mhurhangee/ep-ind-claims huggingface dataset:
An anti-reverse device for a fishing reel, comprising: an anti-reverse gear provided on a rotator rotated by a handle operation; an anti-reverse pawl to be engaged with the anti-reverse gear; and a cam (30; 130) controlling engagement and disengagement of the anti-reverse pawl with the anti-reverse gear in accordance with a rotational direction of the rotator, wherein the cam (30; 130) includes: a friction clip (31, 32; 131) attached to the rotator and rotating together with the rotator with a friction force between the rotator and the friction clip (31, 32; 131); and a bias member (34; 132) biasing the friction clip (31, 32; 131) in a direction in which a clamping force of the friction clip (31, 32; 131) is increased, wherein the friction clip (31, 32; 131) includes: two clip members (31, 32; 133, 134) clipping the rotator; and an engaging portion (37; 136) formed in one of the two clip members (31, 32; 133, 134) to engage with the anti-reverse pawl; characterized in that the friction clip (31, 32, 131) further includes a connecting portion (33; 135) connecting the two clip members (31, 32; 133, 134) so as to be openable and closable in response to rotation of the rotor. an anti-reverse gear provided on a rotator rotated by a handle operation; an anti-reverse pawl to be engaged with the anti-reverse gear; and a cam (30; 130) controlling engagement and disengagement of the anti-reverse pawl with the anti-reverse gear in accordance with a rotational direction of the rotator, wherein the cam (30; 130) includes: a friction clip (31, 32; 131) attached to the rotator and rotating together with the rotator with a friction force between the rotator and the friction clip (31, 32; 131); and a bias member (34; 132) biasing the friction clip (31, 32; 131) in a direction in which a clamping force of the friction clip (31, 32; 131) is increased, a friction clip (31, 32; 131) attached to the rotator and rotating together with the rotator with a friction force between the rotator and the friction clip (31, 32; 131); and a bias member (34; 132) biasing the friction clip (31, 32; 131) in a direction in which a clamping force of the friction clip (31, 32; 131) is increased, wherein the friction clip (31, 32; 131) includes: two clip members (31, 32; 133, 134) clipping the rotator; and an engaging portion (37; 136) formed in one of the two clip members (31, 32; 133, 134) to engage with the anti-reverse pawl; two clip members (31, 32; 133, 134) clipping the rotator; and an engaging portion (37; 136) formed in one of the two clip members (31, 32; 133, 134) to engage with the anti-reverse pawl; characterized in that the friction clip (31, 32, 131) further includes a connecting portion (33; 135) connecting the two clip members (31, 32; 133, 134) so as to be openable and closable in response to rotation of the rotor.
A hydrogen gas generating apparatus comprising: a housing having a fixed interior volume; an expandable reaction chamber within the housing comprising a moveable partition, defining an expandable reactant zone and containing a solid reactant component within the reactant zone; a collapsible receptacle within the housing containing a liquid reactant component; a fluid path for transporting the liquid reactant component from the collapsible receptacle to the reactant zone of the reaction chamber; and a liquid reactant transport control system; wherein the liquid reactant component reacts with the solid reactant component within the reaction chamber to generate hydrogen gas; and wherein the fluid path is provided with an outlet that is moveable from one portion of the reactant zone toward another; characterized in that the fluid path is coupled to the moveable partition or an intermediate component between the collapsible receptacle, and the reaction chamber, so that when the partition or the intermediate component moves, the fluid path outlet moves within the reactant zone from a distal portion toward a proximal portion of the reactant zone relative to the moveable partition. a housing having a fixed interior volume; an expandable reaction chamber within the housing comprising a moveable partition, defining an expandable reactant zone and containing a solid reactant component within the reactant zone; a collapsible receptacle within the housing containing a liquid reactant component; a fluid path for transporting the liquid reactant component from the collapsible receptacle to the reactant zone of the reaction chamber; and a liquid reactant transport control system; wherein the liquid reactant component reacts with the solid reactant component within the reaction chamber to generate hydrogen gas; and wherein the fluid path is provided with an outlet that is moveable from one portion of the reactant zone toward another;
Container for storing liquefied gas, in particular cryogenic fluid such as helium, comprising a first, inner tank extending in a longitudinal direction and intended to store the liquefied gas, a second, outer tank arranged around the first tank with a vacuum insulated spacing between the first and the second tank, the container comprising a device for supporting the first tank in the second tank, the first tank being intended to be maintained at a cryogenic temperature while the second tank is intended to be maintained at a temperature higher than the temperature of the first tank, the support device comprising a fixed and rigid connection extending in a longitudinal direction between, on the one hand, one end of the second tank and, on the other hand, an adjacent end of the first tank, the fixed and rigid connection comprising a set of walls (4, 5, 6, 7) forming back-and-forths in the longitudinal direction so as to constitute a thermal insulation path between, on the one hand, the second tank and, on the other hand, the first tank, characterized in that the longitudinal direction is horizontal and in that the set of walls forming back-and-forths in the longitudinal direction of the fixed and rigid connection comprises at least one wall made of titanium.
