mhurhangee/ep-ind-claims huggingface dataset:
A medium feeding apparatus comprising: an apparatus main body, and a medium cassette removably inserted into the apparatus main body, the medium cassette being configured to store a medium, wherein the apparatus main body includes a contacting section provided so that the contacting section faces the medium cassette when the medium cassette reaches a first predetermined position in the apparatus main body, wherein the medium cassette includes: a movable medium guide (107, 108, 207, 208) for determining a position of the medium, the medium guide (107, 108, 207, 208) including a rack portion (114a, 114b); a rotatable pinion gear (113, 130) that engages the rack portion (114a, 114b) of the medium guide (107, 108, 207, 208), the pinion gear (113, 130) being movable in a direction of a rotation axis of the pinion gear (113, 130), and a locking unit (112, 131, 147, 212, 214) including a first engaging portion (112, 131, 147) that engages the pinion gear (113, 130) to thereby lock the movement of the medium guide (107, 108, 207, 208) when the medium cassette is inserted into the apparatus main body and when the medium cassette reaches a second predetermined position in the apparatus main body, wherein the locking unit (112, 131, 147, 212, 214) is so configured that, when the inserted medium cassette contacts the contacting section, the pinion gear (113, 130) moves toward the first engaging portion (112, 131, 147) in the direction of the rotation axis and engages the first engaging portion (112, 131, 147) to thereby lock the movement of the medium guide (107, 108, 207, 208). an apparatus main body, and a medium cassette removably inserted into the apparatus main body, the medium cassette being configured to store a medium, wherein the apparatus main body includes a contacting section provided so that the contacting section faces the medium cassette when the medium cassette reaches a first predetermined position in the apparatus main body, a movable medium guide (107, 108, 207, 208) for determining a position of the medium, the medium guide (107, 108, 207, 208) including a rack portion (114a, 114b); a rotatable pinion gear (113, 130) that engages the rack portion (114a, 114b) of the medium guide (107, 108, 207, 208), the pinion gear (113, 130) being movable in a direction of a rotation axis of the pinion gear (113, 130), and a locking unit (112, 131, 147, 212, 214) including a first engaging portion (112, 131, 147) that engages the pinion gear (113, 130) to thereby lock the movement of the medium guide (107, 108, 207, 208) when the medium cassette is inserted into the apparatus main body and when the medium cassette reaches a second predetermined position in the apparatus main body, wherein the locking unit (112, 131, 147, 212, 214) is so configured that, when the inserted medium cassette contacts the contacting section, the pinion gear (113, 130) moves toward the first engaging portion (112, 131, 147) in the direction of the rotation axis and engages the first engaging portion (112, 131, 147) to thereby lock the movement of the medium guide (107, 108, 207, 208).
A colloidal nanoparticle dispersion, wherein said nanoparticles are selected from the group consisting of silica, alumina or silica aluminate nanoparticles and wherein said nanoparticles are surface-functionalized with a combination of gamma-Mercaptopropyl trimethoxysilane and a hydrophobic organosilane or combination of hydrophobic organosilanes, wherein the hydrophobic organosilane is selected from the group consisting of methacryloxytrimethoxysilane, hexamethyldisiloxane, hexamethyldisilazane, phenyltrimethoxysilane, trimethylchlorosilane, butyldimethylchlorosilane, octyldimethylchlorosilane, vinyltrimethoxysilane, vinyltriethoxysilane, p-tolyltrimethoxysilane, n-butyltrimethoxysilane, propyltrimethoxysilane, ethyltrimethoxysilane, methyltrimethoxysilane, trimethylmethoxysilane, 11-(chlorodimethylsilyl)methyl tricosane, 13-(chlorodimethylsilylmethyl) heptacosane, cyclohexylmethyl dimethoxysilane, and octadecyltrimethoxysilane.
A flipper apparatus comprising on XYZ orthogonal coordinates: a Y-axis flipper unit including a pair of Y-axis holders (130a, 130b) configured to hold an object therebetween, the Y-axis flipper unit configured to narrow or widen a space between the pair of Y-axis holders (130a, 130b) in a Y-axis direction and rotate the object about a Y-axis; an X-axis flipper unit including a pair of X-axis holders (330a, 330b) configured to hold the object therebetween, the X-axis flipper unit configured to narrow or widen a space between the pair of X-axis holders (330a, 330b) in an X-axis direction and rotate the object about an X-axis; and a Z-axis elevation unit supporting the Y-axis flipper unit and the X-axis flipper unit and configured to move the Y-axis flipper unit and the X-axis flipper unit up and down in a Z-axis direction. a Y-axis flipper unit including a pair of Y-axis holders (130a, 130b) configured to hold an object therebetween, the Y-axis flipper unit configured to narrow or widen a space between the pair of Y-axis holders (130a, 130b) in a Y-axis direction and rotate the object about a Y-axis; an X-axis flipper unit including a pair of X-axis holders (330a, 330b) configured to hold the object therebetween, the X-axis flipper unit configured to narrow or widen a space between the pair of X-axis holders (330a, 330b) in an X-axis direction and rotate the object about an X-axis; and a Z-axis elevation unit supporting the Y-axis flipper unit and the X-axis flipper unit and configured to move the Y-axis flipper unit and the X-axis flipper unit up and down in a Z-axis direction.
