mhurhangee/ep-ind-claims huggingface dataset:
A scaffold device comprising: a three-dimensional, open lattice, polymeric matrix element in a form of a network of microfibers or nanofibers, said polymeric element comprising an electro-responsive polymeric material that undergoes a change in its electronic structure upon application of voltage; an electronic element, being integrated with said polymeric element, and comprising a plurality of electrodes, each individually connectable to a measuring device and/or a controller, wherein each electrode comprises a conductive core, and an electrically-isolating layer, wherein said conductive core comprises an additional layer of electrically-conductive material, and wherein said electrically-isolating layer is deposited such that a portion of said electrode remains partially uncoated in a plurality of discrete locations over said electrode and is exposed to an environment surrounding the electrode at each of said locations; and a therapeutically active agent incorporated in and/or on said polymeric element, said therapeutically active agent being associated with said electro-responsive polymeric material via electrostatic interactions and is released to the environment upon application of voltage. a three-dimensional, open lattice, polymeric matrix element in a form of a network of microfibers or nanofibers, said polymeric element comprising an electro-responsive polymeric material that undergoes a change in its electronic structure upon application of voltage; an electronic element, being integrated with said polymeric element, and comprising a plurality of electrodes, each individually connectable to a measuring device and/or a controller, wherein each electrode comprises a conductive core, and an electrically-isolating layer, wherein said conductive core comprises an additional layer of electrically-conductive material, and wherein said electrically-isolating layer is deposited such that a portion of said electrode remains partially uncoated in a plurality of discrete locations over said electrode and is exposed to an environment surrounding the electrode at each of said locations; and a therapeutically active agent incorporated in and/or on said polymeric element, said therapeutically active agent being associated with said electro-responsive polymeric material via electrostatic interactions and is released to the environment upon application of voltage.
An atomizer (26, 126) for an electronic smoking device (10, 110, 210) with a heating wire that is at least section-wise formed as a heating coil comprising a plurality of windings, the heating wire comprising a first section and a second section, wherein the electrical resistance per length unit of the first section differs from the electrical resistance per length unit of the second section, characterized in that the heating coil has a first winding, a last winding and at least one inner winding between the first winding and the last winding, wherein the at least one inner winding comprises the first section, the first winding comprises the second section, and the last winding comprises a third section, wherein the electrical resistance per length unit of the third section corresponds to the electrical resistance per length unit of the second section.
A method of controlling the motion of an aircraft having a longitudinal axis during taxiing on the ground, wherein the aircraft comprises: a steerable landing gear comprising one or more wheels positioned at the fore end of the aircraft, the steerable landing gear operating in a free-to-caster mode during performance of the method, one or more left main landing gears, each comprising one or more wheels and being positioned rearwardly and to the left of the steerable landing gear, and one or more right main landing gears each comprising one or more wheels and being positioned rearwardly and to the right of the steerable landing gear, and the method comprises the following steps, performed whilst the aircraft is turning in a direction away from the longitudinal axis of the aircraft, the rotational position of the steerable landing gear being non-parallel to the longitudinal axis: ascertaining the rotational position (θ) of the steerable landing gear relative to the longitudinal axis of the aircraft, receiving a control instruction that would, if effected, continue turning of the aircraft in the direction away from the longitudinal axis, and if the rotational position (θ) is greater than a threshold angle (θ t), modifying the control instruction so that the angle between the rotational position of the steerable landing gear and the longitudinal axis will be lower than the angle that would otherwise be observed had the control instruction been effected and not so modified; whereby the risk of damage to the steerable landing gear through over-steering is reduced. a steerable landing gear comprising one or more wheels positioned at the fore end of the aircraft, the steerable landing gear operating in a free-to-caster mode during performance of the method, one or more left main landing gears, each comprising one or more wheels and being positioned rearwardly and to the left of the steerable landing gear, and one or more right main landing gears each comprising one or more wheels and being positioned rearwardly and to the right of the steerable landing gear, and ascertaining the rotational position (θ) of the steerable landing gear relative to the longitudinal axis of the aircraft, receiving a control instruction that would, if effected, continue turning of the aircraft in the direction away from the longitudinal axis, and if the rotational position (θ) is greater than a threshold angle (θ t), modifying the control instruction so that the angle between the rotational position of the steerable landing gear and the longitudinal axis will be lower than the angle that would otherwise be observed had the control instruction been effected and not so modified;
An implant comprising: a component for fixed attachment to a bone; an underpass layer (110a, 110b) of a porous material disposed on a first side of the component for fixed attachment; a plurality of struts (108a-108c, 158a-158c) on the underpass layer, each strut having a first surface (122a-122c) contacting the underpass layer and a second surface (123a-123c) opposite the first surface, each strut comprising a non-porous material; and an additional layer of the porous material filling a respective volume adjacent the struts, the additional layer extending from a first side of the underpass layer to a predetermined height equal to or above a height of the second surface of the struts. a component for fixed attachment to a bone; an underpass layer (110a, 110b) of a porous material disposed on a first side of the component for fixed attachment; a plurality of struts (108a-108c, 158a-158c) on the underpass layer, each strut having a first surface (122a-122c) contacting the underpass layer and a second surface (123a-123c) opposite the first surface, each strut comprising a non-porous material; and an additional layer of the porous material filling a respective volume adjacent the struts, the additional layer extending from a first side of the underpass layer to a predetermined height equal to or above a height of the second surface of the struts.
