mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a first variable frequency generator VFG including a generator configured to conduct alternating current to a first rectifier configured to convert alternating current from the first VFG to direct current and drive it to an HVDC Bus Network; a variable frequency second generator including a second generator configured to conduct alternating current to a second rectifier configured to convert alternating current from the second generator to direct current and direct it to the HVDC Bus Network; a VFG control unit operatively connected to the generator configured to control the VFG input speed and regulation; and a second generator control unit operatively connected to the second generator and the HVDC Bus Network configured to control the second generator regulation; wherein the VFG is operatively connected to a low-pressure spool gearbox spool engine of an aircraft; and characterised by a speed correcting gearbox operatively connected to the first VFG configured to align generator frequency to the second generator frequency, wherein the speed-correcting gearbox is located between the VFG and the low-pressure gearbox. a first variable frequency generator VFG including a generator configured to conduct alternating current to a first rectifier configured to convert alternating current from the first VFG to direct current and drive it to an HVDC Bus Network; a variable frequency second generator including a second generator configured to conduct alternating current to a second rectifier configured to convert alternating current from the second generator to direct current and direct it to the HVDC Bus Network; a VFG control unit operatively connected to the generator configured to control the VFG input speed and regulation; and a second generator control unit operatively connected to the second generator and the HVDC Bus Network configured to control the second generator regulation; wherein the VFG is operatively connected to a low-pressure spool gearbox spool engine of an aircraft; and characterised by a speed correcting gearbox operatively connected to the first VFG configured to align generator frequency to the second generator frequency, wherein the speed-correcting gearbox is located between the VFG and the low-pressure gearbox.
An apparatus for treating at least one workpiece, the apparatus comprising a casing which at least partially encloses a first region and a second region, the first and second regions being adapted to be in communication with one another by at least one passage, and support means for supporting a carrier adapted to hold the at least one workpiece, the support means being adapted to support the carrier so that the at least one workpiece is positioned in the first region for treatment, characterized in that the apparatus comprises differential pressure creating means for creating a pressure difference (P 2 - P 1) between the first region and the second region, the at least one pressure (P 1) of the second region being lower than the at least one pressure (P 2) of the first region, to force the at least one workpiece toward the carrier, in that the at least one passage is adapted to be in communication with both the first region and the second region when the carrier is supported by the support means, and in that the differential pressure creating means are adapted to guide a flow of medium or media from the first region to the second region through the at least one passage in order, at least partly, to create said pressure difference, wherein one and the same system is arranged to hold the work piece and to take care of the medium used for treating the work piece.
A thin film transistor, comprising a thin film of organic semiconductor material which comprises an N,N'-dicycloalkyl-substituted naphthalene tetracarboxylic diimide compound represented by the following general Structure I: characterized in that, A 1 and A 2 are independently an alicyclic ring system comprising 4 to 10 ring carbons in the ring system which is unsubstituted or substituted in one or both rings with one or more alkyl groups; and wherein m is any integer from 0 to 4 and Y groups are independently selected from alkyl, alkenyl or alkoxy groups.
A method for fastening two parts together, the method comprising: creating an initial interference fit between a fastener and at least a portion of a hole extending through the two parts while maintaining a force equilibrium; and creating a final interference fit between the fastener and the hole, while maintaining a new force equilibrium, characterized in that: creating the initial interference fit comprises applying a first force to a head of the fastener using a first robotic device, while also applying a second force to an end of the fastener using a second robotic device, wherein the second force is less than the first force, wherein creating the final interference fit comprises: commanding the first robotic device to apply a new first force to the head of the fastener; and commanding the second robotic device to apply a new second force that is greater than the new first force to an end of the fastener, wherein at least one of the new first force or the new second force is different from the first force or the second force, respectively. creating an initial interference fit between a fastener and at least a portion of a hole extending through the two parts while maintaining a force equilibrium; and creating a final interference fit between the fastener and the hole, while maintaining a new force equilibrium, characterized in that: creating the initial interference fit comprises applying a first force to a head of the fastener using a first robotic device, while also applying a second force to an end of the fastener using a second robotic device, wherein the second force is less than the first force, wherein creating the final interference fit comprises: commanding the first robotic device to apply a new first force to the head of the fastener; and commanding the second robotic device to apply a new second force that is greater than the new first force to an end of the fastener, wherein at least one of the new first force or the new second force is different from the first force or the second force, respectively. commanding the first robotic device to apply a new first force to the head of the fastener; and commanding the second robotic device to apply a new second force that is greater than the new first force to an end of the fastener, wherein at least one of the new first force or the new second force is different from the first force or the second force, respectively.
