from 0.4 to 10 days at a crystallization temperature in a range from 150 to 220°C; c) after the crystallization of step b), separating the solid product, and washing and drying it to obtain the nano SAPO-34 molecular sieve.
A sprinkler device for delivering an irrigation liquid (F) in gravity-based pivot or linear irrigation systems of the pivot or linear type, said sprinkler device comprising a support structure which has at least one first nozzle defining a longitudinal axis (L), for generating a jet of liquid (F), said support structure having a baffle plate pivoted thereto and facing said nozzle , characterized in that it comprises drive means having at least one first magnet moving with a reciprocating rectilinear motion (Δ) due to a negative pressure (D) generated by the liquid (F) that flows through said at least one first nozzle , said drive means being able to move said baffle plate along, and impart a reciprocating pivotal thereto (β) about an axis (X 1 ) parallel to said longitudinal axis (L) through a predetermined angle (γ), to distribute the liquid (F) over a sector area (S) of the soil (G).
Support device for a curved mirror having support elements , wherein the support device has at least one bent carrier profile-member of metal, the bent carrier profile-member having in the longitudinal direction at least partially an at least similar curvature to the curved mirror to be supported and being substantially mirror-symmetrical in the longitudinal direction, the bent carrier profile-member being designed as an open, U-shaped carrier profile-member and the support elements for the curved mirror being formed by flanges of the U-shaped carrier profile-member , characterized in that the bent carrier profile-member is made up of two or more bent carrier profile-member parts of metal connected to one another in the longitudinal direction, the lateral limbs of the bent U-shaped carrier profile-member being aligned essentially parallel to the surface normal of the curved mirror , and the cross-section of the carrier profile-member varying in the longitudinal direction.
An end effector assembly of a tissue-resecting device , the end effector assembly comprising: an outer shaft defining a proximal end portion and a distal end portion , the distal end portion of the outer shaft defining a window therethrough; a drive wire extending through the outer shaft and including a cylindrical body and a distal end portion defining a semi-cylindrical configuration including a semi-cylindrical bottom surface and a planar top surface ; and a distal cutting tip disposed within the outer shaft and at least partially overlapping the window , the distal cutting tip defining a semi-cylindrical lumen defined by a semi-cylindrical bottom surface and an open top, wherein the distal end portion of the drive wire is at least partially received within the semi-cylindrical lumen of the distal cutting tip and engaged therein with the semi-cylindrical bottom surface of the distal end portion of the drive wire substantially mating with the semi-cylindrical bottom surface of the distal cutting tip , the drive wire configured to drive rotation or oscillation of the distal cutting tip relative to the outer shaft , wherein the distal cutting tip includes a plurality of teeth extending along a portion of a length thereof, the plurality of teeth including a first set of teeth disposed on a first side of the semi-cylindrical lumen and a second set of teeth disposed on a second, opposite side of the semi-cylindrical lumen, and wherein a distal end of the distal end portion of the drive wire does not extend distally beyond a first tooth of each of the first and second sets of teeth. an outer shaft defining a proximal end portion and a distal end portion , the distal end portion of the outer shaft defining a window therethrough; a drive wire extending through the outer shaft and including a cylindrical body and a distal end portion defining a semi-cylindrical configuration including a semi-cylindrical bottom surface and a planar top surface ; and a distal cutting tip disposed within the outer shaft and at least partially overlapping the window , the distal cutting tip defining a semi-cylindrical lumen defined by a semi-cylindrical bottom surface and an open top, wherein the distal end portion of the drive wire is at least partially received within the semi-cylindrical lumen of the distal cutting tip and engaged therein with the semi-cylindrical bottom surface of the distal end portion of the drive wire substantially mating with the semi-cylindrical bottom surface of the distal cutting tip , the drive wire configured to drive rotation or oscillation of the distal cutting tip relative to the outer shaft , wherein the distal cutting tip includes a plurality of teeth extending along a portion of a length thereof, the plurality of teeth including a first set of teeth disposed on a first side of the semi-cylindrical lumen and a second set of teeth disposed on a second, opposite side of the semi-cylindrical lumen, and wherein a distal end of the distal end portion of the drive wire does not extend distally beyond a first tooth of each of the first and second sets of teeth.