Forming and filling station of a system for manufacturing filled containers from preforms via liquid filling material introduced under pressure into the preform, comprising a stretching bar and a liquid channel, which can be controlled by a filling valve and which at least partially surrounds the stretching bar and ends in at least one outlet opening that can be attached to the mouth of the preform, characterized in that a gas barrier is arranged in the liquid channel between filling valve and outlet opening.
An apparatus for treating a wound comprising: a drape configured to be coupled to skin adjacent the wound and to cover the wound to form a chamber; a wound insert comprising an open-cell foam having hydrophilic properties and configured to be disposed within the chamber; a vacuum source in fluid communication with the chamber and adapted to apply a negative air pressure to the chamber; and a source of fluid containing a first fluid and a second fluid and adapted to be in fluid communication with the chamber, wherein the source of fluid is configured to mix the first fluid and the second fluid to produce a foamed fluid having a gas content between 10 and 99 percent of a volume of the foamed fluid and provide the foamed fluid into the chamber. a drape configured to be coupled to skin adjacent the wound and to cover the wound to form a chamber; a wound insert comprising an open-cell foam having hydrophilic properties and configured to be disposed within the chamber; a vacuum source in fluid communication with the chamber and adapted to apply a negative air pressure to the chamber; and a source of fluid containing a first fluid and a second fluid and adapted to be in fluid communication with the chamber, wherein the source of fluid is configured to mix the first fluid and the second fluid to produce a foamed fluid having a gas content between 10 and 99 percent of a volume of the foamed fluid and provide the foamed fluid into the chamber.
A dental light, comprising: at least one light emitting diode light source configured to produce a light beam along a path; and at least one collimating lens system situated to receive the light beam and comprising an aperture and a diffuser, wherein the diffuser is situated downstream from the aperture and configured to mix light within the light beam by controlled diffusion to increase color uniformity of the light beam, wherein the controlled diffusion imposes a divergence on the received light beam of between about 0.5 degrees and about 5 degrees. at least one light emitting diode light source configured to produce a light beam along a path; and at least one collimating lens system situated to receive the light beam and comprising an aperture and a diffuser, wherein the diffuser is situated downstream from the aperture and configured to mix light within the light beam by controlled diffusion to increase color uniformity of the light beam, wherein the controlled diffusion imposes a divergence on the received light beam of between about 0.5 degrees and about 5 degrees.
A collapsible valve for needleless access devices, the collapsible valve comprising: a first portion comprising a cylindrical wall forming a septum therein, and at least one dimple (212; 213) in a side of the cylindrical wall; and a second portion, the second portion being narrower than the first portion and arranged along an axial dimension of the first portion, the second portion including a cut therein, wherein the cut is displaced from the dimple (212; 213) by approximately 180 degrees, a side of the second portion is stronger than it is directly above the cut, when rotational pressure is exerted on the valve, the dimple (212; 213) begins to collapse, and when the dimple (212; 213) begins to collapse, a pressure point appears on the second portion above the cut. a first portion comprising a cylindrical wall forming a septum therein, and at least one dimple (212; 213) in a side of the cylindrical wall; and a second portion, the second portion being narrower than the first portion and arranged along an axial dimension of the first portion, the second portion including a cut therein, wherein the cut is displaced from the dimple (212; 213) by approximately 180 degrees, a side of the second portion is stronger than it is directly above the cut, when rotational pressure is exerted on the valve, the dimple (212; 213) begins to collapse, and when the dimple (212; 213) begins to collapse, a pressure point appears on the second portion above the cut.