Oxygen apparatus for emitting an oxygen-enriched breathing gas with (a) a breathing gas source that is configured to produce the oxygen-enriched breathing gas and (b) a breathing air tube, which is configured to guide the breathing gas from the breathing gas source to a point of consumption, characterised by the fact that (c) the breathing air tube comprises a detector wire that is designed as a fuse wire and composed of a detector wire material, which is selected such that the detector wire melts at least locally when the breathing air tube burns, thereby locally destroying the detector wire and causing an increase in electrical resistance by at least one order of magnitude, and (d) the oxygen apparatus is designed such that the breathing gas source only emits breathing gas into the breathing air tube when the detector wire is intact and configured to interrupt the emission of the breathing gas into the breathing air tube if the detector wire is locally destroyed. (a) a breathing gas source that is configured to produce the oxygen-enriched breathing gas and (b) a breathing air tube, which is configured to guide the breathing gas from the breathing gas source to a point of consumption, (c) the breathing air tube comprises a detector wire that is designed as a fuse wire and composed of a detector wire material, which is selected such that the detector wire melts at least locally when the breathing air tube burns, thereby locally destroying the detector wire and causing an increase in electrical resistance by at least one order of magnitude, and (d) the oxygen apparatus is designed such that the breathing gas source only emits breathing gas into the breathing air tube when the detector wire is intact and configured to interrupt the emission of the breathing gas into the breathing air tube if the detector wire is locally destroyed.
A layered structure, comprising: a substrate composed of germanium including a first porous multilayer having a first porosity; an active quantum well capping layer epitaxially grown over the first porous multilayer; a second porous multilayer having the first porosity over the active quantum well capping layer, wherein edges of the second porous multilayer align with edges of the first porous multilayer. a substrate composed of germanium including a first porous multilayer having a first porosity; an active quantum well capping layer epitaxially grown over the first porous multilayer; a second porous multilayer having the first porosity over the active quantum well capping layer, wherein edges of the second porous multilayer align with edges of the first porous multilayer.
A method for measuring a quality of video, comprising: - generating a frame loss pattern of a received video by recording, in sequence, a status of each frame for each successive frame in a group of frames, the status indicating whether each frame in the group is lost or successfully transmitted; and - evaluating the quality of the video as a function of the generated frame loss pattern, wherein said evaluation comprises: *grouping, from the first lost frame, one or more consecutive lost frames in the received video into a group frame loss, a current group frame loss being separated from the previous group frame loss by a number of successfully transmitted frames; *dividing, from the first group frame loss, the frame loss pattern into a plurality of sections, each section having one or more consecutive group frame losses, each group frame loss in a section having the same number of successfully transmitted frames between said group frame loss and its previous group frame loss, and the same number of lost frames; *calculating a value of the quality degradation generated by each section of group frame loss; and *evaluating the quality of the video by combining the values of all sections. - generating a frame loss pattern of a received video by recording, in sequence, a status of each frame for each successive frame in a group of frames, the status indicating whether each frame in the group is lost or successfully transmitted; and - evaluating the quality of the video as a function of the generated frame loss pattern, wherein said evaluation comprises: *grouping, from the first lost frame, one or more consecutive lost frames in the received video into a group frame loss, a current group frame loss being separated from the previous group frame loss by a number of successfully transmitted frames; *dividing, from the first group frame loss, the frame loss pattern into a plurality of sections, each section having one or more consecutive group frame losses, each group frame loss in a section having the same number of successfully transmitted frames between said group frame loss and its previous group frame loss, and the same number of lost frames; *calculating a value of the quality degradation generated by each section of group frame loss; and *evaluating the quality of the video by combining the values of all sections. *grouping, from the first lost frame, one or more consecutive lost frames in the received video into a group frame loss, a current group frame loss being separated from the previous group frame loss by a number of successfully transmitted frames; *dividing, from the first group frame loss, the frame loss pattern into a plurality of sections, each section having one or more consecutive group frame losses, each group frame loss in a section having the same number of successfully transmitted frames between said group frame loss and its previous group frame loss, and the same number of lost frames; *calculating a value of the quality degradation generated by each section of group frame loss; and *evaluating the quality of the video by combining the values of all sections.
