mhurhangee/patent-ind-claim-en huggingface dataset:
A catheter for measuring temperature of a fluid in a body cavity , wherein said catheter comprises a catheter body comprising a proximal end and an opposite distal end comprising a tip ; and wherein said catheter body further comprises: - an inflow lumen extending from an irrigation opening in a sidewall of said tip to said proximal end ; - an outflow lumen extending from a drainage opening in said sidewall of said tip to said proximal end ; and - a temperature sensor lumen comprising a temperature sensor ; wherein said temperature sensor lumen is arranged closer to said outflow lumen than to said inflow lumen in said catheter body ; and wherein said temperature sensor comprises a sensing element positioned in said temperature sensor lumen at said tip of said distal end ; and wherein said sensing element is configured to measure a temperature of a fluid in a body cavity when said distal end of said catheter body is inserted into a body cavity . - an inflow lumen extending from an irrigation opening in a sidewall of said tip to said proximal end ; - an outflow lumen extending from a drainage opening in said sidewall of said tip to said proximal end ; and - a temperature sensor lumen comprising a temperature sensor ; wherein said temperature sensor lumen is arranged closer to said outflow lumen than to said inflow lumen in said catheter body ; and
An elevator sheave liner comprising a liner body having a first surface configured to engage an elevator load bearing member and a second surface facing in a different direction than the first surface , wherein the liner body includes a plurality of blind holes in the second surface including at least a first blind hole and a second blind hole , the elevator sheave liner being characterized in that a material of the liner body having a first thickness (T1) between the first blind hole and the first surface , the material having a second, different thickness (T2) between the second blind hole and the first surface , and the plurality of blind holes are configured to provide a visible indication of an amount of wear of the sheave liner over time. a liner body having a first surface configured to engage an elevator load bearing member and a second surface facing in a different direction than the first surface , wherein the liner body includes a plurality of blind holes in the second surface including at least a first blind hole and a second blind hole , the elevator sheave liner being characterized in that a material of the liner body having a first thickness (T1) between the first blind hole and the first surface , the material having a second, different thickness (T2) between the second blind hole and the first surface , and the plurality of blind holes are configured to provide a visible indication of an amount of wear of the sheave liner over time.
An electric resistance welded steel pipe excellent in weld zone quality, wherein a chemical composition of a steel plate forming a base metal of the electric resistance welded steel pipe consists of, by mass%, C: 0.03 to 0.15%, Si: 0.1 to 0.3%, Mn: 0.5 to 2.0%, Al: 0.01 to 0.06%, Ti: 0.011 to 0.023%, Ca: 0.0010 to 0.0050%, a total of one or more of Ce and La: 0.001 to 0.005%, P: 0.03% or less, S: 0.0015% or less, O: 0.002% or less, N: 0.005% or less, and further contains one or more of Nb: 0.1% or less, V: 0.1% or less, Mo: 0.2% or less, B: 0.002% or less, and optionally further contains, by mass%, one or more of Cu: 0.1 to 2% or less, Ni: 0.05 to 1% or less, Cr: 0.01 to 1% or less, Zr: 0.001 to 0.01% or less, and a balance of iron and unavoidable impurities; wherein Sb, Sn, W, Co, and As may be contained in 0.1% or less, Mg, Pb, and Bi in 0.005% or less, and H in 0.0005% or less as unavoidable impurities, the contents of Ca, O, S, Ce, La, and Al satisfying formula: XCASO = Ca O + Ca S + 0.285 Ce + La O + 0.285 Ce + La S × Al Ca > 78 ; oxide-based inclusions at a weld zone of the electric resistance welded steel pipe contain one or both of Ce and La; and a long axis/short axis of the oxide-based inclusions is 2.5 or less, wherein the electric resistance welded steel pipe exhibits a tensile strength of the base metal of 860 MPa or more, a toughness of the base metal at 0°C of 100 J or more, and a toughness of a weld zone of the electric resistance welded steel pipe at 0°C of 40 J or more, or a tensile strength of the base metal of 500 MPa to 620 MPa, a toughness of the base metal at -40°C of 100 J or more, and a weld zone toughness of a weld zone of the electric resistance welded steel pipe at -40°C of 100 J or more. oxide-based inclusions at a weld zone of the electric resistance welded steel pipe contain one or both of Ce and La; and a long axis/short axis of the oxide-based inclusions is 2.5 or less, wherein the electric resistance welded steel pipe exhibits a tensile strength of the base metal of 860 MPa or more, a toughness of the base metal at 0°C of 100 J or more, and a toughness of a weld zone of the electric resistance welded steel pipe at 0°C of 40 J or more, or a tensile strength of the base metal of 500 MPa to 620 MPa, a toughness of the base metal at -40°C of 100 J or more, and a weld zone toughness of a weld zone of the electric resistance welded steel pipe at -40°C of 100 J or more. a tensile strength of the base metal of 860 MPa or more, a toughness of the base metal at 0°C of 100 J or more, and a toughness of a weld zone of the electric resistance welded steel pipe at 0°C of 40 J or more, or a tensile strength of the base metal of 500 MPa to 620 MPa, a toughness of the base metal at -40°C of 100 J or more, and a weld zone toughness of a weld zone of the electric resistance welded steel pipe at -40°C of 100 J or more.
