mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising a mixture of silyl hydride, a silanol and/or silyl ether, a Lewis acid catalyst and an amine having the following formula: R 1 R 2 R 3 N; where the nitrogen is not a member of an N=C-N linkage and where each of R 1, R 2, and R 3 is independently selected from a group consisting of hydrogen, alkyl, substituted alkyl, and conjugated moieties; and wherein at least one of R 1, R 2 and R 3 is a conjugated moiety connected to the nitrogen by a conjugated carbon.
Actuator with a rigid-back chain, a drive motor and a worm which is drivable by the drive motor, the rigid-back chain having alternating inner and outer chain members (14, 15) and chain studs (16.1, 16.2) which connect these together and at least some of the chain studs (16.1, 16.2) having laterally protruding engagement regions (18.1, 18.2) which are engaged with the worm for driving the rigid-back chain, the worm being configured as hollow worm and the engagement regions (18.1, 18.2) of the chain studs (16.1, 16.2) being engaged with an inner spiral (12.1, 12.2) of the hollow worm, characterised in that the drive motor is disposed in the extension of the hollow worm.
A heat shield panel for a gas turbine engine combustor, comprising: a hot side defining a first surface having an outer perimeter; a cold side defining a second surface spaced from the first surface; a rail member disposed on the cold side proximate a first portion of the outer perimeter, the rail member having an outer wall and an inner wall; and an orifice extending through the rail member, from the inner wall to the outer wall, characterised in that the heat shield panel comprises an undercut portion within the second surface proximate the inner wall of the rail member and the first portion, so as to allow access for the placement of a drill head to drill said orifice extending through the rail member. a hot side defining a first surface having an outer perimeter; a cold side defining a second surface spaced from the first surface; a rail member disposed on the cold side proximate a first portion of the outer perimeter, the rail member having an outer wall and an inner wall; and an orifice extending through the rail member, from the inner wall to the outer wall, characterised in that the heat shield panel comprises an undercut portion within the second surface proximate the inner wall of the rail member and the first portion, so as to allow access for the placement of a drill head to drill said orifice extending through the rail member.
A multi-lumen sensing system comprising: a medical tubing including a plurality of lumens (22A, 22B) and at least one secondary passageway extending in an axial direction of the medical tubing, wherein the plurality of lumens (22A, 22B) extend parallel to one another and parallel to the at least one secondary passageway, and wherein the the at least secondary passageway is between the plurality of lumens (22A, 22B); and a sensing receptacle defining a passage in which a lengthwise portion of the medical tubing is received, characterised in that the at least one secondary passageway contains a plurality of transmitting elements (40T, 42T) each transmitting a respective ultrasonic signal across a corresponding one of the plurality of lumens (22A, 22B), and the sensing receptacle includes a plurality of receiving elements (40R, 42R) respectively corresponding to the plurality of transmitting elements (40T, 42T), each of the plurality of receiving elements (40R, 42R) being arranged to receive the respective ultrasonic signal from a corresponding one of the plurality of transmitting elements (40T, 42T) after the ultrasonic signal has passed through the corresponding one of the plurality of lumens (22A, 22B). a medical tubing including a plurality of lumens (22A, 22B) and at least one secondary passageway extending in an axial direction of the medical tubing, wherein the plurality of lumens (22A, 22B) extend parallel to one another and parallel to the at least one secondary passageway, and wherein the the at least secondary passageway is between the plurality of lumens (22A, 22B); and a sensing receptacle defining a passage in which a lengthwise portion of the medical tubing is received, characterised in that the at least one secondary passageway contains a plurality of transmitting elements (40T, 42T) each transmitting a respective ultrasonic signal across a corresponding one of the plurality of lumens (22A, 22B), and the sensing receptacle includes a plurality of receiving elements (40R, 42R) respectively corresponding to the plurality of transmitting elements (40T, 42T), each of the plurality of receiving elements (40R, 42R) being arranged to receive the respective ultrasonic signal from a corresponding one of the plurality of transmitting elements (40T, 42T) after the ultrasonic signal has passed through the corresponding one of the plurality of lumens (22A, 22B).