An adhesive composition comprising, based on the composition weight, from 30% to 65% of a polyolefin consisting of LLDPE being a copolymer of ethylene and a comonomer selected from 1-butene, 1-hexene, and 1-octene; 15% to 65% of a conjugated diene-based elastomer selected from the group consisting of styrene-butadiene-styrene triblock copolymers, styrene-isoprene-styrene triblock copolymers; 0.5% to 15% of olefin elastomer selected from an ethylene-propylene rubber comprising from 45 wt% to 75 wt% of ethylene and from 25 wt% to 55 wt% of propylene; and 0.5% to 25% of a maleated polyolefin, wherein the composition has a weight ratio of olefin elastomer/ conjugated diene-based elastomer within the range of 0.04 to 1.
A pharmaceutical composition for use in preventing or treating a depression, wherein the pharmaceutical composition comprises a DUSP1 inhibitor comprising a compound represented by Formula 1: wherein, R 1 to R 10, each independently, are hydrogen, halogen, hydroxy, cyano, amino, nitro, nitroso, carboxyl, C 1 -C 12 alkyl, C 2 -C 6 alkenyl, C 3 -C 8 cycloalkyl, C 5 -C 7 cycloalkenyl, C 1 -C 6 alkylamino, C 1 -C 6 alkoxy, aryl, heteroaryl, arylalkyl, arylalkenyl or alkylaryl.
A function control method using a mobile terminal, the method comprising: detecting, at the mobile terminal, a connection of an external display device to the mobile terminal; acquiring, by the mobile terminal, information on the screen size of the external display device; determining, by the mobile terminal, a window layout policy corresponding to the acquired information of the external display device; and outputting, by the mobile terminal, a default desktop window screen from the mobile terminal to the external display device according to the determined window layout policy, characterised in that the default desktop window screen includes shortcut icons representing applications capable of executing operations corresponding to a window environment of the default desktop window screen through a predetermined background screen and the external display device. detecting, at the mobile terminal, a connection of an external display device to the mobile terminal; acquiring, by the mobile terminal, information on the screen size of the external display device; determining, by the mobile terminal, a window layout policy corresponding to the acquired information of the external display device; and outputting, by the mobile terminal, a default desktop window screen from the mobile terminal to the external display device according to the determined window layout policy, characterised in that the default desktop window screen includes shortcut icons representing applications capable of executing operations corresponding to a window environment of the default desktop window screen through a predetermined background screen and the external display device.
An optical sensor disposition structure for a saddle riding vehicle including a head pipe and a vehicle body, the optical sensor disposition structure comprising: an optical sensor (30, 230); and an airflow guide member (4, 204) that is disposed in front of a head pipe (11, 211) and that is configured to cover a front section of a vehicle body, and in which an introduction port (40, 240) configured to guide traveling air rearward is formed, characterised by that wherein the optical sensor (30, 230) overlaps the introduction port (40, 240) when seen in a front view. an optical sensor (30, 230); and an airflow guide member (4, 204) that is disposed in front of a head pipe (11, 211) and that is configured to cover a front section of a vehicle body, and in which an introduction port (40, 240) configured to guide traveling air rearward is formed, characterised by that wherein the optical sensor (30, 230) overlaps the introduction port (40, 240) when seen in a front view.
Process to extrude a melt stream at 150 - 250°C comprising at least one polyvinyl acetal and at least one plasticizer having a predefined melt viscosity at 60 - 170°C characterized by a) providing a first melt stream comprising at least a first plasticizer and a first polyvinyl acetal resin and measuring online its melt viscosity at 60 - 170°C; b) adding a second plasticizer and/or a second polyvinyl acetal resin to the first melt stream in an amount to provide a second melt stream with a melt viscosity at 60 - 170°C having a difference of at most 20% to the predefined melt viscosity at 60 - 170°C. a) providing a first melt stream comprising at least a first plasticizer and a first polyvinyl acetal resin and measuring online its melt viscosity at 60 - 170°C; b) adding a second plasticizer and/or a second polyvinyl acetal resin to the first melt stream in an amount to provide a second melt stream with a melt viscosity at 60 - 170°C having a difference of at most 20% to the predefined melt viscosity at 60 - 170°C.