A multi-modal tracheal intubation positioning method based on deep learning, comprising the following steps: constructing a YOLOv3 network based on dilated convolution and feature map fusion, and extracting feature information of an endoscopic image through the trained YOLOv3 network to acquire first target information; determining second target information by utilizing a vectorized positioning mode according to carbon dioxide concentration differences detected by sensors; wherein there are totally four sensors in the step ; and the step of establishing a Cartesian coordinate system by calibrating the position of each sensor and determining the second target information according to the coordinate system is specifically as follows: x 0 = OC 1 − OC 3 ∗ cos θ + OC 4 − OC 2 ∗ sin θ δ y 0 = OC 1 − OC 3 ∗ sin θ + OC 4 − OC 2 ∗ cos θ δ wherein OC 1, OC 2, OC 3, OC 4 are respectively carbon dioxide concentration vectors measured by the four sensors, θ is an included angle between OC 1 or OC 3 and an x axis in the Cartesian coordinate system or an included angle between OC 2 or OC 4 and a y axis in the Cartesian coordinate system, and δ is a normalization factor;and fusing the first target information and the second target information to acquire a final target position, wherein the step is specifically as follows: performing weighted fusion on a center coordinate of a bounding box of the first target information and a center position obtained by mapping the center position of the second target information to an image coordinate system to acquire the final target position. constructing a YOLOv3 network based on dilated convolution and feature map fusion, and extracting feature information of an endoscopic image through the trained YOLOv3 network to acquire first target information; determining second target information by utilizing a vectorized positioning mode according to carbon dioxide concentration differences detected by sensors; wherein there are totally four sensors in the step ; and the step of establishing a Cartesian coordinate system by calibrating the position of each sensor and determining the second target information according to the coordinate system is specifically as follows: x 0 = OC 1 − OC 3 ∗ cos θ + OC 4 − OC 2 ∗ sin θ δ y 0 = OC 1 − OC 3 ∗ sin θ + OC 4 − OC 2 ∗ cos θ δ wherein OC 1, OC 2, OC 3, OC 4 are respectively carbon dioxide concentration vectors measured by the four sensors, θ is an included angle between OC 1 or OC 3 and an x axis in the Cartesian coordinate system or an included angle between OC 2 or OC 4 and a y axis in the Cartesian coordinate system, and δ is a normalization factor;and fusing the first target information and the second target information to acquire a final target position, wherein the step is specifically as follows: performing weighted fusion on a center coordinate of a bounding box of the first target information and a center position obtained by mapping the center position of the second target information to an image coordinate system to acquire the final target position.