An interfering RNA of: asialoglycoprotein receptor 1 (ASGR-1), and/or asialoglycoprotein receptor 2 (ASGR-2) for use for treating or preventing a cardiovascular disease in a patient.
A method of manufacturing a wind turbine rotor blade comprising: providing a core; applying at least one reinforcing skin to the core, each reinforcing skin comprising a mat of reinforcing fibers to form a blade subassembly; applying a micro-porous membrane over the at least one reinforcing skin; applying a vacuum film over the micro-porous membrane; introducing a polymeric resin to the core between the microporous member and the at least one reinforcing skin; infusing the resin through the core and through the at least one reinforcing skin by applying a vacuum to the blade subassembly; and curing the resin to form the rotor blade. providing a core; applying at least one reinforcing skin to the core, each reinforcing skin comprising a mat of reinforcing fibers to form a blade subassembly; applying a micro-porous membrane over the at least one reinforcing skin; applying a vacuum film over the micro-porous membrane; introducing a polymeric resin to the core between the microporous member and the at least one reinforcing skin; infusing the resin through the core and through the at least one reinforcing skin by applying a vacuum to the blade subassembly; and curing the resin to form the rotor blade.
A crate-like container out of plastic for transporting and storing objects, in particular crates out of injection-moulded plastic with a bottom and side walls arranged thereto with at least one inmould label at at least one side wall and/or corner section of the container where the inmould label is configured by a foil, preferably a single-sheet foil, which is imprinted and/or provided with a décor or decorating elements of that kind, characterized in that an outer surface of the inmould label being exposed after back-injection with plastic is completely circumferentially covered and encapsulated with a plastic layer for forming the container, with the foil being completely received in a recess of the container and the plastic cover layer being configured in a raised way on the foil compared with the container outer surface and the plastic cover layer overlaps the foil over the foil's edge to the container outer surface so that the foil is completely encapsulated by the plastic cover layer at its exposed area opposite the container or that the foil is arranged in a repositioned way in a recess of the container towards the neighbouring outer surface of the container and the applied outer plastic cover layer is configured in an even way with the container outer surface surrounding the recess, with the cover layer completely covering the exposed surface of the foil.
A method of sealing a surface and structure of a refractory article with a ceramic, comprising the steps of: (a) heating a refractory article to a temperature between 100°C and 150°C; (b) applying a wetting agent to a surface of said article; (c) applying a ceramic slip having a viscosity of 0.1 to 3.5 Ns/m 2 (100 to 3,500 centipoise) along the surface of said article, said ceramic slip comprised of water, a wetting agent/dispersant and 20% to 80% by weight of ceramic powder, at least 90% of said ceramic powder having a particle size of less than 1 micron; (d) applying a vacuum to said article; (e) removing excess slip from the surface of said article; and (f) heating said article to remove moisture therefrom. (a) heating a refractory article to a temperature between 100°C and 150°C; (b) applying a wetting agent to a surface of said article; (c) applying a ceramic slip having a viscosity of 0.1 to 3.5 Ns/m 2 (100 to 3,500 centipoise) along the surface of said article, said ceramic slip comprised of water, a wetting agent/dispersant and 20% to 80% by weight of ceramic powder, at least 90% of said ceramic powder having a particle size of less than 1 micron; (d) applying a vacuum to said article; (e) removing excess slip from the surface of said article; and (f) heating said article to remove moisture therefrom.