A self-healing flexible electrophoretic display stack (110, 400) comprising: - a light guide (130, 450) configured to direct light from one or more light emitting diodes (LEDs); - a plastic cover lens (144, 410) comprising a tri-layered substrate comprising a first polymethyl methacrylate (PMMA) layer, a second PMMA layer, and a polycarbonate layer disposed between the first PMMA layer and the second PMMA layer, the plastic cover lens further comprising a self-healing material layer comprising anti-glare surface features and disposed on the tri-layered substrate; and - a flexible electrophoretic display (134, 200, 230, 470), wherein the light guide is disposed between the self-healing plastic cover lens and the flexible EPD, the flexible EPD comprising: o a flexible plastic thin film transistor backplane (208, 484) having a first width; o an electrophoretic layer coupled to the flexible plastic TFT backplane; o an electrode layer coupled to the electrophoretic layer; o an integrated circuit disposed on the flexible plastic TFT backplane; and o a first protective sheet (202, 236, 472) having a second width that is greater than or equal to the first width. - a light guide (130, 450) configured to direct light from one or more light emitting diodes (LEDs); - a plastic cover lens (144, 410) comprising a tri-layered substrate comprising a first polymethyl methacrylate (PMMA) layer, a second PMMA layer, and a polycarbonate layer disposed between the first PMMA layer and the second PMMA layer, the plastic cover lens further comprising a self-healing material layer comprising anti-glare surface features and disposed on the tri-layered substrate; and - a flexible electrophoretic display (134, 200, 230, 470), wherein the light guide is disposed between the self-healing plastic cover lens and the flexible EPD, the flexible EPD comprising: o a flexible plastic thin film transistor backplane (208, 484) having a first width; o an electrophoretic layer coupled to the flexible plastic TFT backplane; o an electrode layer coupled to the electrophoretic layer; o an integrated circuit disposed on the flexible plastic TFT backplane; and o a first protective sheet (202, 236, 472) having a second width that is greater than or equal to the first width. o a flexible plastic thin film transistor backplane (208, 484) having a first width; o an electrophoretic layer coupled to the flexible plastic TFT backplane; o an electrode layer coupled to the electrophoretic layer; o an integrated circuit disposed on the flexible plastic TFT backplane; and o a first protective sheet (202, 236, 472) having a second width that is greater than or equal to the first width.
A method for controlling a solar-thermal power plant with direct vaporization, wherein the solar-thermal power plant comprises a plurality of parabolic trough collectors and each parabolic trough collector comprises a separate drive, wherein said drives are controlled in accordance with a predetermined astronomical algorithm, and wherein the drives of individual parabolic trough collectors are, in addition, separately controlled in accordance with the respective parabolic trough collector temperature and/or the steam demand and/or the wind conditions and, if required, individual parabolic trough collectors are rotated into non-focused position for regulating the parabolic trough collector temperature or for adaptation to the steam demand, or into a securing position in case of predetermined wind conditions.