A method of producing an ion-exchange composition suitable for use in ion exchange chromatography, said method comprising the steps of: (a) forming a first complex of neutral vinyl polymer support particles irreversibly bound by covalent bonding or permanent physical attachment to a polymeric dispersant, said polymeric dispersant having ionizable sites which are un-ionized at a neutral pH and which are ionized under highly basic or highly acidic conditions, and said polymeric dispersant does not include ionic sites which are ionized at neutral pH, (b) forming a mixture of said first complex with an aqueous slurry of fine layering particles, functionalized with ion-exchanging sites on the surfaces of said fine layering particles, at said highly basic or highly acidic conditions so that said polymeric dispersant includes said ionized sites, and (c) electrostatically binding said polymeric dispersant ionized sites to a portion of said fine particle ion-exchanging sites to produce a support particle-dispersant-fine layering particle complex, wherein said fine layering particles are derived from a latex emulsion, wherein said highly basic conditions are at a pH of at least 12 and said highly acidic conditions are at a pH of less than 3. (a) forming a first complex of neutral vinyl polymer support particles irreversibly bound by covalent bonding or permanent physical attachment to a polymeric dispersant, said polymeric dispersant having ionizable sites which are un-ionized at a neutral pH and which are ionized under highly basic or highly acidic conditions, and said polymeric dispersant does not include ionic sites which are ionized at neutral pH, (b) forming a mixture of said first complex with an aqueous slurry of fine layering particles, functionalized with ion-exchanging sites on the surfaces of said fine layering particles, at said highly basic or highly acidic conditions so that said polymeric dispersant includes said ionized sites, and (c) electrostatically binding said polymeric dispersant ionized sites to a portion of said fine particle ion-exchanging sites to produce a support particle-dispersant-fine layering particle complex,
A system comprising a ramp and a device for launching and recovering a marine or submarine device from a support vessel , said device including a carriage and at least one protective component , in which: • said carriage and said ramp are connected by a sliding connection; • said ramp is adapted to be fastened to said vessel ; • at least one of said protective components is adapted to raise or to deposit said marine or submarine device by contact with an element chosen from at least a wing of said marine or submarine device , at least one lateral protuberance of said marine or submarine device and the hull of said marine or submarine device ; • said system includes at least one sliding zone situated along said ramp , in contact with a protective part and fastened to said vessel , and characterized in that • each of said protective components is connected to the carriage by a pivot connection of which the axis is adapted to be parallel to the surface of the water when said device is secured to said vessel ; • at least one of said protective components is adapted to raise said marine or submarine device partially or totally out of the water during a recovery and to place said marine or submarine device in or partially in the water during a launch by rotation of said protective component or elements about said carriage ; • at least one of said protective components is adapted to cooperate with said sliding zone to cause said marine or submarine device to move from a support of at least one of said protective components to a support of said ramp or from said support of said ramp to said support of at least one of said protective components . • said carriage and said ramp are connected by a sliding connection; • said ramp is adapted to be fastened to said vessel ; • at least one of said protective components is adapted to raise or to deposit said marine or submarine device by contact with an element chosen from at least a wing of said marine or submarine device , at least one lateral protuberance of said marine or submarine device and the hull of said marine or submarine device ; • said system includes at least one sliding zone situated along said ramp , in contact with a protective part and fastened to said vessel , and characterized in that • each of said protective components is connected to the carriage by a pivot connection of which the axis is adapted to be parallel to the surface of the water when said device is secured to said vessel ; • at least one of said protective components is adapted to raise said marine or submarine device partially or totally out of the water during a recovery and to place said marine or submarine device in or partially in the water during a launch by rotation of said protective component or elements about said carriage ; • at least one of said protective components is adapted to cooperate with said sliding zone to cause said marine or submarine device to move from a support of at least one of said protective components to a support of said ramp or from said support of said ramp to said support of at least one of said protective components .
Procedure for determining a compensated flow and/or a compensated flow velocity, wherein the compensation of a measuring error, caused by flow-related conditions, during a flow measurement is carried out with a clamp-on ultrasonic flowmeter arrangement on a pipe using an evaluation unit of the flowmeter and/or a computer, wherein the following procedural steps are performed: a) Information regarding the type of pipe element (6a-6d) that influences the flow is fed into the evaluation unit and/or the computer; b) Information regarding the distance (x a -x d ) of the arrangement from the pipe element that influences the flow (6a-6d) is fed into the evaluation unit and/or computer; c) Compensation of a measuring error using a correction factor k D as a function of the information from steps a) and b); d) A flow, corrected by the correction factor k D , is determined and/or a flow velocity corrected by the correction factor k D , is determined characterized in that a two-path measurement takes place with two pairs of ultrasonic transducers (12-15, 22-25), wherein the pairs of ultrasonic transducers (12-15, 22-25) each form a measuring path, wherein the pairs of ultrasonic transducers (12-15, 22-25) adopt a 180° two-path single-traverse arrangement or a 90° two-path dual-traverse arrangement, wherein when the 180° two-path single-traverse arrangement or the 90° two-path dual-traverse arrangement is used, asymmetries of the flow profile are recorded and compensated for wherein in the event of the 180° two-path single-traverse arrangement both pairs of ultrasonic transducers (12-15, 22-25) are arranged on a common plane, wherein in the event of the 90° two-path dual-traverse arrangement, the pairs of ultrasonic transducers (12-15, 22-25) are arranged on planes that are perpendicular to one another, wherein an angle-dependent installation orientation of the pairs of ultrasonic transducers (12-15, 22-25) in relation to the pipe element that influences the flow is not taken into consideration in determining the corrected flow and/or the corrected flow velocity, wherein parts of the measuring error, which depend on the angle, of the two measuring paths are mutually compensated. a) Information regarding the type of pipe element (6a-6d) that influences the flow is fed into the evaluation unit and/or the computer; b) Information regarding the distance (x a -x d ) of the arrangement from the pipe element that influences the flow (6a-6d) is fed into the evaluation unit and/or computer; c) Compensation of a measuring error using a correction factor k D as a function of the information from steps a) and b); d) A flow, corrected by the correction factor k D , is determined and/or a flow velocity corrected by the correction factor k D , is determined