A method comprising: receiving (510, 520) a plurality of unicast control flows requesting content from a server (410, 720, 730) at a network element from a plurality of clients (415, 740); forwarding one of the unicast control flows, received first from one of the plurality of clients, with unchanged destination and source addresses to the server (410, 720, 730); performing deep packet inspection all the way to an application layer of a network protocol stack on subsequent unicast control flows of the plurality of unicast control flows in real-time at line rates to identify unicast control flows comprising redundant requests by interpreting application data contained therein, the redundant requests originating from different client subscribers requesting identical content as the unicast control flow received first; receiving a unicast content flow from the server (410, 720, 730) at the network element in response to forwarding the one of the unicast control flows with the unchanged destination and source addresses; and replicating the received unicast content flow into new unicast content flows at the network element for each of the identified unicast control flows for transmission to corresponding ones of the plurality of clients (415, 740). receiving (510, 520) a plurality of unicast control flows requesting content from a server (410, 720, 730) at a network element from a plurality of clients (415, 740); forwarding one of the unicast control flows, received first from one of the plurality of clients, with unchanged destination and source addresses to the server (410, 720, 730); performing deep packet inspection all the way to an application layer of a network protocol stack on subsequent unicast control flows of the plurality of unicast control flows in real-time at line rates to identify unicast control flows comprising redundant requests by interpreting application data contained therein, the redundant requests originating from different client subscribers requesting identical content as the unicast control flow received first; receiving a unicast content flow from the server (410, 720, 730) at the network element in response to forwarding the one of the unicast control flows with the unchanged destination and source addresses; and replicating the received unicast content flow into new unicast content flows at the network element for each of the identified unicast control flows for transmission to corresponding ones of the plurality of clients (415, 740).
A train detection security system comprising one or more sensor units (2a, 2b,....) arranged for being fixed to at least one rail (10a, 10b) of a rail track, - where each of said sensor units (2a, 2b,....), is arranged for detecting a first signal induced by a moving train and propagated through said rail (10a, 10b), characterised in that; - each said sensor unit (2a, 2b,....) is divided in at least a first chamber and a second chamber, where said first and second chambers (21, 22) are separated by an electromagnetic shield, said first chamber comprising; - a piezoelectric element fixed to an outer wall of said first chamber, - an amplifier arranged for amplifying a first element output signal (s1eo) representing said first signal detected by said piezoelectric element where said first sensor output signal (s1') is said amplified output signal from said amplifier, said electromagnetic shield comprising one or more feed-through capacitor arranged for transferring said first sensor output signal (s1') from said first chamber to said second chamber. - where each of said sensor units (2a, 2b,....), is arranged for detecting a first signal induced by a moving train and propagated through said rail (10a, 10b), characterised in that; - each said sensor unit (2a, 2b,....) is divided in at least a first chamber and a second chamber, where said first and second chambers (21, 22) are separated by an electromagnetic shield, said first chamber comprising; - a piezoelectric element fixed to an outer wall of said first chamber, - an amplifier arranged for amplifying a first element output signal (s1eo) representing said first signal detected by said piezoelectric element where said first sensor output signal (s1') is said amplified output signal from said amplifier, said electromagnetic shield comprising one or more feed-through capacitor arranged for transferring said first sensor output signal (s1') from said first chamber to said second chamber.
A method for secure exchange of digital information for a transaction between one or more senders and one or more receiver devices, wherein a) the sender's message is sent through a third party, called a mediator, wherein the message as a result of encryption is not readable for the mediator, and b) wherein the sender authenticates against the mediator and the message of the sender thus is safe and c) wherein the mediator authenticates against the receiver device and thus the reception of undesirable messages can be prevented, and wherein the operating system of the receiver device is hardened and does not allow running other/foreign codes and d) the receiving device displays the message decrypted and c) after approval by the user the receiver device provides the responses with a confirmation and sends it directly or through an mediator to the sender, wherein the sender verifies the origin and integrity of the response message using a test function and the transaction is actually confirmed. a) the sender's message is sent through a third party, called a mediator, wherein the message as a result of encryption is not readable for the mediator, and b) wherein the sender authenticates against the mediator and the message of the sender thus is safe and c) wherein the mediator authenticates against the receiver device and thus the reception of undesirable messages can be prevented, and wherein the operating system of the receiver device is hardened and does not allow running other/foreign codes and d) the receiving device displays the message decrypted and c) after approval by the user the receiver device provides the responses with a confirmation and sends it directly or through an mediator to the sender, wherein the sender verifies the origin and integrity of the response message using a test function and the transaction is actually confirmed.
A method of group communication within a mobile telecommunications network having a plurality of mobile terminals (110, 120, 130), each mobile terminal (110, 125, 135) comprising a User Equipment, UE, the method comprising: receiving at a first UE of the plurality of mobile terminals (110, 120, 130), an identification of a multicast group from which a second UE (125, 135) of the plurality of mobile terminals (110, 120, 130) is to receive data; identifying at the first UE if the first UE is a member of the multicast group; if the first UE is not a member of the multicast group, sending a request from the first UE to join the multicast group; subsequently receiving data packets associated with the multicast group at the first UE from an application server; and broadcasting the received data packets from the first UE for reception by the second UE (125, 135). receiving at a first UE of the plurality of mobile terminals (110, 120, 130), an identification of a multicast group from which a second UE (125, 135) of the plurality of mobile terminals (110, 120, 130) is to receive data; identifying at the first UE if the first UE is a member of the multicast group; if the first UE is not a member of the multicast group, sending a request from the first UE to join the multicast group; subsequently receiving data packets associated with the multicast group at the first UE from an application server; and broadcasting the received data packets from the first UE for reception by the second UE (125, 135).
