mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device , comprising: an elongate outer sheath that extends along a sheath longitudinal axis and defines a central lumen extending therethrough, the elongate outer sheath comprising a proximal sheath portion and a distal sheath portion; a first guidewire (228/230) comprising a first guidewire end and a second guidewire end, the first guidewire extending from the first and second guidewire ends through the central lumen and forming a distal looped portion (236/238); and an occlusion device disposed at a distal end of an elongate flexible shaft , the elongate flexible shaft extending from the proximal sheath portion through the central lumen, wherein: the occlusion device includes a guide lumen (232/234) through which the first guide wire passes; the first guidewire is configured to be moved distally with respect to the outer sheath, such that the distal looped portion is disposed distally with respect to the distal sheath portion; and the occlusion device is configured to be moved along the first guidewire; characterized in that the first guidewire has a rigidity that is greater than a rigidity of the elongate flexible shaft to enable the elongate flexible shaft to bend instead of the first guidewire, as the occlusion device is protracted. an elongate outer sheath that extends along a sheath longitudinal axis and defines a central lumen extending therethrough, the elongate outer sheath comprising a proximal sheath portion and a distal sheath portion; a first guidewire (228/230) comprising a first guidewire end and a second guidewire end, the first guidewire extending from the first and second guidewire ends through the central lumen and forming a distal looped portion (236/238); and an occlusion device disposed at a distal end of an elongate flexible shaft , the elongate flexible shaft extending from the proximal sheath portion through the central lumen, wherein: the occlusion device includes a guide lumen (232/234) through which the first guide wire passes; the first guidewire is configured to be moved distally with respect to the outer sheath, such that the distal looped portion is disposed distally with respect to the distal sheath portion; and the occlusion device is configured to be moved along the first guidewire; characterized in that the first guidewire has a rigidity that is greater than a rigidity of the elongate flexible shaft to enable the elongate flexible shaft to bend instead of the first guidewire, as the occlusion device is protracted. the occlusion device includes a guide lumen (232/234) through which the first guide wire passes; the first guidewire is configured to be moved distally with respect to the outer sheath, such that the distal looped portion is disposed distally with respect to the distal sheath portion; and the occlusion device is configured to be moved along the first guidewire; characterized in that the first guidewire has a rigidity that is greater than a rigidity of the elongate flexible shaft to enable the elongate flexible shaft to bend instead of the first guidewire, as the occlusion device is protracted.
An optical scanning device comprising: a support portion including a swingable coupling portion and a frame swingably supporting the coupling portion ; a first reflecting portion coupled to the coupling portion and configured to swing together with the coupling portion ; and a swingable connecting portion including a bridge and a second reflecting portion coupled to the first reflecting portion via the bridge and provided at a position away from the first reflecting portion beyond the support portion, wherein the connecting portion has a first mounting base on which the first reflecting portion is mounted and a second mounting base on which the second reflecting portion is mounted, characterized in that , in a case when a surface of the first mounting base for mounting the first reflection portion is treated as an upper surface of the first mounting base , and a surface of the second mounting base for mounting the second reflection portion is treated as an upper surface of the second mounting base , the upper surface of the second mounting base is configured higher than the upper surface of the first mounting base thus the second reflecting portion is disposed at a higher position than the first reflecting portion , wherein the frame has a closed quadrilateral ring shape; wherein the bridge has a shape that straddles the frame ; and wherein the connecting portion has a light shielding wall formed on a bridge side of the second mounting base or wherein a light shielding plate is provided on the second mounting base . a support portion including a swingable coupling portion and a frame swingably supporting the coupling portion ; a first reflecting portion coupled to the coupling portion and configured to swing together with the coupling portion ; and a swingable connecting portion including a bridge and a second reflecting portion coupled to the first reflecting portion via the bridge and provided at a position away from the first reflecting portion beyond the support portion, wherein the connecting portion has a first mounting base on which the first reflecting portion is mounted and a second mounting base on which the second reflecting portion is mounted, characterized in that , in a case when a surface of the first mounting base for mounting the first reflection portion is treated as an upper surface of the first mounting base , and a surface of the second mounting base for mounting the second reflection portion is treated as an upper surface of the second mounting base , the upper surface of the second mounting base is configured higher than the upper surface of the first mounting base thus the second reflecting portion is disposed at a higher position than the first reflecting portion , wherein the frame has a closed quadrilateral ring shape; wherein the bridge has a shape that straddles the frame ; and wherein the connecting portion has a light shielding wall formed on a bridge side of the second mounting base or wherein a light shielding plate is provided on the second mounting base .