A device for atmospheric water harvesting operative in an alternating sequence of an absorption phase and a desorption phase, comprising: a) an air permeable adsorbent substrate being subject to an atmospheric airflow during said absorption phase and being subject to a closed loop circulated airflow during said desorption phase; b) a liquid heated heat radiation element embedded in said adsorbent substrate and a heated liquid heating media being circulated in said heat radiation element during said desorption phase; and c) air shutters capable of blocking an entrance and an exit of said atmospheric airflow, during operation in said desorption phase; characterized by a direction of said atmospheric airflow through said adsorbent substrate being substantially transversal to a direction of said closed loop circulated airflow through said adsorbent substrate. a) an air permeable adsorbent substrate being subject to an atmospheric airflow during said absorption phase and being subject to a closed loop circulated airflow during said desorption phase; b) a liquid heated heat radiation element embedded in said adsorbent substrate and a heated liquid heating media being circulated in said heat radiation element during said desorption phase; and c) air shutters capable of blocking an entrance and an exit of said atmospheric airflow, during operation in said desorption phase;
A composite tube joint, comprising: an end of a composite tube; an inner member disposed within the end, wherein an outer surface of the inner member has a complementary shape to an inner surface of the end; an outer member concentrically surrounding the end of the composite tube; and a first undulated surface configured to mitigate movement of the end relative to at least one of the inner member and the outer member, wherein the composite tube extends along a centerline axis, wherein the first undulated surface is disposed on the outer surface of the inner member, the first undulated surface configured to physically restrict the end from moving relative to the inner member; characterized in that the first undulated surface comprises a first plurality of undulations orientated perpendicular with respect to the centerline axis and the first undulated surface comprises a second plurality of undulations orientated at a non-zero angle with respect to the first plurality of undulations. an end of a composite tube; an inner member disposed within the end, wherein an outer surface of the inner member has a complementary shape to an inner surface of the end; an outer member concentrically surrounding the end of the composite tube; and a first undulated surface configured to mitigate movement of the end relative to at least one of the inner member and the outer member, wherein the composite tube extends along a centerline axis, wherein the first undulated surface is disposed on the outer surface of the inner member, the first undulated surface configured to physically restrict the end from moving relative to the inner member; characterized in that the first undulated surface comprises a first plurality of undulations orientated perpendicular with respect to the centerline axis and the first undulated surface comprises a second plurality of undulations orientated at a non-zero angle with respect to the first plurality of undulations.
A method of forming a wafer (10, 16, 44, 68) of a single crystal of SiC the method comprising: forming a SiC boule having a diameter of at least 75 millimeters; thereafter slicing the boule into at least one wafer (10, 16, 44, 68); lapping the wafer (10, 16, 44, 68) on a double-sided lapper using a down force as appropriate, that is less than that required to bend the wafer (10, 16, 44, 68); processing the wafer (10, 16, 44, 68) such that the surface and subsurface damage levels on each side are equivalent as a result of using the double-sided lapper so that the wafer has a warp of less than 5 μm, a bow of less than 5 μm, and a total thickness variation, TTV, of less than 2.0 μm; and thereafter polishing the wafer (10, 16, 44, 68). forming a SiC boule having a diameter of at least 75 millimeters; thereafter slicing the boule into at least one wafer (10, 16, 44, 68); lapping the wafer (10, 16, 44, 68) on a double-sided lapper using a down force as appropriate, that is less than that required to bend the wafer (10, 16, 44, 68); processing the wafer (10, 16, 44, 68) such that the surface and subsurface damage levels on each side are equivalent as a result of using the double-sided lapper so that the wafer has a warp of less than 5 μm, a bow of less than 5 μm, and a total thickness variation, TTV, of less than 2.0 μm; and thereafter polishing the wafer (10, 16, 44, 68).
A dual dispenser comprising: ▪ two pumps (P1, P2) associated with two fluid reservoirs, each of the two pumps (P1, P2) comprising a pump body (P10, P20) and an actuator rod (P11, P21) that is axially movable over an axial stroke ▪ a dispenser head including a dispenser orifice for dispensing the fluids coming from the actuator rods (P11, P21) of both pumps (P1, P2), the dual dispenser being characterized in that the dispenser head comprises: • a cap that is mounted on the actuator rods (P11, P21) and that forms the dispenser orifice, • a pusher that is mounted on the cap so as to move it axially downwards and upwards, the pusher also being mounted on the cap so as to turn relative thereto, • an adjustment insert that is arranged below the cap and that is secured to the pusher in such a manner as to turn with it, the cap coming into abutment against the adjustment insert, thereby limiting the axial stroke of the actuator rods (P11, P21). ▪ two pumps (P1, P2) associated with two fluid reservoirs, each of the two pumps (P1, P2) comprising a pump body (P10, P20) and an actuator rod (P11, P21) that is axially movable over an axial stroke ▪ a dispenser head including a dispenser orifice for dispensing the fluids coming from the actuator rods (P11, P21) of both pumps (P1, P2), • a cap that is mounted on the actuator rods (P11, P21) and that forms the dispenser orifice, • a pusher that is mounted on the cap so as to move it axially downwards and upwards, the pusher also being mounted on the cap so as to turn relative thereto, • an adjustment insert that is arranged below the cap and that is secured to the pusher in such a manner as to turn with it, the cap coming into abutment against the adjustment insert, thereby limiting the axial stroke of the actuator rods (P11, P21).