An automatic beverage machine (10, 50), comprising a downwardly directed outlet (38, 51) for dispensing a beverage prepared in the automatic beverage machine (10, 50), and/or for dispensing a component of a beverage, stored in or at the automatic beverage machine (10, 50), into a container (26, 56) situated therebeneath, wherein a trough is situated in the area of the outlet (38, 51), the trough being movable back and forth between a first position, in which the prepared beverage or the stored component may pass unhindered from the outlet (38, 51) into a container (26, 56) situated therebeneath, and a second position, in which the trough accommodates at least a lower part of the outlet (38, 51), characterized in that the trough is arranged so that it is pivotable about a horizontal pivot axis such that the movement of the trough between the first and second positions may be carried out as a swivel movement about the pivot axis.
A method of starting an engine system (10;100) having a first power source driving a first power input (20;120), a power output (22;122), and a transmission (26;126) engaged with and between the first power input (20;120) and the power output (22;122), the transmission (26;126) including an epicyclic geartrain, the method comprising: allowing free rotation of all gears (34;36;38) of the epicyclic gear train to limit or prevent power transfer from the first power input (20;120) to the power output (22; 122), including driving a secondary power output of the engine (10;100) with the first power input (20;120); rotating the power output (22;122) using a start assist motor (24;124); and braking one of the gears of the epicyclic gear train to transfer power from the first power input (20;120) to the power output (22;122), wherein braking one of the gears of the epicyclic gear train includes rotationally locking the start assist motor (24;124) and the secondary power output. allowing free rotation of all gears (34;36;38) of the epicyclic gear train to limit or prevent power transfer from the first power input (20;120) to the power output (22; 122), including driving a secondary power output of the engine (10;100) with the first power input (20;120); rotating the power output (22;122) using a start assist motor (24;124); and braking one of the gears of the epicyclic gear train to transfer power from the first power input (20;120) to the power output (22;122), wherein braking one of the gears of the epicyclic gear train includes rotationally locking the start assist motor (24;124) and the secondary power output.
A tape being open-ended with two ending edges (6,7) and with a longitudinal length L in a longitudinal direction, the tape being suitable for making an endless conveyor belt, power transmission belt or machine tape, the tape comprising: a) two parallel lateral edges (1a, 1b) either running in said longitudinal direction and being spaced apart from each other by a transversal width W; b) a first textile layer; c) a first coating layer; and optionally d) one more through holes perforating the belt through its overall thickness T, each of these through holes being formed by a hole edge; characterized in that i) the first textile layer comprises fibres or filaments of a thermoplastic and the first coating layer comprises a thermoplastic or thermoplastic elastomer; and ii) the lateral edges (1a, 1b) are ultrasound-cut or laser-cut. a) two parallel lateral edges (1a, 1b) either running in said longitudinal direction and being spaced apart from each other by a transversal width W; b) a first textile layer; c) a first coating layer; and optionally d) one more through holes perforating the belt through its overall thickness T, each of these through holes being formed by a hole edge; i) the first textile layer comprises fibres or filaments of a thermoplastic and the first coating layer comprises a thermoplastic or thermoplastic elastomer; and ii) the lateral edges (1a, 1b) are ultrasound-cut or laser-cut.
An electric module for an aircraft turbomachine, this module comprising: - a stator of an electric machine, said stator having an annular shape about an axis and being intended to surround a rotor of the electric machine, - an annular support element for said stator, said element comprising an external annular surface configured to be swept by a gas flow from the turbomachine, in order to cool the stator by conduction, characterised in that said annular element comprises: - an annular support which surrounds and covers at least one portion of said stator and which is attached to the external periphery of the stator, this support comprising at least one flange for attaching to a member of the turbomachine, this flange being located at the downstream end of the stator, and - an annular cover which surrounds and covers at least one portion of said support and which comprises said surface swept by the gas flow. - a stator of an electric machine, said stator having an annular shape about an axis and being intended to surround a rotor of the electric machine, - an annular support element for said stator, said element comprising an external annular surface configured to be swept by a gas flow from the turbomachine, in order to cool the stator by conduction, characterised in that said annular element comprises: - an annular support which surrounds and covers at least one portion of said stator and which is attached to the external periphery of the stator, this support comprising at least one flange for attaching to a member of the turbomachine, this flange being located at the downstream end of the stator, and - an annular cover which surrounds and covers at least one portion of said support and which comprises said surface swept by the gas flow.