An anchoring structure, particularly for radiators, comprising a supporting device to be anchored to a wall and detachably associated with a radiator in order to keep it in a condition for use, wherein said radiator is hung and is substantially parallel to said wall; an engagement member adapted to detachably clamp at least one tubular portion of said radiator, said tubular portion cooperating with a supporting member, which can be anchored to said wall and can be detachably associated with said engagement member, said supporting device comprising a spacer means adapted to determine and correctly maintain said condition for use; wherein said engagement member comprises two contoured jaws (11a and 11b), which can be mutually detachably pivoted at a head end (13a, 13b), by a pivoting means, and can be mutually joined at a base end (14a, 14b), which lies opposite said head end (13a, 13b), by a screw-type clamping means which acts transversely with respect to the pivoting axis, said base ends (14a, 14b) being substantially flat and being arrangeable so as to face each other; each of said contoured jaws (11a and 11b) being substantially omega-shaped and comprising a contoured portion (12a, 12b), which is interposed between said head end (13a, 13b) and said base end (14a, 14b) and has a configuration which is substantially complementary to said tubular portion of said radiator, said contoured portions (12a, 12b) being suitable to clamp said tubular portion of said radiator during said condition for use; said supporting member comprising a fine adjustment means whose axis of action substantially coincides with a longitudinal axis of symmetry of said supporting member; said spacer means comprising at least one fixed spacer; said fixed spacer comprising an interlocking member, which is detachably associated by snap action with a second tubular portion of said radiator, which is joined monolithically to a contact base, which can be anchored to said wall, during said condition for use.
A band saw blade comprising: left and right set teeth (3, 5) which are set in right and left directions with respect to a running direction of the band saw blade; wherein a ridge line at a tip of each saw tooth (3, 5) of the set teeth (3,5) is formed into a convex curved line protruding most at a central portion in a thickness direction of the saw tooth (3, 5); characterized in that the band saw blade further comprises a straight tooth which is not set, wherein a ridge line at a tip of each saw tooth of the straight tooth is also formed into a convex curved line protruding most at a central portion in a thickness direction of the saw tooth. left and right set teeth (3, 5) which are set in right and left directions with respect to a running direction of the band saw blade; wherein a ridge line at a tip of each saw tooth (3, 5) of the set teeth (3,5) is formed into a convex curved line protruding most at a central portion in a thickness direction of the saw tooth (3, 5); characterized in that the band saw blade further comprises a straight tooth which is not set, wherein a ridge line at a tip of each saw tooth of the straight tooth is also formed into a convex curved line protruding most at a central portion in a thickness direction of the saw tooth.
Method for manufacturing wall elements from nailable and/or stapleable materials, in which - a wall element frame of a wall element to be produced is positioned lying on a horizontal work table, - wall panels are placed on the wall element frame and - the wall panels are fixed to the wall element frame by nails and/or staples driven in by means of a compressed air setting device, characterized in that a mobile - in particular autonomous - robot, carrying at least one compressed air setting device and/or at least one milling unit, which is positioned in a freely movable manner on the surface formed by the wall panels, in that the robot standing on the wall panels is moved automatically controlled along the surface formed by the wall panels, and in that at predetermined positions the at least one milling unit and/or the at least one compressed air setting device is actuated in an automatically controlled manner in order to machine the wall panels and/or to fasten them to the wall element frame. - a wall element frame of a wall element to be produced is positioned lying on a horizontal work table, - wall panels are placed on the wall element frame and - the wall panels are fixed to the wall element frame by nails and/or staples driven in by means of a compressed air setting device, characterized in that a mobile - in particular autonomous - robot, carrying at least one compressed air setting device and/or at least one milling unit, which is positioned in a freely movable manner on the surface formed by the wall panels, in that the robot standing on the wall panels is moved automatically controlled along the surface formed by the wall panels, and in that at predetermined positions the at least one milling unit and/or the at least one compressed air setting device is actuated in an automatically controlled manner in order to machine the wall panels and/or to fasten them to the wall element frame.
A method for localization of a radio beacon at a remote receiver, via a first satellite payload and a second satellite payload, characterized by comprising the steps of: a. Configuring said first satellite payload to broadcast a first signal at a known epoch (tx e); b. Configuring said radio beacon to: • Determine detection time of said first signal; • Transmit a second signal a predefined delay (T 1) after said detection time; c. Configuring said second satellite payload to relay said second signal; d. Configuring said remote receiver to: • Record detection time of said relayed second signal (tr m), and the time at which the first satellite payload transmits the first signal (tx e); • Determine self-position (x m, y m, z m), position of said first satellite payload (x 1, y 1, z 1) and position of said second satellite payload (x 2, y 2, z 2); • Enable expressing the location (x, y, z) coordinates of said beacon based on said time records (tx e, tr m), said predefined delay (T 1), and said determined positions (x 1, y 1, z 1; x 2, y 2, z 2; x m, y m, z m). a. Configuring said first satellite payload to broadcast a first signal at a known epoch (tx e); b. Configuring said radio beacon to: • Determine detection time of said first signal; • Transmit a second signal a predefined delay (T 1) after said detection time; • Determine detection time of said first signal; • Transmit a second signal a predefined delay (T 1) after said detection time; c. Configuring said second satellite payload to relay said second signal; d. Configuring said remote receiver to: • Record detection time of said relayed second signal (tr m), and the time at which the first satellite payload transmits the first signal (tx e); • Determine self-position (x m, y m, z m), position of said first satellite payload (x 1, y 1, z 1) and position of said second satellite payload (x 2, y 2, z 2); • Enable expressing the location (x, y, z) coordinates of said beacon based on said time records (tx e, tr m), said predefined delay (T 1), and said determined positions (x 1, y 1, z 1; x 2, y 2, z 2; x m, y m, z m). • Record detection time of said relayed second signal (tr m), and the time at which the first satellite payload transmits the first signal (tx e); • Determine self-position (x m, y m, z m), position of said first satellite payload (x 1, y 1, z 1) and position of said second satellite payload (x 2, y 2, z 2); • Enable expressing the location (x, y, z) coordinates of said beacon based on said time records (tx e, tr m), said predefined delay (T 1), and said determined positions (x 1, y 1, z 1; x 2, y 2, z 2; x m, y m, z m).