A genetically enhanced ethanologenic Cyanobacterium sp. ABICyano1 host cell, deposited in the American Type Culture Collection (ATCC) under ATCC accession number PTA-13311.
A dual-interface reversible plug-in power source and data docking station, comprising a case having an inner cavity and a circuit board arranged in the inner cavity, wherein that the circuit board is provided with a first side and a second side opposite or adjacent to the first side; the first side is provided with a first Type-C male interface configured to be connected to a first interface of a MacbookPro, and a second Type-C male interface which is arranged side by side at an interval from the first Type-C male interface and configured to be connected to a second interface, adjacent to the first interface, of the MacbookPro; the second side is provided with a first Type-C female interface and a second Type-C female interface which are respectively opposite the first Type-C male interface and the second Type-C male interface, and the second side is further provided with an interface group for charging and/or data transmission for an external electronic product; the first Type-C male interface and the second Type-C male interface are exposed outside the case; and the case is provided with a plurality of openings respectively corresponding to the first Type-C female interface, the second Type-C female interface and the interface group on a one-to-one correspondence basis, further wherein the first Type-C female interface is connected to a device with Type-C interfaces and configured to support USB data transmission, and the second Type-C female interface is connected to the device with Type-C interfaces and configured to support a PD charging function.
An antimicrobial micro- or nanoparticle comprising a chlorhexidine salt, wherein the anion in the salt is selected from: phosphates chosen from the homologous series of cyclic metaphosphates which begins with trimetaphosphate, and the homologous series of polyphosphates which begins with pyrophosphate.
A method for performing a solid-phase peptide synthesis comprising the steps of: a) binding an amino acid protected at the N-terminus with a protective group via a C terminus of the amino acid to a solid carrier material; b) cleaving off the protective group; c) performing at least one peptide propagation; and d) terminating the reaction by cleaving off the peptide from the carrier material, wherein steps a) to d) take place in a liquid reaction medium and at least during one of the steps ultrasound with a frequency in the range from more than 100 to 2000 kHz acts at least temporarily on the reaction medium. a) binding an amino acid protected at the N-terminus with a protective group via a C terminus of the amino acid to a solid carrier material; b) cleaving off the protective group; c) performing at least one peptide propagation; and d) terminating the reaction by cleaving off the peptide from the carrier material,
A device for extruding thermoplastic material, having an extruder housing in which an extruder screw driven by a drive device is supported rotatably about the axis thereof, and which comprises an intake opening to which a plastic material feeder is connected, which comprises at least one air inlet opening, wherein said extruder housing comprises at least one vapor outlet opening upstream of the intake opening and an air/vapor path is defined from the intake opening to the vapor outlet opening, wherein a counter-thread is arranged at the extruder screw in the region of the air/vapor path and the counter-thread has the same path direction as the screw worm of the extruder screw, characterized in that said counter-thread is provided at the extruder screw in the region of the air/vapor path with a smaller incline compared with the incline of the screw worm of the extruder screw.