An organizer assembly for a butt closure , the organizer assembly defining a mutually orthogonal coordinate system comprising a longitudinal axis , a lateral axis , and a transverse axis , the organizer assembly comprising: a primary basket extending along the longitudinal axis between a first open end and a second closed end , the primary basket defining an interior ; a backplate extending between a front wall and a rear wall , wherein a plurality of entry/exit slots are defined at the rear wall , the backplate further comprising a plurality of positioning assemblies ; a hinge assembly connecting the backplate to the primary basket , wherein the backplate is rotatable relative to the primary basket at the hinge assembly about the lateral axis ; a plurality of organizer trays , each of the plurality of organizer trays rotatably connectable to the backplate at one of the plurality of positioning assemblies , wherein each of the plurality of positioning assemblies is adapted to allow the connected one of the plurality of organizer trays to be selectively positionable in one of a plurality of rotational positions; characterized in that each of the plurality of positioning assemblies comprises a channel block defining a plurality of channels , each channel corresponding to one of the rotational positions in which the connected one of the plurality of organizer trays is selectively positioned, and in that each of the plurality of organizer trays comprises a positioning tab selectively insertable into one of the plurality of channels in the channel block of the connected positioning assembly . a primary basket extending along the longitudinal axis between a first open end and a second closed end , the primary basket defining an interior ; a backplate extending between a front wall and a rear wall , wherein a plurality of entry/exit slots are defined at the rear wall , the backplate further comprising a plurality of positioning assemblies ; a hinge assembly connecting the backplate to the primary basket , wherein the backplate is rotatable relative to the primary basket at the hinge assembly about the lateral axis ; a plurality of organizer trays , each of the plurality of organizer trays rotatably connectable to the backplate at one of the plurality of positioning assemblies , wherein each of the plurality of positioning assemblies is adapted to allow the connected one of the plurality of organizer trays to be selectively positionable in one of a plurality of rotational positions; characterized in that each of the plurality of positioning assemblies comprises a channel block defining a plurality of channels , each channel corresponding to one of the rotational positions in which the connected one of the plurality of organizer trays is selectively positioned, and in that each of the plurality of organizer trays comprises a positioning tab selectively insertable into one of the plurality of channels in the channel block of the connected positioning assembly .
Container for receiving packaging material, in which at least parts of the inside of the container (7, 7', 7") are wetted or provided with a treatment agent and/or load carriers (10, 11, 11', 11", 17) provided with a treatment agent are provided inside the container (7, 7', 7") and that the treatment agent contains a H 2 O 2 solution as a disinfectant, characterised in that the container contains packaging material in the form of a plurality of flat-folded packaging sleeves (S), blanks (B) or web material, rolled up into a roll (R), wherein the packaging material consists of a composite material comprising at least one cardboard layer which contains cellulose, and the packaging material respectively has open cut edges, wherein the open cut edges form cellulose zones accessible to the surrounding atmosphere; and in that the treatment agent contains ethanol.
A rail vehicle braking system for a rail vehicle having braking members with at least one lining (7 ; 807) and at least one disk , comprising a parking brake having a body (8 ; 508) presenting a cavity (10 ; 510), a lining mounting (32 ; 832) which is movable relative to said body (8 ; 508) and configured to act on at least one said braking member (6, 7 ; 807), as well as an actuator comprising a braking piston (21 ; 321 ; 521 ; 621) at least partly accommodated in said cavity (10 ; 510), movable relative to said body (8 ; 508) and configured to act on said lining mounting (32 ; 832); said system having a first configuration in which said braking piston (21 ; 321 ; 521 ; 621) is in a resting position in which it does not act on said lining mounting (32 ; 832) and it does not apply any load to said at least one braking member (6, 7 ; 807), whereby said parking brake is not applied, as well as a second configuration in which said braking piston (21 ; 321 ; 521 ; 621) is in a working position in which it acts on said lining mounting (32 ; 832) and it applies a predetermined load to said at least one braking member (6, 7 ; 807), whereby said parking brake is applied; said system being characterized in that it furthermore has a third configuration in which, when said rail vehicle is not stationary and the ambient temperature in the environment of said braking member (6, 7 ; 807) is greater than a predetermined threshold value, it forces the movement of said braking piston (21 ; 321 ; 521 ; 621) from its working position into a fuse position different from its resting position, in which fuse position the load applied to said at least one braking member (6, 7 ; 807) is limited or cancelled