Transfer device for the singularized transfer of product carriers (2a-2e; 2c, 2d) having holding means (21, 21a-21e;, 21c, 21d) to a suspension conveyor device, comprising a conveying helix (11, 11) which defines a conveyor section having a conveyor portion and a transfer portion for the holding means (21, 21a-21e; 21a -21f), wherein the conveyor section in the conveyor portion describes a linear path and in the transfer portion, in a manner superimposed on the linear path, describes a transversely curved path which is described by superimposing a horizontal component and a vertical component in a plane which is perpendicular to the longitudinal axis of the conveying helix (11, 11) such that the transversely curved path comprises a horizontal component, wherein the conveying helix (11, 11) in the transfer portion terminates in an eccentrically disposed guide tongue which, in comparison to the cross section of the conveying helix (11, 11), comprises a tapered cross section in the conveying region, wherein the conveying helix (11, 11) in the transfer portion comprises a transition helical turn (112, 112) having a quasi-anticlastic face, wherein the conveyor section in the transfer portion lies on the quasi-anticlastic face in such a manner that the holding means (21, 21-12e; 21a -21f), superimposed to a linear path, describe a transversely curved path, characterized in that the conveying helix (11, 11) comprises at least one singularizing helical turn for singularizing adjoining holding means (21, 21a-21e; 21c, 21d) which comprises a slope which is different from that of other helical turns (113, 113a, 113b) of the conveying helix in which the holding means (21, 21 a-21e; 21c, 21d) are conveyable, and in that the conveying helix (11, 11) from the conveyor portion transitions continuously to the transfer helical turn (112, 112) in the transfer portion, and in that the holding means (21, 21a-21e, 21a -21f) in a stoppage of the conveying helix (11, 11) remain at the respective current position and are able to be conveyed onward from said position when the rotation of the conveying helix (11, 11) is resumed.
A fluid delivery system for delivering a fluid from one container to another container, the fluid delivery system comprising: a delivery channel connecting between the one container to the other container; and a delivery pump which feeds the fluid into the delivery channel by compressively deforming inner diameter in the middle of the delivery channel, wherein the delivery channel is a partially elastic configuration that can be compressively deformed by the delivery pump, and also is a closed-system configuration with which the fluid flowing inside thereof is isolated from outside, wherein the delivery pump is capable of adjusting a feed speed of the fluid according to a fluid amount inside the one container in a process of feeding the fluid from the one container to the other container, characterized in that the delivery pump comprises a controller for linearly controlling the feed speed of the fluid; and the delivery pump includes a supporting face along which the middle of the delivery channel is placed, the supporting face comprising two sloping surfaces (31a, b) with different sloping directions and a flat surface joining the sloping surfaces, and a roller which compresses the middle of the delivery channel placed along the supporting face and shifts a compression state thereof to a fluid delivering direction, wherein the delivery pump feeds the fluid by giving a margin to the control values of the feed speed outputted from the controller. a delivery channel connecting between the one container to the other container; and a delivery pump which feeds the fluid into the delivery channel by compressively deforming inner diameter in the middle of the delivery channel, wherein the delivery channel is a partially elastic configuration that can be compressively deformed by the delivery pump, and also is a closed-system configuration with which the fluid flowing inside thereof is isolated from outside, wherein the delivery pump is capable of adjusting a feed speed of the fluid according to a fluid amount inside the one container in a process of feeding the fluid from the one container to the other container, characterized in that the delivery pump comprises a controller for linearly controlling the feed speed of the fluid; and the delivery pump includes a supporting face along which the middle of the delivery channel is placed, the supporting face comprising two sloping surfaces (31a, b) with different sloping directions and a flat surface joining the sloping surfaces, and a roller which compresses the middle of the delivery channel placed along the supporting face and shifts a compression state thereof to a fluid delivering direction, wherein the delivery pump feeds the fluid by giving a margin to the control values of the feed speed outputted from the controller.