In vitro method to determine the risk of developing an infectious disease before it has occurred comprising (i) Quantifying the mitochondrial DNA in a biological sample of a subject, preferably a human being, (ii) Comparing the value of the concentration of the mitochondrial DNA obtained in step (i) with the value of the concentration of the mitochondrial DNA from a control sample in order to find a significant difference between them, and (iii) associating the significant difference with the risk of developing an infectious disease, wherein - a difference is considered to be significant when the value of the sample under observation is at least 2 times higher than the average +/- standard deviation of the control sample, and - the subject does not suffer from an infection and has not received any immunosuppressed treatment nor has had a transplant. (i) Quantifying the mitochondrial DNA in a biological sample of a subject, preferably a human being, (ii) Comparing the value of the concentration of the mitochondrial DNA obtained in step (i) with the value of the concentration of the mitochondrial DNA from a control sample in order to find a significant difference between them, and (iii) associating the significant difference with the risk of developing an infectious disease, - a difference is considered to be significant when the value of the sample under observation is at least 2 times higher than the average +/- standard deviation of the control sample, and - the subject does not suffer from an infection and has not received any immunosuppressed treatment nor has had a transplant.
A network device comprising: a memory device and a congestion monitor device coupled to the memory device, the congestion monitor device configured to: access a received congestion causing packet and based on the received congestion causing packet including a source queue-pair, QP, identifier identifying a queue-pair of a source transmitter: copy the source queue-pair identifier from the received congestion causing packet, form a congestion notification packet, CNP, that includes a copy of the source queue-pair identifier from the received congestion causing packet, and cause the CNP to be transmitted to a source transmitter of the received congestion causing packet to adjust a transmission rate of the source transmitter based on the copy of the source queue-pair identifier, wherein the CNP is compatible with RDMA over Converged Ethernet (RoCE) v2. a memory device and a congestion monitor device coupled to the memory device, the congestion monitor device configured to: access a received congestion causing packet and based on the received congestion causing packet including a source queue-pair, QP, access a received congestion causing packet and based on the received congestion causing packet including a source queue-pair, QP, identifier identifying a queue-pair of a source transmitter: copy the source queue-pair identifier from the received congestion causing packet, form a congestion notification packet, CNP, that includes a copy of the source queue-pair identifier from the received congestion causing packet, and cause the CNP to be transmitted to a source transmitter of the received congestion causing packet to adjust a transmission rate of the source transmitter based on the copy of the source queue-pair identifier, wherein the CNP is compatible with RDMA over Converged Ethernet (RoCE) v2. copy the source queue-pair identifier from the received congestion causing packet, form a congestion notification packet, CNP, that includes a copy of the source queue-pair identifier from the received congestion causing packet, and cause the CNP to be transmitted to a source transmitter of the received congestion causing packet to adjust a transmission rate of the source transmitter based on the copy of the source queue-pair identifier, wherein the CNP is compatible with RDMA over Converged Ethernet (RoCE) v2.
A cyclen metal complex for use as an imaging agent in imaging a liver or a kidney, wherein said cyclen metal complex comprises cyclen selected from the group consisting of: 2,2',2",2′′′-( -2,5,8,11-tetraethyl-1,4,7,10-tetraazacyclododecane-1,4,7,10-tetrayl)tetraacetic acid; 2,2',2",2′′′-( -2,5,8,11-tetraethyl-1,4,7,10-tetraazacyclododecane-1,4,7,10-tetrayl)tetraacetic acid; and gadolinium, wherein a metal complex is formed between said cyclen and gadolinium. 2,2',2",2′′′-( -2,5,8,11-tetraethyl-1,4,7,10-tetraazacyclododecane-1,4,7,10-tetrayl)tetraacetic acid; 2,2',2",2′′′-( -2,5,8,11-tetraethyl-1,4,7,10-tetraazacyclododecane-1,4,7,10-tetrayl)tetraacetic acid; and gadolinium, wherein a metal complex is formed between said cyclen and gadolinium.
A container for storing dehydrated biological material under a controlled atmosphere, in particular at ambient temperature, and more particularly DNA, comprising an envelope made from gastight metal material, characterised in that the envelope is cylindrical in shape, the container comprising an insert , also cylindrical in shape and being housed with gentle friction in the envelope , for receiving said biological material, said envelope being closed at one end and at the other end comprises a stopper intended to be sealingly connected to said envelope, the envelope and the stopper being produced from the same material, each in a single piece and made by mechanical deformation by deep drawing, the stopper being made from metal material and cylindrical in shape, closed at one end and intended to be fitted in the cylindrically shaped envelope , the open peripheral edges of the envelope and of the stopper being juxtaposed.