A hybrid ventilation amplifier, mountable on a roof of a building at an outlet of a ventilation chimney, wherein its basic elements are stationary coaxial elements and one moving element and they are in turn: - a stationary reducer, which is narrowed upwards towards an air outlet thereof, narrowing the lumen of the ventilation chimney and, in use, surrounding a mouth of ventilation ducts of the ventilation chimney and constituting an envelope of the mouth of the ventilation chimney, - an expansion dome located centrally over the stationary reducer, the expansion dome being stationary and having a peripheral wall, - a central and funnel-shaped concave shaped in the upper part of the dome, forming a distributor and changing,in use, a direction of air flowing from the ventilation chimney distributing it around the perimeter of the expansion dome characterized in that the hybrid ventilation amplifier is arranged such that the air flowing is redirected, in use, down the expansion dome to a next item which is - a flow exchanger being arranged for surrounding the ventilation chimney, where an outer wall of the flow exchanger constitutes a lower extension of the peripheral wall of the expansion dome and an outer diameter of the expansion dome corresponds to an outer diameter of the flow exchanger and wherein the hybrid ventilation amplifier further comprises - a rotatable housing in the shape of a truncated cylinder protecting the expansion dome which is connected to the flow exchanger located at its bottom, wherein an upper, inclined surface, which is the element of the housing exposed to the sunlight, is lined with photovoltaic panels. - a stationary reducer, which is narrowed upwards towards an air outlet thereof, narrowing the lumen of the ventilation chimney and, in use, surrounding a mouth of ventilation ducts of the ventilation chimney and constituting an envelope of the mouth of the ventilation chimney, - an expansion dome located centrally over the stationary reducer, the expansion dome being stationary and having a peripheral wall, - a central and funnel-shaped concave shaped in the upper part of the dome, forming a distributor and changing,in use, a direction of air flowing from the ventilation chimney distributing it around the perimeter of the expansion dome - a flow exchanger being arranged for surrounding the ventilation chimney, where an outer wall of the flow exchanger constitutes a lower extension of the peripheral wall of the expansion dome and an outer diameter of the expansion dome corresponds to an outer diameter of the flow exchanger and wherein the hybrid ventilation amplifier further comprises - a rotatable housing in the shape of a truncated cylinder protecting the expansion dome which is connected to the flow exchanger located at its bottom, wherein an upper, inclined surface, which is the element of the housing exposed to the sunlight, is lined with photovoltaic panels.
A method for manufacturing a tape from reinforcement filaments impregnated with a thermoplastic polymer matrix, a tape which has a constant width over the whole of its length, wherein the filaments extend along a direction parallel to the length of the tape, from a strand of filaments stemming from a supply coil, the method comprising the following steps, from a coil for supplying strand up to a coil for storing the impregnated and consolidated tape: a) managing the tension between the supply coil and the storage coil, b) guiding the strand so as to obtain a strand moving in translation over a line coinciding with a longitudinal axis, a so called machine axis, extending as far as the proximity of the storage coil, c) optionally transverse spreading of the strand to a predetermined width greater than the rated width of the tape, d) managing the width of the strand, e) optionally pulling the strand, preferably by pinching or with a foulard, f) grounding the strand, g) deposition of the polymer as a powder on the strand, by electrostatic powder coating, with a mass polymer level of about 20% to about 75%, obtaining an impregnated tape, h) melting or softening the polymer, i) calibration in width and in thickness of the tape, j) optionally measuring the width of the tape, k) winding the tape on the storage coil. a) managing the tension between the supply coil and the storage coil, b) guiding the strand so as to obtain a strand moving in translation over a line coinciding with a longitudinal axis, a so called machine axis, extending as far as the proximity of the storage coil, c) optionally transverse spreading of the strand to a predetermined width greater than the rated width of the tape, d) managing the width of the strand, e) optionally pulling the strand, preferably by pinching or with a foulard, f) grounding the strand, g) deposition of the polymer as a powder on the strand, by electrostatic powder coating, with a mass polymer level of about 20% to about 75%, obtaining an impregnated tape, h) melting or softening the polymer, i) calibration in width and in thickness of the tape, j) optionally measuring the width of the tape, k) winding the tape on the storage coil.