Rotary-tool sleeve extractor for a unit converting a flat support, comprising a base intended to be fixed to the conversion unit and an extraction head, able to move with respect to the base between a retracted position and a deployed position, and comprising a gripper able to cooperate with a sleeve of a rotary tool (10, 11).
A texturised seafood analogue product substantially free of egg white comprising from 0.5 to 10 wt. % of pea starch and from 0.5 to 10 wt. % of potato starch, based on the total weight of the product, wherein the ratio pea starch/potato starch is comprised between 2/1 to 1/6 and wherein the egg white is present in less than 1 wt.% based on the total weight of the product.
A sliver can for accommodating a strand-shaped fiber material, comprising a peripheral, at least partially transparent side wall, via which an accommodating space for the fiber material is delimited, comprising a can base, which is preferably vertically movable within the accommodating space, and comprising at least one display element for displaying the quantity and/or at least one property of the fiber material located in the sliver can, wherein the display element is arranged in such a way that it is visible through the side wall from outside the accommodating space characterized in that the display element is designed as or comprises a illuminant, in particular a light-emitting diode, wherein the display element is arranged on the can base and/or on the side wall and/or on a bottom of the sliver can, which is arranged underneath the can base and is rigidly connected to the side wall.
A substrate for a display device, comprising: a base substrate; a hard coat film disposed over the base substrate, the hard coat film being formed of AlON, a refractive index of which ranges from 1.8 to 2.3; and a multilayer film disposed between the base substrate and the hard coat film, wherein the multilayer film comprises: a first coating film disposed on the base substrate, the first coating film having the first refractive index; a second coating film disposed on the first coating film, the second coating film having the second refractive index; a third coating film disposed on the second coating film, the third coating film having the first refractive index; and a fourth coating film disposed on the third coating film, the fourth coating film having the second refractive index, wherein a thickness of the first coating film is smallest and a thickness of the hard coat film is greatest among the first coating film, the third coating film and the hard coat film, wherein a thickness of the hard coat film is at least 10 times a thickness of the multilayer film. a base substrate; a hard coat film disposed over the base substrate, the hard coat film being formed of AlON, a refractive index of which ranges from 1.8 to 2.3; and a multilayer film disposed between the base substrate and the hard coat film, wherein the multilayer film comprises: a first coating film disposed on the base substrate, the first coating film having the first refractive index; a second coating film disposed on the first coating film, the second coating film having the second refractive index; a third coating film disposed on the second coating film, the third coating film having the first refractive index; and a fourth coating film disposed on the third coating film, the fourth coating film having the second refractive index, a first coating film disposed on the base substrate, the first coating film having the first refractive index; a second coating film disposed on the first coating film, the second coating film having the second refractive index; a third coating film disposed on the second coating film, the third coating film having the first refractive index; and a fourth coating film disposed on the third coating film, the fourth coating film having the second refractive index, wherein a thickness of the first coating film is smallest and a thickness of the hard coat film is greatest among the first coating film, the third coating film and the hard coat film, wherein a thickness of the hard coat film is at least 10 times a thickness of the multilayer film.
A compound consisting of Formula I: Z 1 -X 1 -X 2 -E-G-X 3 -N-V-X 4 -G-Z 2; wherein X 1 is Y, S, or T; X 2 is K or R; X 3 is Y, S, or T; X 4 is Y, S, or T; Z 1 is H 2 N; Z 2 is -C OH; wherein "-" is a covalent linkage, and wherein the compound is an inhibitor of AMPA receptor endocytosis; and wherein any one or more of X 1, X 3, or X 4 is a Y. X 1 is Y, S, or T; X 2 is K or R; X 3 is Y, S, or T; X 4 is Y, S, or T; Z 1 is H 2 N; Z 2 is -C OH; wherein "-" is a covalent linkage, and wherein the compound is an inhibitor of AMPA receptor endocytosis; and wherein any one or more of X 1, X 3, or X 4 is a Y.