A lighting assembly comprising: - a primary thermal layer of a thermally conductive material, - a plurality of Light Emitting Diode assemblies, and - a plurality of wires being electrically coupled between electrodes (108, 114) of at least two different Light Emitting Diode assemblies, wherein the Light Emitting Diode assemblies comprise: - a sub-mount of a thermally conductive and electrically insulating ceramic, the sub-mount having a first side being thermally coupled to the primary thermal layer and a second side being opposite the first side, - a first and a second metal electrode (108, 114) arranged at the second side of the sub-mount, - a Light Emitting Diode die being electrically and thermally coupled with an anode of the Light Emitting Diode to the first metal electrode (108, 114) and with a cathode of the Light Emitting Diode to the second metal electrode (108, 114), and - a secondary thermal material being thermally conductive and electrically insulating and being thermally coupled to the primary thermal layer, the secondary thermal material being arranged in between a subset of the plurality of sub-mounts and in between a subset of the plurality of Light Emitting Diode dies for encapsulating a subset of the plurality of wires and extending beyond an imaginary plane formed by top surfaces of the Light Emitting Diodes dies and forming walls of cavities comprising the Light Emitting Diode dies. - a primary thermal layer of a thermally conductive material, - a plurality of Light Emitting Diode assemblies, and - a plurality of wires being electrically coupled between electrodes (108, 114) of at least two different Light Emitting Diode assemblies, - a sub-mount of a thermally conductive and electrically insulating ceramic, the sub-mount having a first side being thermally coupled to the primary thermal layer and a second side being opposite the first side, - a first and a second metal electrode (108, 114) arranged at the second side of the sub-mount, - a Light Emitting Diode die being electrically and thermally coupled with an anode of the Light Emitting Diode to the first metal electrode (108, 114) and with a cathode of the Light Emitting Diode to the second metal electrode (108, 114), and - a secondary thermal material being thermally conductive and electrically insulating and being thermally coupled to the primary thermal layer, the secondary thermal material being arranged in between a subset of the plurality of sub-mounts and in between a subset of the plurality of Light Emitting Diode dies for encapsulating a subset of the plurality of wires and extending beyond an imaginary plane formed by top surfaces of the Light Emitting Diodes dies and forming walls of cavities comprising the Light Emitting Diode dies.
A pre-amplifier for a magnetic resonance imaging radio-frequency coil, comprising an input matching circuit, an amplification circuit and an output matching circuit, characterized in that, the preamplifier is a low-noise preamplifier, which is placed in a multi-channel magnetic resonance imaging radio frequency coil, and is a component of the multi-channel magnetic resonance imaging radio frequency coil, the pre-amplifier for the magnetic resonance imaging radio-frequency coil further comprises a narrow band filter which is a narrow band-pass filter and is installed at the rear end of the output matching circuit within the pre-amplifier and used for filtering a magnetic resonance signal amplified by the amplification circuit, thereby, the pre-amplifier for the magnetic resonance imaging radio-frequency coil is improved to be a narrow band amplifier with an operation bandwidth of less than 10 MHz, and generates a gain required for magnetic resonance imaging only near a magnetic resonance signal frequency point, but generates an extremely small gain at other frequency points or has no amplification function at all, and therefore the probability of oscillation of the pre-amplifier for the magnetic resonance imaging radio-frequency coil is significantly reduced.
An antisense oligonucleotide which binds a human Sirtuin 1 (SIRT1) natural antisense transcript for use as a therapeutic compound, wherein the Sirtuin (SIRT1) natural antisense transcript is SEQ ID NO: 7, and wherein said antisense oligonucleotide increases the expression of human Sirtuin 1 (SIRT1) corresponding to SEQ ID NO: 1.