Crate having a base and a plurality of lateral walls , each provided with a first horizontal cross member and a second horizontal cross member , each provided with an upper edge and a lower edge that at least locally define the overall height (H) of said first and said second horizontal cross member, respectively, said crate having a first connecting piece that forms the interface between a pair of adjacent lateral walls of the plurality of lateral walls and the base , said first connecting piece being provided, for each lateral wall of said pair of adjacent lateral walls , with a housing for receiving a part of the corresponding first horizontal cross member, said first connecting piece having, at each housing , an outer lateral partition and a retaining member having an elastically deformable part and a retaining head , the two housings each having a first end and a second end, the first ends being proximal and the second ends being distal, the elastically deformable part being formed at the distal end in the continuation of the outer lateral partition , characterized in that said first connecting piece has at least one stop intended to come into contact with at least one lateral face of the base , and a separating partition at the common proximal end of each housing .
A smoking article , wherein the smoking article is composed of a filter base body , a second connector , a flavor-producing portion , a isolation portion and a third connector , the filter base body comprises a first connector , and a cooling portion and a filtration portion which are sequentially disposed along an inhalation direction, filtration passages are formed inside the filtration portion, cooling passages are formed inside the cooling portion, the filtration portion and the cooling portion are connected by the first connector, and the filtration passages and the cooling passages communicate with each other; the isolation portion is disposed between the flavor-producing portion and the filter base body, and isolation passages are disposed inside the isolation portion, the flavor-producing portion being configured to release smoke into the cooling passages by being heated and through the isolation passages, wherein the isolation portion, being disposed between the flavor-producing portion and the filter base body, isolates the flavor-producing portion from the cooling portion, the flavor-producing portion and the isolation portion are connected by the third connector, the third connector, the isolation portion, and the flavor-producing portion constitute a cigarette base body , and the cigarette base body and the filter base body are connected by the second connector. the filter base body comprises a first connector , and a cooling portion and a filtration portion which are sequentially disposed along an inhalation direction, filtration passages are formed inside the filtration portion, cooling passages are formed inside the cooling portion, the filtration portion and the cooling portion are connected by the first connector, and the filtration passages and the cooling passages communicate with each other; the isolation portion is disposed between the flavor-producing portion and the filter base body, and isolation passages are disposed inside the isolation portion, the flavor-producing portion being configured to release smoke into the cooling passages by being heated and through the isolation passages, wherein the isolation portion, being disposed between the flavor-producing portion and the filter base body, isolates the flavor-producing portion from the cooling portion, the flavor-producing portion and the isolation portion are connected by the third connector, the third connector, the isolation portion, and the flavor-producing portion constitute a cigarette base body , and the cigarette base body and the filter base body are connected by the second connector.
A disposable glove for a human hand , comprising: a sensing circuit loop printed on the disposable glove , the sensing circuit loop including: an inductive coil printed on a wrist portion of the disposable glove, and one or more of a capacitive sensor element and a resistive sensor element printed on a finger joint portion of the disposable glove, wherein the capacitive sensor element and/or the resistive sensor element comprise a first layer of conductive material adjacent to a second layer of conductive material , and wherein the first and the second layers of conductive material are electrically insulated by a dielectric layer . an inductive coil printed on a wrist portion of the disposable glove, and one or more of a capacitive sensor element and a resistive sensor element printed on a finger joint portion of the disposable glove, wherein the capacitive sensor element and/or the resistive sensor element comprise a first layer of conductive material adjacent to a second layer of conductive material , and wherein the first and the second layers of conductive material are electrically insulated by a dielectric layer .
A condensation polymer of sulfonated phenol, urea, and formaldehyde, wherein the sulfonated phenol contains ortho phenol sulfonic acid and para phenol sulfonic acid in a molar ratio of 2:1 to 1:5.