An article transport facility, comprising: an article storage rack in which a plurality of storage sections are arranged in a plurality of rows in a vertical direction and a plurality of columns in a rack width direction; and a stacker crane that is configured to travel in front of the article storage rack along the rack width direction, wherein the stacker crane is provided with: a travelling carriage that is configured to be able to travel along the rack width direction; a first mast that is provided so as to stand on the travelling carriage; a second mast that is provided so as to stand on the same travelling carriage on which the first mast is provided; a first elevator body that is configured to be guided along the first mast; a second elevator body that is configured to be guided along the second mast so as to be able to move up/down independently of the first elevator body, and that is aligned with the first elevator body in the rack width direction in plan view; a first transferring device that is supported by the first elevator body and that is configured to transfer an article between the plurality of storage sections and the first transferring device; and a second transferring device that is supported by the second elevator body and that is configured to transfer an article between the plurality of storage sections and the second transferring device; characterized in that the article transport facility further comprises a first sliding device that is supported by the first elevator body, wherein the first sliding device is configured to move the first transferring device along the rack width direction relative to the first elevator body. an article storage rack in which a plurality of storage sections are arranged in a plurality of rows in a vertical direction and a plurality of columns in a rack width direction; and a stacker crane that is configured to travel in front of the article storage rack along the rack width direction, a travelling carriage that is configured to be able to travel along the rack width direction; a first mast that is provided so as to stand on the travelling carriage; a second mast that is provided so as to stand on the same travelling carriage on which the first mast is provided; a first elevator body that is configured to be guided along the first mast; a second elevator body that is configured to be guided along the second mast so as to be able to move up/down independently of the first elevator body, and that is aligned with the first elevator body in the rack width direction in plan view; a first transferring device that is supported by the first elevator body and that is configured to transfer an article between the plurality of storage sections and the first transferring device; and a second transferring device that is supported by the second elevator body and that is configured to transfer an article between the plurality of storage sections and the second transferring device;
A device for injecting or infusing fluids into trees comprising a tool for insertion into trees comprising a first proximal end, a second distal end and a body axially extending between said first and second end (3, 4), said second distal end being of cuneiform type provided with a linear edge to favour the insertion of said tool into a trunk of tree, said edge being linearly extended in almost orthogonal direction to a longitudinal axis of said body, said body being provided with a cross section having biconvex lenticular shape; a passage for a fluid to be injected or infused into said tree being obtained in said body, said passage extending from said first proximal end, and at least one opening (12a, b) obtained along said body; the device also comprising a striker comprising a housing for said first proximal end and a free head susceptible to receiving a thrust or traction force for favouring the insertion of said tool into a trunk of a tree or extracting said tool from said tree, respectively, said housing and head being almost aligned with said longitudinal axis, said device comprising an impermeable seal, fitted onto the tool and arranged flush with the housing of the striker, characterized in that said impermeable seal is placed between a bark of the tree and said first end when the body of the tool is completely inserted into the tree.
Apparatus (11, 11', 11") for the manufacture of injection-moulded plastic parts, comprising: a back plate (12, 12', 12"), a core, a core frame (17, 17', 17") fixed to said back plate, an ejection plate (13, 13', 13") and a set of ejection pistons (14, 14', 14") for moving said ejection plate with respect to said back plate, characterized in that a) the core frame (17, 17', 17") is shaped in such a way as to comprise a recess for the ejection plate (13, 13', 13"), b) said ejection plate (13, 13', 13") is arranged between said core and said core frame (17, 17', 17"), c) said set of ejection pistons (14, 14', 14") consists either of a single oil-hydraulic central piston (14") or of a first and a second oil-hydraulic pistons (14, 14') situated within the mould profile. a back plate (12, 12', 12"), a core, a core frame (17, 17', 17") fixed to said back plate, an ejection plate (13, 13', 13") and a set of ejection pistons (14, 14', 14") for moving said ejection plate with respect to said back plate, characterized in that a) the core frame (17, 17', 17") is shaped in such a way as to comprise a recess for the ejection plate (13, 13', 13"), b) said ejection plate (13, 13', 13") is arranged between said core and said core frame (17, 17', 17"), c) said set of ejection pistons (14, 14', 14") consists either of a single oil-hydraulic central piston (14") or of a first and a second oil-hydraulic pistons (14, 14') situated within the mould profile. a) the core frame (17, 17', 17") is shaped in such a way as to comprise a recess for the ejection plate (13, 13', 13"), b) said ejection plate (13, 13', 13") is arranged between said core and said core frame (17, 17', 17"), c) said set of ejection pistons (14, 14', 14") consists either of a single oil-hydraulic central piston (14") or of a first and a second oil-hydraulic pistons (14, 14') situated within the mould profile.