Polyamide foam particles comprising a polymer mixture comprising (A) from 25 to 95 wt.-% of at least one polyamide, which is different from the copolyamide (B), and (B) from 5 to 75 wt.-% of at least one copolyamide prepared by polymerizing the following components (B1) from 15 to 84 wt.-% of at least one lactam, (B2) from 16 to 85 wt.-% of monomer mixture (M) comprising, (M1) at least one C 32 -C 40 dimer acid and (M2) at least one C 4 -C 12 diamine, where the sum of the components (B1) and (B2) are 100 wt.-%. (A) from 25 to 95 wt.-% of at least one polyamide, which is different from the copolyamide (B), and (B) from 5 to 75 wt.-% of at least one copolyamide prepared by polymerizing the following components (B1) from 15 to 84 wt.-% of at least one lactam, (B2) from 16 to 85 wt.-% of monomer mixture (M) comprising, (M1) at least one C 32 -C 40 dimer acid and (M2) at least one C 4 -C 12 diamine, where the sum of the components (B1) and (B2) are 100 wt.-%. (B1) from 15 to 84 wt.-% of at least one lactam, (B2) from 16 to 85 wt.-% of monomer mixture (M) comprising, (M1) at least one C 32 -C 40 dimer acid and (M2) at least one C 4 -C 12 diamine, where the sum of the components (B1) and (B2) are 100 wt.-%. (M1) at least one C 32 -C 40 dimer acid and (M2) at least one C 4 -C 12 diamine,
An additive manufacturing process comprising: (c) selecting a polymer filament having a coating comprising an electrically conductive percolated network of carbon nanotubes; (d) fabricating a three-dimensional object from the polymer filament; and (e) irradiating the polymer filaments with microwaves during or after the step of fabricating the three-dimensional object. (c) selecting a polymer filament having a coating comprising an electrically conductive percolated network of carbon nanotubes; (d) fabricating a three-dimensional object from the polymer filament; and (e) irradiating the polymer filaments with microwaves during or after the step of fabricating the three-dimensional object.
An assembly for composite manufacture, the assembly comprising: a cured resin impregnated reinforcement material comprising a fibre component and a resin matrix component, in which the resin matrix component comprises polyurethane, the assembly having a length to width ratio of at least 5:1, and the assembly defining a longitudinal direction (L) along its length; and, a peel ply in contact with the cured resin impregnated reinforcement material , the peel ply comprising a woven layer having: a plurality of longitudinal fibres extending in the longitudinal direction (L); and, a plurality of transverse fibres extending in a transverse direction (T) normal to the longitudinal direction (L); in which the areal density of the plurality of transverse fibres is higher than the areal density of the plurality of longitudinal fibres . a cured resin impregnated reinforcement material comprising a fibre component and a resin matrix component, in which the resin matrix component comprises polyurethane, the assembly having a length to width ratio of at least 5:1, and the assembly defining a longitudinal direction (L) along its length; and, a peel ply in contact with the cured resin impregnated reinforcement material , the peel ply comprising a woven layer having: a plurality of longitudinal fibres extending in the longitudinal direction (L); and, a plurality of transverse fibres extending in a transverse direction (T) normal to the longitudinal direction (L); in which the areal density of the plurality of transverse fibres is higher than the areal density of the plurality of longitudinal fibres . a plurality of longitudinal fibres extending in the longitudinal direction (L); and, a plurality of transverse fibres extending in a transverse direction (T) normal to the longitudinal direction (L); in which the areal density of the plurality of transverse fibres is higher than the areal density of the plurality of longitudinal fibres .
Hot-water heat pump having a heat pump unit and a hot-water storage unit , wherein the hot-water storage unit has a hot-water reservoir , which is designed to store water heated by the heat pump unit, and wherein the heat pump unit has an associated cover and an associated separating wall which enclose the heat pump unit in an air-tight manner, wherein the separating wall separates the heat pump unit from the hot-water storage unit , and wherein the heat pump unit has a volute casing , which is arranged within the cover , for accommodating an air blower, characterized in that the volute casing and the separating wall are designed to allow the volute casing to be fitted within the cover in at least one first and one second alignment position (310; 410) .