A set comprising: - a first thermostatic radiator valve (TRV, 21) and a second thermostatic radiator valve (TRV, 22), each comprising an aperture to adjust a flow of heat transfer fluid from a thermal energy generator entering a heat exchanger , and - a processing unit connected to a thermostat controlling the thermal energy generator , each TRV comprising: - means adapted to communicate to the processing unit; - an input interface configured to one or more of: o allow a user to enter or o acquire a TRV-defined temperature setpoint; characterized in that the first TRV is further configured to receive from the processing unit a first aperture setting, the first aperture setting being defined as a function of a temperature configuration model available at the processing unit and the TRV-defined temperature setpoint of the first TRV , the second TRV is further configured to receive from the processing unit a second aperture setting, the second aperture setting being defined as a function of a temperature configuration model available at the processing unit and the TRV-defined temperature setpoint of the second TRV , the temperature configuration model being defined by updatable model parameters, and in that the first aperture setting and the second aperture setting determine an equilibrium position for each TRV enabling to reach the TRV-defined temperature setpoint for each TRV. - a first thermostatic radiator valve (TRV, 21) and a second thermostatic radiator valve (TRV, 22), each comprising an aperture to adjust a flow of heat transfer fluid from a thermal energy generator entering a heat exchanger , and - a processing unit connected to a thermostat controlling the thermal energy generator , - means adapted to communicate to the processing unit; - an input interface configured to one or more of: o allow a user to enter or o acquire a TRV-defined temperature setpoint; o allow a user to enter or o acquire a TRV-defined temperature setpoint;
A rotary coring bit for use in rotary sidewall coring in a wellbore , the coring bit comprising: a rotary coring bit body forming a core chamber within, the core chamber having a longitudinal axis; and a core catching torsion spring disposed within the core chamber , the core catching torsion spring being moveable between a radially expanded position and a radially contracted position which is capable of gripping a core sample within the core chamber , wherein the core catching torsion spring is a helical spring having a helical spring axis, wherein the helical spring axis coincides with the longitudinal axis of the core chamber ; characterized in that : the core catching torsion spring is moved from the radially contracted position to the radially expanded position by frictional contact between the core catching torsion spring and a sidewall of the wellbore as the rotary bit body is rotated; wherein the core catching torsion spring includes a first spring end and a second spring end ; and the first spring end is secured to the rotary bit body . a rotary coring bit body forming a core chamber within, the core chamber having a longitudinal axis; and a core catching torsion spring disposed within the core chamber , the core catching torsion spring being moveable between a radially expanded position and a radially contracted position which is capable of gripping a core sample within the core chamber , wherein the core catching torsion spring is a helical spring having a helical spring axis, wherein the helical spring axis coincides with the longitudinal axis of the core chamber ; characterized in that : the core catching torsion spring is moved from the radially contracted position to the radially expanded position by frictional contact between the core catching torsion spring and a sidewall of the wellbore as the rotary bit body is rotated; wherein the core catching torsion spring includes a first spring end and a second spring end ; and the first spring end is secured to the rotary bit body . the core catching torsion spring is moved from the radially contracted position to the radially expanded position by frictional contact between the core catching torsion spring and a sidewall of the wellbore as the rotary bit body is rotated; wherein the core catching torsion spring includes a first spring end and a second spring end ; and the first spring end is secured to the rotary bit body .
Method for the manufacture of steel sheet, in particular for the outer skin panels of vehicles, wherein a steel alloy of a desired composition is melted, cast and subsequently rolled into sheet, which sheet steel is annealed after rolling, after which it is provided with a metallic anti-corrosion coating and subsequently ski-passed, wherein the steel alloy has the following analysis in wt%: C 0.001 to 0.020 preferably 0.001-0.010 more preferably 0.001-0.006 Si 0.01 to 0.7 preferably 0.01-0.5 more preferably 0.01-0.4 Mn 0.02 to 1.5 preferably 0.02-1.0 more preferably 0.02-0.6 P max. 0.15 preferably max. 0.1 more preferably max. 0.1 S max. 0.05 preferably max. 0.03 more preferably max. 0.03 Al 0.015 to 1.0 preferably 0.015-0.5 more preferably 0.015-0.10 Nb 0.011 to 0.15 preferably 0.011-0.10 more preferably 0.011-0.05 Ti 0.01 to 0.2 preferably 0.01-0.15 more preferably 0.01-0.12 Optionally, one or a plurality of the following elements: boron up to max. 100 ppm and/or vanadium up to 0.4 wt% and/or zirconium up to 0.4 wt% and/or hafnium up to 0.5 wt%, and/or tungsten up to 0.5 wt%, and/or tantalum up to 0.5 wt%, and/or the remainder of iron and impurities introduced by melting characterised in that , to achieve a Wsa value of below 0.35 μm, a preferably dense dispersion of niobium with a content of >0.01 wt%, preferably >0.011 wt%, is added to the alloy, wherein skin pass rollers with a roughness (Ra) of 1.6 to 3.3 μm are used, wherein the heating rates during the recrystallisation annealing process lie between 8 K/s and 30 K/s. boron up to max. 100 ppm and/or vanadium up to 0.4 wt% and/or zirconium up to 0.4 wt% and/or hafnium up to 0.5 wt%, and/or tungsten up to 0.5 wt%, and/or tantalum up to 0.5 wt%, and/or the remainder of iron and impurities introduced by melting characterised in that , to achieve a Wsa value of below 0.35 μm, a preferably dense dispersion of niobium with a content of >0.01 wt%, preferably >0.011 wt%, is added to the alloy, wherein skin pass rollers with a roughness (Ra) of 1.6 to 3.3 μm are used, wherein the heating rates during the recrystallisation annealing process lie between 8 K/s and 30 K/s.