Compression device for breast exams, comprising: a support element defining a flat surface made at least in part of material transparent to light and configured to come into contact with a lower area of the breast; a substantially box-like body made at least in part of transparent material and comprising at least one elastic and deformable wall configured to compress an upper area of the breast, said elastic wall being opposite the flat surface and comprising a membrane configured to be deformed under the action of a pressurized fluid; and orientation means of the box-like body for moving the body itself with respect to the support element and as a function of the dimensions and shape of the breast; wherein said box-like body comprises a flat wall opposite said membrane and made of rigid and transparent material, and two side walls made of rigid material and each of which interposed between the membrane and the flat wall; characterized in that said orientation means comprise a pair of connection portions each hinged to a respective side wall; each connection portion comprising a skid for sliding on the flat surface along a direction away from/approaching the patient's body as a function of the dimensions of the breast. a support element defining a flat surface made at least in part of material transparent to light and configured to come into contact with a lower area of the breast; a substantially box-like body made at least in part of transparent material and comprising at least one elastic and deformable wall configured to compress an upper area of the breast, said elastic wall being opposite the flat surface and comprising a membrane configured to be deformed under the action of a pressurized fluid; and orientation means of the box-like body for moving the body itself with respect to the support element and as a function of the dimensions and shape of the breast; wherein said box-like body comprises a flat wall opposite said membrane and made of rigid and transparent material, and two side walls made of rigid material and each of which interposed between the membrane and the flat wall; characterized in that said orientation means comprise a pair of connection portions each hinged to a respective side wall; each connection portion comprising a skid for sliding on the flat surface along a direction away from/approaching the patient's body as a function of the dimensions of the breast.
A patient support apparatus with closed chain exercise functionalities, the patient support apparatus comprising: a base frame; a support deck supported on the base frame, the support deck comprising a seat portion; a segmented patient support surface comprising an upper leg support segment slidably coupled to the support deck such that the upper leg support segment is freely slidable with respect to the support deck; a lift system coupled to the support deck and the segmented patient support surface, the lift system raising, lowering and tilting the support deck with respect to the base frame; and a foot plate assembly removably positioned proximate a free end of the leg portion of the support deck, the foot plate assembly receiving the feet of a patient when the patient is positioned on the segmented patient support surface thereby enabling the patient to slide the segmented patient support surface relative to the support deck to perform a closed chain exercise, characterized in that the support deck further comprises a leg portion pivotally coupled to an end of the seat portion, the lift system pivoting the leg portion with respect to the seat portion. a base frame; a support deck supported on the base frame, the support deck comprising a seat portion; a segmented patient support surface comprising an upper leg support segment slidably coupled to the support deck such that the upper leg support segment is freely slidable with respect to the support deck; a lift system coupled to the support deck and the segmented patient support surface, the lift system raising, lowering and tilting the support deck with respect to the base frame; and a foot plate assembly removably positioned proximate a free end of the leg portion of the support deck, the foot plate assembly receiving the feet of a patient when the patient is positioned on the segmented patient support surface thereby enabling the patient to slide the segmented patient support surface relative to the support deck to perform a closed chain exercise, characterized in that the support deck further comprises a leg portion pivotally coupled to an end of the seat portion, the lift system pivoting the leg portion with respect to the seat portion.
A system for remotely monitoring cryogenic processing of a sample, the system comprising: a plurality of thawing machines (300, 301, 302, 350) for thawing a respective sample; a remote server (50, 130) located remote from the thawing machines (300, 301, 302, 350), the remote server (50, 130) configured to transmit the same predetermined sample thawing profile data to each of said thawing machines (300, 301, 302, 350); wherein the thawing machines comprise at least one respective sensor (366, 367, 368,...36n), the at least one respective sensor configured to detect thawing sensor data relating to the thawing of the sample in accordance with the transmitted predetermined sample thawing profile data; and wherein the remote server (50, 130) is further configured to receive the detected thawing sensor data from the thawing machines (300, 301, 302, 350), and wherein the thawing machines (300, 301, 302, 350) further comprise a respective control module, the respective control module being configured to detect at least one of thawing machine (300, 301, 302, 350) data, sample thawing data and user data, relating to the thawing of the sample in accordance with the transmitted predetermined sample thawing profile data; and wherein the remote server (50, 130) is further configured to receive from the thawing machines (300, 301, 302, 350) the detected thawing machine data, sample thawing data, and/or user data. a plurality of thawing machines (300, 301, 302, 350) for thawing a respective sample; a remote server (50, 130) located remote from the thawing machines (300, 301, 302, 350), the remote server (50, 130) configured to transmit the same predetermined sample thawing profile data to each of said thawing machines (300, 301, 302, 350); wherein the thawing machines comprise at least one respective sensor (366, 367, 368,...36n), the at least one respective sensor configured to detect thawing sensor data relating to the thawing of the sample in accordance with the transmitted predetermined sample thawing profile data; and wherein the remote server (50, 130) is further configured to receive the detected thawing sensor data from the thawing machines (300, 301, 302, 350), and wherein the thawing machines (300, 301, 302, 350) further comprise a respective control module, the respective control module being configured to detect at least one of thawing machine (300, 301, 302, 350) data, sample thawing data and user data, relating to the thawing of the sample in accordance with the transmitted predetermined sample thawing profile data; and wherein the remote server (50, 130) is further configured to receive from the thawing machines (300, 301, 302, 350) the detected thawing machine data, sample thawing data, and/or user data.