A process for obtaining a tissue matrix for allograft or xenograft, including, after recovery of a biological tissue: - classifying said tissue , - treating said tissue to produce a tissue matrix, and - packaging the tissue matrix; wherein the steps are carried out in an automated way within a same classified reactor and characterized by the fact that the reactor for carrying out the process comprises : ▪ an airlock for the introduction and classification of a biological tissue; ▪ biological tissue treatment means arranged to produce a tissue matrix; ▪ packaging means for packaging the tissue matrix produced; ▪ an exit airlock for the packaged tissue matrix; and ▪ first robotic means for moving the biological tissue from the introduction airlock to the biological tissue treatment means and second robotic means for moving the tissue matrix from the biological treatment means to the packaging means and then to the exit airlock. - classifying said tissue , - treating said tissue to produce a tissue matrix, and - packaging the tissue matrix; wherein the steps are carried out in an automated way within a same classified reactor and characterized by the fact that the reactor for carrying out the process comprises : ▪ an airlock for the introduction and classification of a biological tissue; ▪ biological tissue treatment means arranged to produce a tissue matrix; ▪ packaging means for packaging the tissue matrix produced; ▪ an exit airlock for the packaged tissue matrix; and ▪ first robotic means for moving the biological tissue from the introduction airlock to the biological tissue treatment means and second robotic means for moving the tissue matrix from the biological treatment means to the packaging means and then to the exit airlock. ▪ an airlock for the introduction and classification of a biological tissue; ▪ biological tissue treatment means arranged to produce a tissue matrix; ▪ packaging means for packaging the tissue matrix produced; ▪ an exit airlock for the packaged tissue matrix; and ▪ first robotic means for moving the biological tissue from the introduction airlock to the biological tissue treatment means and second robotic means for moving the tissue matrix from the biological treatment means to the packaging means and then to the exit airlock.
A layered product comprising at least two layers, a first layer and a second layer, wherein a value of L* in a L*a*b* color system defined by JIS Z8729 of the first layer is ten or less, the second layer is formed on the first layer and 0.1 to 1 mass% of carbon nanotubes are contained in a material constituting the second layer, a film thickness of the second layer is 0.5 μm or greater and 40 μm or less, and in the L*a*b* color system defined by JIS Z8729, a value of L* is 2.5 or less, a value of a* is -2.0 or greater and 2.0 or less, and a value of b* is -2.0 or greater and 0.5 or less, when the values are measured from a side of a plane of the second layer. a value of L* in a L*a*b* color system defined by JIS Z8729 of the first layer is ten or less, the second layer is formed on the first layer and 0.1 to 1 mass% of carbon nanotubes are contained in a material constituting the second layer, a film thickness of the second layer is 0.5 μm or greater and 40 μm or less, and in the L*a*b* color system defined by JIS Z8729, a value of L* is 2.5 or less, a value of a* is -2.0 or greater and 2.0 or less, and a value of b* is -2.0 or greater and 0.5 or less, when the values are measured from a side of a plane of the second layer.
A main orifice assembly, comprising: a first orbit cam including a first groove ; a main orifice plate assembly, comprising: a main orifice plate including a tongue disposed in the first groove; and a flow restrictor coupled to the main orifice plate, the flow restrictor configured to retract or deploy in response the main orifice plate rotating about the first orbit cam; and wherein the first orbit cam is semi-annular in shape, the first orbit cam further comprising a guide ramp , and wherein the flow restrictor is configured to retract or deploy in response to the guide ramp. a first orbit cam including a first groove ; a main orifice plate assembly, comprising: a main orifice plate including a tongue disposed in the first groove; and a flow restrictor coupled to the main orifice plate, the flow restrictor configured to retract or deploy in response the main orifice plate rotating about the first orbit cam; and wherein the first orbit cam is semi-annular in shape, the first orbit cam further comprising a guide ramp , and wherein the flow restrictor is configured to retract or deploy in response to the guide ramp. a main orifice plate including a tongue disposed in the first groove; and a flow restrictor coupled to the main orifice plate, the flow restrictor configured to retract or deploy in response the main orifice plate rotating about the first orbit cam; and wherein the first orbit cam is semi-annular in shape, the first orbit cam further comprising a guide ramp , and wherein the flow restrictor is configured to retract or deploy in response to the guide ramp.